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POWER SYSTEM MODELLING AND ANALYSIS OF CHRISTMAS CREEK MINE SITE ENG450 Engineering Internship Final Report A final year report submitted to the School of Engineering and Energy, Murdoch University in partial fulfilment of the requirements for the degree of Bachelor of Engineering. Prepared By Nicholas Sweetman Date 10 June 2013 Prepared For Dr Gregory Crebbin and Dr Sujeewa Hettiwatte School of Energy and Engineering

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Page 1: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

POWER SYSTEM MODELLING AND ANALYSIS OF CHRISTMAS CREEK MINE

SITE ENG450 Engineering Internship Final Report

A final year report submitted to the School of Engineering and Energy, Murdoch University

in partial fulfilment of the requirements for the degree of Bachelor of Engineering.

Prepared By Nicholas Sweetman

Date 10 June 2013

Prepared For Dr Gregory Crebbin and Dr Sujeewa Hettiwatte

School of Energy and Engineering

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Executive Summary

This final year thesis was written with reference to the intern’s work placement at Fortescue

Metals Group (FMG) between January and April, 2013. The primary focus of the placement was

to build a power system model of Christmas Creek mine site and analyse load flow and short

circuit scenarios. As well as the main task, a number of small projects or tasks were sought and

completed for the purpose of gaining experience in the day-to-day tasks of an electrical engineer.

The electrical system was studied through the use of a computerised system modelling software

package to evaluate the existing electrical network from a reliability and safety point of view. The

model was based on available information and data collected through internal document control

and the electrical server within FMG’s intranet. All cables and switchgear ratings that were

available were assessed during load flow and short circuit simulations to determine the suitability

of existing equipment and network topology.

The load flow studies suggest that under the maximum demand operation scenario, 51.14

megawatts is expected with 27 generator units running. Load flow analysis indicates numerous

voltages at busbars are below 5% of nominal rating and that all major equipment is loaded below

their rated capacity.

Evaluation of the short circuit studies suggests that some fault levels throughout the mine site are

close to the equipment ratings and further investigation will be required to determine any

appropriate action to be taken. During one scenario a small number of switchgear was identified as

experiencing short circuit currents exceeding their design rating during the maximum fault

calculation.

Based on results from the model, it is recommended to verify all component data, replace all

assumptions made with new information where available and to model all loads separately in

order to improve accuracy and instil confidence in the model.

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Disclaimer

All the work discussed in this report is the work of the author unless otherwise referenced.

I declare the following to be my own work unless otherwise referenced as defined by

Murdoch University’s policy on plagiarism.

............................................

Nicholas Sweetman

10 June 2013

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Acknowledgements

First and foremost I would like to thank Mark Botes and Cobus Strauss for making the

internship possible at Fortescue Metals Group. The project I was involved in and experience

gained on site has provided me with an invaluable opportunity otherwise unlikely to obtain.

I would like to acknowledge my girlfriend Lyndsey Wetton for all her support over the years

throughout my TAFE and University courses. A big thank you is also needed for proof

reading many reports and in particular this thesis.

I would like to mention the following people and thank them for assisting me in various

ways, to which I am forever grateful.

Recognition must also be made to Steve Silich and Jason Bunko who have welcomed me into

the Christmas Creek team and have spent a lot of time explaining and teaching. Hopefully in

a few years I will be able to imitate this powerful learning experience and help a vacation or

graduate student to the same level.

I am grateful to my family and friends for supporting me during my studies and keeping me

sane during high stress periods. Many beers were purchased.

I would like to thank Dr. Gareth Lee firstly over four years ago when I was sitting in your

office enquiring about entry into University from TAFE. This was a monumental moment in

my life and I will not forget the inspiring sincerest hospitality I received. Secondly I would

like to thank Dr. Gregory Crebbin, Dr. Martina Calais and Simon Glenister you for all your

help and support throughout my time at Murdoch University.

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Table of Contents

Executive Summary ................................................................................................................... 1

Disclaimer .................................................................................................................................. 2

Acknowledgements .................................................................................................................... 3

Abbreviations and Definitions ................................................................................................. 10

1.0 Introduction ........................................................................................................................ 12

1.1 The Internship ................................................................................................................ 12

1.2 Fortescue Metals Group Ltd ........................................................................................... 12

1.2.1 Christmas Creek Mine Site ...................................................................................... 13

1.3 Report Limitations.......................................................................................................... 14

2.0 Project Description............................................................................................................. 15

2.1 Major Project - Christmas Creek Power System Study ................................................. 15

2.2 Minor Projects ................................................................................................................ 16

3.0 Power System Modelling ................................................................................................... 17

3.1 Software Package ........................................................................................................... 17

3.2 Methodology of Building the Model .............................................................................. 17

3.3 Assumptions ................................................................................................................... 18

3.4 Major Equipment Parameters ......................................................................................... 20

3.4.1 Synchronous Generators .......................................................................................... 20

3.4.2 Transformers ............................................................................................................ 20

3.4.3 Cable Input Data ...................................................................................................... 23

3.4.4 Electrical Loads ........................................................................................................... 25

3.4.5 Largest DOL Motor ................................................................................................. 25

3.4.6 Lumped DOL Motor ................................................................................................ 26

3.4.7 VSD/SS Loads ......................................................................................................... 26

3.4.8 Static Loads ............................................................................................................. 27

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3.5 Accuracy.................................................................................................................... 28

4.0 Load Flow Analysis ....................................................................................................... 29

4.1 Purpose ........................................................................................................................... 29

4.2 Case Study Descriptions................................................................................................. 30

4.3 Load Flow LF-1 Maximum Demand – 27 Generators in Service 51.14 MW Load ...... 32

4.3.1 LF-1 Results ............................................................................................................ 32

4.3.2 LF-1 Conclusions and Recommendations ............................................................... 33

5.0 Short Circuit Study ......................................................................................................... 35

5.1 Theoretical Background ................................................................................................. 35

5.2 Sources and Limitations of Short Circuit Current .......................................................... 39

5.3 Effect of Short-Circuit Currents on Equipment, People and Livestock ......................... 39

5.3.1 Thermal Effects on Equipment ................................................................................ 39

5.3.2 Electromechanical Effects on Equipment ................................................................ 40

5.3.3 Effects of Current on Human Beings and Livestock ............................................... 40

5.4 Analysis of Faults by Hand ............................................................................................ 42

5.5 PowerFactory Short-Circuit Calculation Method .......................................................... 44

5.6 Short-Circuit Case Study Descriptions .......................................................................... 45

5.6.1 Short Circuit SC-1 ....................................................................................................... 47

SC-1 Minimum 3 Phase Short-Circuit Fault Currents...................................................... 47

SC-1 Maximum 3 Phase Short-Circuit Fault Currents ..................................................... 48

SC-1 Conclusion and Recommendations ............................................................................. 49

5.4.3 Short Circuit SC-2 ....................................................................................................... 49

SC-2 Minimum 3 Phase Short-Circuit Fault Currents...................................................... 49

SC-2 Maximum 3 Phase Short-Circuit Fault Currents ..................................................... 50

SC-2 Conclusion and Recommendations ............................................................................. 51

6.0 Conclusion and Recommendations ................................................................................ 52

7.0 Model Verification and Validation ................................................................................ 54

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7.0 Future Works .................................................................................................................. 55

8 Minor Projects ................................................................................................................... 57

8.1 Recloser 2 (REC002) – Power vs. Time Graph – 16/01/2013 ................................... 57

8.2 Waste Water Treatment Plant (WWTP) Lighting and Small Power Cable Calculation

SY_P5 ............................................................................................................................... 59

8.3 Kandama Generators 240V 6mm2 Cable Calculations .............................................. 61

8.4 Recloser 1 (REC001) Western Overhead Line Fault ................................................. 61

9 References ......................................................................................................................... 63

STANDARDS ...................................................................................................................... 66

Appendix A Model Input Data ................................................................................................ 73

Generator Input Data ............................................................................................................ 73

Transformer Input Data ........................................................................................................ 74

Cable Input Data................................................................................................................... 78

Motor Data Input .................................................................................................................. 86

Load Input Data .................................................................................................................... 89

PowerFactory Device Data Input ......................................................................................... 93

Appendix B Assumption Breakdown ...................................................................................... 94

Appendix C PowerFactory Model Methodology ..................................................................... 95

Appendix D Load Flow Scenarios ........................................................................................... 96

D.1 LF-2 Existing Feeder Operation – Maximum Demand - 27 Generators in Service 51.14

MW Load ............................................................................................................................. 96

D.1 LF-2 Results............................................................................................................... 96

4.4.2 LF-2 Conclusions and Recommendations ............................................................... 97

Appendix D Short Circuit Scenarios........................................................................................ 99

D.1 SC-1 ............................................................................................................................... 99

D.2 SC-2 ............................................................................................................................. 100

D.3 Short Circuit SC-3 ....................................................................................................... 101

SC-3 Minimum Three Phase Short-Circuit Currents ..................................................... 101

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SC-3 Maximum Three Phase Short-Circuit Currents ..................................................... 102

SC-3 Output........................................................................................................................ 104

D.4 Short Circuit SC-4 ....................................................................................................... 105

SC-4 Minimum 3 Phase Short-Circuit Fault Currents.................................................... 105

SC-4 Maximum 3 Phase Short-Circuit Fault Currents ................................................... 107

D.4 Output .......................................................................................................................... 109

Appendix E Hand Calculations to Verify Software Accuracy .............................................. 110

Appendix E.1 20 Generator Operating Scenario ............................................................ 110

Appendix E.2 Maximum Demand - 27 Generator Operating Scenario ............................. 112

Appendix F Generator and Alternator Manufacturers Data Sheet ......................................... 114

Appendix G Minor Projects ................................................................................................... 115

Appendix G.1 Recloser 2 (REC002) – Power vs. Time Graph ......................................... 115

Appendix G.2 Waste Water Treatment Plant (WWTP) Lighting and Small Power Cable

Calculation, SY_P5 ............................................................................................................ 116

Appendix G.3 Kandama Generators 240V 6mm2 Cable Calculations .............................. 117

Appendix G.4 Recloser 1 (REC001) West OHL Fault ...................................................... 118

REC001 Phase A Voltage Waveform ............................................................................ 119

REC001 Phase A Current Waveform ............................................................................. 120

REC001 Phase A Earth Fault Waveform ....................................................................... 121

REC001 Waveform Capture Settings ............................................................................. 122

Appendix I Maximum Demand Spreadsheet OPF1 (Omitted) .............................................. 123

Appendix J Maximum Demand Spreadsheet OPF2 (Omitted) .............................................. 124

Appendix K Transformer Nameplate 10TX201 .................................................................... 125

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Table of Figures

Figure 1 Symmetrical & Asymmetrical Fault Currents (Redrawn from IEC 60909) .............. 37

Figure 2 Simplified RL Circuit ............................................................................................... 38

Figure 3 REC002 Power vs. Time During Generator Testing ................................................. 58

Figure 4 Karntama Village Power System Physical Arrangement .......................................... 59

Figure 5 WWTP Lighting and Small Power Cable ................................................................. 60

Figure 6 Methodology Flowchart ............................................................................................ 95

Figure 7 Hand Calculations 20 Generators OHL Power Station to Karntama Village ......... 110

Figure 8 MVA Rating 20 Generators in Service ................................................................... 111

Figure 9 Hand Calculations 27 Generators OHL Power Station to Karntama Village ......... 112

Figure 10 MVA Rating 27 Generators in Service ................................................................. 113

Figure 11 REC001 NuLEC ADVC Cntroller ........................................................................ 118

Figure 12 Trip Settings for REC001 ...................................................................................... 118

Figure 13 Transformer Nameplate 10TX201 ........................................................................ 125

Table of Tables

Table 1 Load Flow Case Studies ............................................................................................. 30

Table 2 LF-1 Results ................................................................................................................ 32

Table 3 Short-Circuit Case Study Scenarios ............................................................................ 46

Table 4 Voltage Factor (c) as per IEC 60909 .......................................................................... 47

Table 5 SC-1 Minimum Three Phase Short-Circuit Results .................................................... 48

Table 6 SC-1 Maximum Three Phase Short-Circuit Fault Currents ........................................ 48

Table 7 SC-2 Minimum Three Phase Short-Circuit Results .................................................... 50

Table 8 SC-2 Maximum Three Phase Short-Circuit Results ................................................... 51

Table 9 REC001 Fault Log ...................................................................................................... 62

Table 10 Drawing Registry ...................................................................................................... 72

Table 11 Synchronous Generator Input Data ........................................................................... 73

Table 12 Two Winding Transformer Input Data ..................................................................... 75

Table 13 Three Winding Transformer Input Data ................................................................... 75

Table 14 Tap Changer Dyn11 .................................................................................................. 76

Table 15 Tap Changer Ynd1 .................................................................................................... 76

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Table 16 Cable Input Data ....................................................................................................... 82

Table 17 Cable Input Specification.......................................................................................... 86

Table 18 Asynchronous Motor Input Data .............................................................................. 88

Table 19 VSD, SS & Static Loads Input Data ......................................................................... 92

Table 20 LF-2 Results .............................................................................................................. 97

Table 21 SC-4 Minimum Verification Report ....................................................................... 101

Table 22 SC-3 Maximum Verification Report ...................................................................... 103

Table 23 SC-4 Minimum Verification Report Cables ........................................................... 106

Table 24 SC-4 Minimum Busbars ......................................................................................... 106

Table 25 SC-4 Maximum Overloaded Busbars ..................................................................... 107

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Abbreviations and Definitions

ANSI American National Standards Institute

AS Australian Standard

CC Christmas Creek

Cu Copper

DOL Direct-on-line (electric motor)

FMG Fortescue Metals Group

HV High Voltage

IEC International Electro-technical Commission

kW Kilo Watt

kV Kilo Volt

LF Load Flow

LV Low Voltage

MCC Motor Control Centre

ms Milliseconds

Mtpa Million Tonnes per Annum

MVA Mega Volt Ampere

NER Neutral Earthing Resistor

NZS New Zealand Standard

OPF Ore Processing Facility

PF PowerFactory by DIgSILENT Pacific

pu Per Unit

PVC Polyvinyl Chloride

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RMU Ring Main Unit

rpm Revolutions Per Minute

SLD Single Line Diagram

SS Soft Starter

SWBD Switchboard

TX Transformer

VD Voltage Drop

VSD Variable Speed Drive

XLPE Cross-linked Polyethylene

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1.0 Introduction

1.1 The Internship

A final year component of Murdoch University’s Bachelor of Engineering degree is a thesis

or an internship combined with a thesis in a relevant industry. This intern was fortunate to be

offered an opportunity to complete the latter with Fortescue Metals Group Limited (FMG) in

16 weeks of full time employment.

The ENG450 (Engineering Internship) unit guide states that the aim of the internship is to

challenge the student with a project or group of works that are directly relevant to their field

of study at a professional level. The intern should be exposed to a range of engineering

practice issues and be involved in the processes of decision making and problem solving.

The internship placement was based in FMG’s Perth office and allowed site visits to

Christmas Creek mine site when required. During site visits, additional work was undertaken

in optional projects and these have been added to this report in Section 8 “Minor Projects”.

The purpose of this report is to document the activities the intern undertook during the

internship period at FMG. The intention of the report is to breakdown the major project into

sections where the methodology used to overcome problems or impediments is explained.

The author’s involvement in this internship facilitated diverse learning and development

opportunities otherwise unachievable through an ordinary thesis project. The placement

enabled valuable work experience with numerous teams and persons from many disciplines

that have all contributed to the project in some way.

1.2 Fortescue Metals Group Ltd

FMG is currently Australia’s third largest iron ore producer and operates in the Pilbara region

of Western Australia. The company holds the state’s largest tenements of iron ore at 87 000

km2. Current mining operations are at Cloudbreak and Christmas Creek, with a third of

Solomon coming into operation. The mines are connected by a 256 km railway to Herb Elliot

Port from where ore is then shipped to the customer. 90% of products are supplied to the

Chinese market [1].

FMG is currently in the final (second) phase of an expansion plan that will increase the

company’s annual total production capacity threefold, to 155Mtpa, by the end of 2013. This

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amount will account for about 20 percent of China’s total iron ore imports, playing a

significant role in the China’s economic growth.

1.2.1 Christmas Creek Mine Site

Christmas Creek is located 50km east of Cloudbreak and is the larger of the two mines. This

site is nearing the end of a two stage development of the site, with the first ore processing

facility (OPF) commissioned in April 2011 and the second commissioned at the end of

September 2012. Part of this expansion includes additional infrastructure projects. These

include doubling the capacity of the operations village, building a remote crushing hub

comprising a 6.3km overland conveyor, building a new airstrip, roads and expanding the

power plant. The two OPFs have a combined estimated throughput of 55mtpa.

Christmas Creek is predominantly a contractor based site where the mining and ore

processing operations are outsourced to several expert contractors. Due to recent expansions

the camp now comprises 1600 rooms.

1.2.1.1 Christmas Creek Mine Power Distribution System

Christmas Creek power station has 58 MW installed capacity that is powered by 27 Cummins

QSK78 diesel generators, each with a prime power rating of 2.2 MW. At the time of

installation, this was the largest diesel power station in Australia and the largest installation in

the world using this particular model [2]. The power station was designed, constructed and is

currently owned and operated by Contract Power, who specialise in this area. An extra

generator, a CAT C175 set is being trialled to test its ability to operate in the harsh

environment of the Pilbara.

The transfer of power is accomplished through an overhead line distribution system at 33kV.

The OPFs are connected to the PowerStation switchroom via 11kV cables. Multiple parallel

lines are used to provide for redundancy.

All transformers connected to the 33kV system have Neutral Earthing Resistors (NERs)

connected between the star point and ground. This will reduce the earth fault current to 100A

and also prevent any further damage to electrical equipment that may have already been

caused by the fault itself.

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1.3 Report Limitations

This submission is made in reference to the ENG450 Final Year Engineering Internship

Study Guide 2013. The time frame of the project was 4 months, so careful planning at the

beginning was necessary to enable completion of the project. Due to the time limitations,

building the project and updating components with new information had to cease at a

particular time in order to run simulations and analyse.

This report is concerned only with three-phase short circuit currents. In order to conduct a

single phase study, more information of the zero sequence data is required for the

transformers. Assumptions could be made, though it would be of no benefit to assume more

than one key characteristic, where the X/R ratio has already been assumed.

In an effort to reduce errors and increase accuracy of the model, a protection setting review

has not been included in this thesis, and will require a significant amount of time on site to

collect information. This will be performed in a later stage of updating the model.

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2.0 Project Description

2.1 Major Project - Christmas Creek Power System Study

FMG requested a model of the Christmas Creek power system to be built in the company’s

preferred computer software package, PowerFactory by DIgSILENT. Load flow and short

circuit simulations were performed and analysed for the suitability of electrical equipment

sizing and stability of the network. This model will supplement the existing models for

Cloudbreak and Port Headland (shipping) and eventually form part of a complete package of

all FMG mine sites. This will allow future works to be checked in-house, reducing the cost

and time associated with contracting the work out.

FMG’s aim of a complete model of all mine sites includes the protection settings. This will

not only provide a method of data storage, but allow for testing, coordinating and

examination of these to increase safety and reliability of the power network. During the

project, once the modelling process was achieved, load flow and short circuit scenarios were

performed and analysed. Any components that were heavily loaded are discussed further in

this thesis with possible recommendations for corrective actions to reduce or eliminate these

loadings.

A short circuit study can potentially identify areas of the network that has underrated

equipment. This is explained in more detail at a later stage of the report. The implication of

equipment failure in the ore processing facilities sections is enormous. It will delay

processing and therefore loading of the train with ore. For every hour the plant is out of

service, the theoretical monetary value lost is related to the average ore that could be mined,

so the sizing of electrical equipment to cater for short circuit currents is vital. They should be

capable of carrying the rated fault current for the prescribed duration without damage. It may

take weeks or even months to replace the equipment depending on the manufacturer.

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2.2 Minor Projects

A number of small projects or tasks were sought and completed for the purpose of gaining

experience in the day-to-day tasks of an electrical engineer. These projects were initiated by

being involved wherever possible and showing an interest to learn.

As this thesis report is focused on the creation of a power system model of Christmas Creek,

these minor project involvements do not go into the same depth of explanation. Rather they

will provide a sense of purpose for the task and the lessons learnt or gained.

The electrical engineers on site are responsible for all overhead line power distribution from

the power station to all areas and in particular the two camps at CC. The construction camp is

for contractors and has temporary demountable units, while Karntama Village has permanent

accommodation and is occupied by the operations team.

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3.0 Power System Modelling

All analysis in engineering practice starts with the construction of appropriate mathematical

models. A model for power system analysis is a set of equations or relations that describe the

interactions between different quantities in the time frame studied and with the desired

accuracy. Selection of the appropriate mathematical model is often the most difficult part of

the study. It is good engineering practice to use the simplest model that will not omit essential

information. A more complicated model requires additional input parameters in order to work

and these may not be available to obtain without making assumptions.

Models are the foundation of all power system studies, where calculations of operating limits,

assessment of new generation or load expansion, performance of system stability and

protection can be easily performed.

3.1 Software Package

The calculations in this study were performed using the company’s preferred power system

simulation software package, PowerFactory Version 14.1.4 64 bit by DIgSILENT Pacific.

DIgSILENT Pacific has led the market by setting a high standard in power system modelling,

analysis and simulation for more than 20 years. PowerFactory is an ideal tool for studying

generation, transmission and distribution networks with an easy to use graphic user interface.

3.2 Methodology of Building the Model

Where available, the most recent Single Line Diagrams (SLDs) were used to extract

information and provide input components into the model. These were found in a multitude

of places on the network drive. PIMS is a database for storing information, where each

document is assigned a number referencing it to a particular project. Document control adds

these documents into the system and allows access by searching for keywords or document

number. This process has lagged behind at FMG and is currently being assessed for ways to

improve the process. Documents that have not yet been entered into the PIMS system, as they

are waiting on red line mark-up changes to be drafted are in a common electrical folder.

A flowchart for the systematic approach of collecting and keeping track of data can be seen in

Appendix C. This was created during the planning stages of the project and allowed for a

drawing registry (found in references) in the form of a spreadsheet to be created. This method

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of organisation reduced time spent re-searching for a particular file and enabled missing

information to be documented and updated if found.

Crushing Services International (CSI) own and operate the OPFs, and at the time of writing

this report, CSI have not handed over the as-built package of drawings for OPF1 and OPF2.

Preliminary drawings and a load list that dates back to mid-2010 for OPF1 and 2011 for

OPF2 were used. These load lists can be seen Appendix I & J respectively.

Site visits were planned based on a list of components or sections that required information

that was not obtainable from the SLDs. Transformer name plates were verified and compared

to SLDs in order to check model accuracy. Having an understanding of the layout of the site

proved essential to verify the location of connections and feeders.

3.3 Assumptions

The following assumptions were made for the models;

• The X/R ratio for transformers without test sheets is 10 as per AS 3581 (pg. 18);

• All transformer tap settings were assumed to be the same and currently in neutral

position;

• All known motors and loads are captured in the model or left out if unknown;

• Power station was modelled with an operating voltage point of 1.0 p.u at the 11kV

busbar;

• The largest Direct On line (DOL) motor was modelled separately using the

PowerFactory library while the remaining DOL motor loads were combined into a

lumped motor load. This allows motor contribution for calculations;

• Lumped DOL loads were assumed to have a R/X ratio of 0.42 and locked rotor

current ratio (ILR/IFL) of 5 as per AS3851 (pg. 20);

• Loads for Variable Speed Drives (VSDs) and Soft Starters (SSs) were modelled with

a power factor of 0.93 as per ABB ACS800 catalogue [13];

• Static loads, for example, lighting and small power, were modelled with a power

factor of 0.9;

• Loads in OPF1 and OPF2 have feeder scaling according to maximum demand spread

sheets where information was available (Appendix I & J);

• Where the thermal ratings of busbars are unknown, they have been left out. Only the

known ratings have been shown;

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• 10MVA Step-up transformers TF001 and TF012 are paralleled and both feeders from

power station are in service.

• Nominal voltages range from LV to HV, but do not exceed 550 kV, which is the limit

set by standard IEC 60909-0 (pg. 13).

• The three-phase short circuit fault occurs simultaneously on all three phases.

• During a fault, the number of phases involved does not change. A three-phase fault

remains.

• Arc resistances were not taken into account

• Fault simulations occur with no impedance at the faulted bus

• Positive sequence impedance is used as the phase impedance on all phases

• For three winding transformers, assumed values are used for transformer impedance

between primary-tertiary and secondary-tertiary windings.

• Backup generators and the step-up transformer at Kandama Village were not added to

the model as they are not part of the circuit.

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3.4 Major Equipment Parameters

All components entered into the model are considered under steady-state and not transient

(varying) over time). Positive sequence data was entered in order to run the load flow and

three phase short circuit scenarios. All input data can be seen in Appendix A, where an

explanation of how each component was modelled is given below in the relevant sections.

Any assumptions made were identified and scrutinised to determine their effect on results.

Assumptions were made on a conservative basis, so that the effect will be of a conservative

(slightly higher) nature on the short circuit currents.

A breakdown of section assumptions can be seen in Appendix B. This is not for individual

items but allowed for progress tracking to occur and helped move the project into an operable

state.

3.4.1 Synchronous Generators

The Christmas Creek power station uses 27 Cummins QSK78-G9 diesel engines as the prime

mover, connected to HV80W alternators. The manufacturer’s specifications for these can be

seen in Appendix F.

The generators were modelled with a station controller feature within PowerFactory. This

allows for power sharing between all sets with reference to the 11kV busbar at the power

station. The limits of active and reactive power are set within each unit and will flag a

violation if operated beyond this point.

3.4.2 Transformers

The nameplate of a transformer can provide most of the information to create the model. The

exception is the zero sequence impedance and X/R ratio. For a three phase short circuit the

X/R ratio is of more importance and can only be found in the test sheet.

When purchasing a transformer, the customer will specify to the manufacturer a list of

characteristics that the transformer should meet in order to satisfy their needs. To prove these

values, each transformer built is tested against standard criteria mentioned in AS, ANSI/IEEE

and IEC standards. These values must be within a certain acceptable variation from the value

stamped on the name plate. This is to ensure quality control, prevent equipment damage, and

certify safe operation. All transformers at Christmas Creek originate from overseas so the

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standards used will depend on IEC specifications for European devices based in Europe or

ANSI/IEEE for devices from the Unites States of America.

Transformer losses are produced by the electrical current flowing in the windings and the

magnetic field alternating in the core. The losses associated with the windings are known as

the load losses, while the losses generated in the core are known as no-load losses. Winding

load losses vary depending on the loading on the transformer. They include heat losses and

magnetising current losses in the primary and secondary conductors of the transformer. Heat

losses (I2R) contribute to the largest part of load losses.

No-load losses are produced by the magnetising current required to energise the core and do

not vary depending on the loading. They are always present when the transformer is

energised. These losses can be broken down into the following components: hysteresis and

eddy current losses in the core laminations, I2R losses due to no-load current and stray eddy

currents. The main contributors to these losses are hysteresis and eddy currents, which

account for over 99 percent of the losses. [8]

The nameplate, or kVA rating of a transformer is based on continuous rated loading (kVA)

when the transformer is operated under normal conditions at a specified ambient temperature

(50°C from FMG internal electrical design specifications, 100-SP-EL-1000) This is a

physical sign that is attached to the equipment and an example can be seen in Appendix K.

To complete a load flow or short circuit calculation, PowerFactory requires the following

input information:

Short Circuit Impedance (%Z);

Impedance is measured by conducting a short circuit test. With one winding shorted, a

voltage is applied to the other winding to circulate full load current. The percentage

impedance can then be calculated by:

Equation 1

𝑍% = 𝐼𝑚𝑝𝑒𝑑𝑎𝑛𝑐𝑒 𝑉𝑜𝑙𝑡𝑎𝑔𝑒𝑅𝑎𝑡𝑒𝑑 𝑉𝑜𝑙𝑡𝑎𝑔𝑒

𝑥 100 [11]

The Impedance of a transformer has an enormous effect on fault levels and determines the

maximum fault current that will flow under fault conditions. Higher values will lead to lower

fault levels downstream.

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X/R ratio or %R and %X, or R and X pu;

This is the reactance to resistance ratio or can be separately entered depending on the

information provided. This is another way of representing the power factor from the

following equation.

Equation 2

𝑃𝑜𝑤𝑒𝑟 𝐹𝑎𝑐𝑡𝑜𝑟 = 𝑐𝑜𝑠 �𝑡𝑎𝑛−1 �𝑋𝑅��

This ratio is importance as it determines the peak asymmetrical fault current. A typical fault

current waveform can be broken into two components, a synchronous sine wave and a DC

component, as described further in Section 5.1, Figure 1. The magnitude of the DC

component of the short circuit current is estimated from the X/R ratio.

Primary and Secondary Voltage Magnitudes

A transformer steps the voltage up or down and the voltage ratio can be taken from the

nameplate.

Power Rating kVA

The power rating of a transformer is provided in kVA, where this consists of the active and

reactive power. This is the rating defined as the operating power capabilities during normal

operation.

Equation 3

𝑘𝑉𝐴 =𝐼 𝑥 𝑉√3

1000

where:

I is the transformers rated current (A)

V is the rated primary voltage (V)

Vector Group Connection

The vector group provides important information about how the three phase windings are

connected and any phase displacement that occurs. The capital letter denotes the high voltage

side of the transformer, while lower case letters represent the low voltage side. Typically a

Dyn11 vector group is used all throughout Christmas Creek. This means that the high voltage

winding has a delta arrangement, the low voltage has a star connected winding with the

neutral point earthed and a phase shift of 30 degrees leading [11].

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Zero Sequence Impedance %Z0

This can only be found in the test sheet. This figure takes into account the path the current

would flow in an unbalanced short circuit that occurred to earth. It is not needed in a three

phase short circuit calculation.

Tap Changer

This is a device installed to allow for changing the voltage to set points that are in steps of

2.5% of the nominal voltage on the high voltage winding. All tap changers were modelled in

the neutral position, where further details can be seen in Appendix A in Table 13 and 14.

Magnetizing Impedance (No Load Current and No Load Losses)

This is not a requirement to build the transformer model, although it allows for a more

realistic representation by factoring in the losses. This data can be found in the test sheets.

3.4.2.1 Assumptions for Transformers and Resultant Affects

36 out of a total 56 (64%) transformers on site did not have test sheets in the system and

could not be obtained during the modelling process. These transformers were instead

modelled as ideal transformers using a value for the X/R ratio of 10, as described in AS 3851.

It is important to model this ratio accurately because it determines the asymmetrical peak

fault current.

The power factor determines how much the voltage and current sine waves are out of phase.

In a purely resistive system (power factor of 1), the voltage and current waveforms are in

phase. For purely reactive systems, the voltage and current are 90° out of phase. As the power

factor decreases, the X/R ratio increases.

Most of the transformer information can be obtained from nameplates, with the exception of

the X/R ratio. Estimating this value has minimal impact on loadflow and fault currents

throughout the network. The greatest influence of this ratio is on the peak current, which is

not the focus of the analysis in this report.

The tap changers were modelled the same for each transformer. This choice was based on all

available transformer data sheets being the same.

3.4.3 Cable Input Data

The OLEX catalogue [10] was used to create the cable components in the model. The

following information was needed in PowerFactory to perform a fault calculation:

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- Cable Size and Type

- Length

- Resistance and Reactance per length or in per unit

- Rated Current

- Zero Sequence Resistance and Reactance per length

The values for the resistances are given at the conventional 20°C. When calculating the short

circuit currents, the resistance of the cables is very important. Not only is the impedance

based on the length of the cable, but also the resistance increases with temperature as per

Equation 4 below.

Equation 4

𝑅 = 𝑅𝑟𝑒𝑓[1 + 𝛼�𝑇 − 𝑇𝑟𝑒𝑓�] [18]

Where,

R = Conductor resistance at temperature T.

Rref = Conductor resistance at reference temperature Tref.

α = Temperature coefficient of resistance for the conductor material.

Copper, α = 0.004041, Aluminium, α = 0.004308.

T = Conductor temperature in degrees Celsius.

Tref = Reference temperature

The constant α is a figure that reflects the resistance per degree of temperature change. As the

resistances of the cables throughout the network change so too will the currents flowing and

I2R losses.

3.4.3.1 Assumptions for Cables and Resultant Effects

Where there were not drawings or enough information, these cables were deleted or not

included. The resulting effect will slightly increase the fault current as it will have eliminated

a source of impedance. This is seen as a positive decision as it will provide a slightly more

conservative fault current.

Cables do not limit the fault current to the same extent as transformers, so it is considered

reasonable to ignore or delete these.

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3.4.4 Electrical Loads

The information used for modelling the loads was selected based on the installed power

(nameplate kW). These are found in SLDs and load lists and simplified into 4 groups below:

- Largest Direct Online (DOL) motor

- Lumped DOL excluding the largest motor

- Lumped VSD’s

- Static Loads

The limits for adding loads to the model stop at three phase 415V levels. Control voltages

and other systems lower than this will have an insignificant effect on the overall load flow

and short circuit simulations. Ignoring lower voltage circuits will reduce modelling time.

It is often difficult to accurately model loads due to several factors:

- Lack of precise information

-Change of load composition over time

- Weather affects

- Seasons

- De-rating over time

The maximum demands for the loads were used as this is described in both international and

Australian three phase short circuit standards. This is to account for the fault contribution of

motors.

3.4.5 Largest DOL Motor

The largest DOL motor is selected from the PowerFactory library based on an equivalent

motor size. The purpose of this is to allow the motor element to behave realistically and

contribute to the short circuit fault current and will differ from assuming locked rotor current

and R/X ratios as with the case of the lumped motor load.

During a short circuit condition the system voltage will decay, so a stable voltage supply no

longer exists. The rotating magnetic field of the rotor will attempt to support the reduced

voltage condition by becoming a generator. During this time the motor is providing additional

current into the faulted electrical system. The amount of current provided is dependent on the

locked rotor current. This is the amount of current needed to start the motor and is a multiple

of the full load current.

The information needed in the model for a completed asynchronous machine component is:

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- Motor Ratings (Amps or kVA or Horse Power and Power Factor)

- Line-Line Voltage

- Locked Rotor Current (ILR/IrM)

- ILR = Locked Rotor Current

- IrM = Rated Motor Current

- R/X Ratio of motor

3.4.5.1 Assumptions for Lumped DOL Motors and Affects

The selection of a similar sized motor from the library will increase the accuracy of the

behaviour and motor contribution to the fault current.

3.4.6 Lumped DOL Motor

With reference to AS 3851 (pg. 20) and IEC 60909-0 (pg. 75), the remaining low voltage

(under 1000V) DOL motor loads were combined and modelled as an equivalent

asynchronous machine. Without information for each motor, this simplification is the

industry standard method for modelling many loads.

3.4.6.1 Assumptions for Lumped DOL Motors and Effects

The locked rotor current (ILR/IrM) is assumed to be five. This means that the motor requires five

times the full load current to start. The R/X ratio is 0.42 and this also accounts for the

impedance in the cables running to the motors.

Where motor data sheets were not available, assumptions and approximations were made and

provided a conservative value. The fault contribution calculation for the DOL motors will be

of a conservative nature and will depend on what motors are running at the time of the fault.

3.4.7 VSD/SS Loads

Variable speed drives (VSDs) and soft starters (SSs) were modelled together with a power

factor of 0.93. This power factor was selected from the ABB catalogue of industrial drives

[13].

To model this load, a general load was used with the input tab for active power and power

factor.

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3.4.7.1 Assumptions for VSD/SS Motors and Affects

Two assumptions were made for the combined VSD/SS load, the first being that these will

not contribute to the fault current and the second is the power factor. Modern VSDs run at a

very high power factor, much higher than the selected 0.93, so this choice is slightly

conservative. Not all VSDs on site will be the same, so this value was chosen as a mid-point

between various manufacturers.

3.4.8 Static Loads

These are a combined set of loads that could possibly be running at the same time. These

include all lighting and small power and socket outlets. A power factor selection of 0.9 was

chosen based on previous maximum demand calculations by FMG. This value represents the

typical loads in the static category quite well.

3.4.8.1 Assumptions Static Loads and Effects

It is difficult to determine the maximum loading so this can be quite subjective. The

combined kW rating was lumped into a general load. If this was overestimated in the OPF

sections, it would be insignificant as the feeders were scaled down to reduce the demand at

each location.

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3.5 Accuracy

To check the accuracy of the model, it must be compared against actual measured power

system data, in a procedure known as validating. If the model does not represent significant

observed events on the power system with reasonable accuracy, then it is difficult to have

confidence in the model.

Any assumptions and simplifications made due to lack of information affects the model’s

overall accuracy. A certain level of confidence needs to be associated with the calculation of

short-circuit currents and is dependent on several factors:

- Confidence in the model input data,

- Confidence in the mathematical models used by the software

-Confidence in the accuracy of software analysis techniques used to calculate short circuit

currents and

-Confidence in the ability of the student to correctly apply the relevant standards (eg. IEC

60909, AS 3008 and AS 3851).

The design tolerance of equipment should be observed as this may affect the magnitude of

the current throughout the network. Each component has a design tolerance that must be met

in order to operate it within Australia. The tolerance is mentioned in various standards.

Factory test certificates usually provide the most accurate data and were used wherever

possible.

There may be a significant contribution to short circuit currents from asynchronous motors as

compared to reality, due to the number of motors running at maximum demand. The lumped

DOL motors use an equivalent combined motor load that allows the software to calculate the

fault current contributions.

There is a significant volume of data that must be organised and controlled throughout the

various phases of a project. If there is one location for the storage of technical documents

(PIMS) that was continuously kept up to date, then the errors could be reduced. This process

of document control is vital in contributing to a high level of precision in calculations.

The main concern is the transformers X/R ratios for the CSI owned and operated sections,

OPF1 and OPF2. These are impossible to obtain as FMG does not have any operational

involvement with this section and complete details have not been handed over.

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4.0 Load Flow Analysis

4.1 Purpose

A load flow analysis is used to calculate network performance under pre-determined

operating conditions. It is performed to examine the steady state magnitude and phase angle

of the voltage at each bus and the real and reactive power flows within the network, where

steady state is defined as a condition in which all variables and parameters are assumed to be

constant during the period of observation [PowerFactory Manual 14.1 Ch 23].

Previously where software has not been available to conduct a load flow before a short circuit

simulation, it was considered normal to leave out the loads and only consider the short circuit

currents related to the location of the fault. With PowerFactory, the user is able to perform

these hard to calculate by hand scenarios that were previously considered tedious and time

intensive.

In recent years, the inclusion of loads in the analysis is starting to become standard practise

where increased accuracy and precision of calculations are essential.

Load flow results are valuable for planning ahead and allow hypothetical situations to be

calculated more easily. The load flow scenarios to be analysed are described in Table 1.

These two scenarios were chosen to replicate the cool and hot conditions that the conductors

will experience. Christmas Creek’s location in the arid Pilbara means that temperatures play

an important role for the calculation of voltage drops. Weather data for nearby Newman

indicates a mean maximum temperature of 39.0°C in January and a mean minimum

temperature of 8.2°C in July [3].

Per unit voltage and phase angle were calculated at each busbar in the model. The Australian

Standards AS 3000 define that the cross-sectional area of every current-carrying conductor

shall be such that the voltage drop between the point of supply for the low voltage electrical

installation and any point in that electrical installation does not exceed 5% of the nominal

voltage at the point of supply [7].

The power flows were also calculated throughout the model, where active and reactive power

flows were determined for all branches and a percentage loading displayed. This percentage

loading was based on the input data nameplate rating or manufacturers design. A minimum

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and maximum criteria range can be set before performing the load flow calculation so that

any breaches to this will be displayed as a warning.

These highlighted areas were displayed in a verification report (loading >80%), analysed for

rectification and identified in the event of future expansion or nearby redundancies to the

network topology. The software is powerful enough to output the entire network

configuration at steady state in an easy to read portable document format (pdf).

4.2 Case Study Descriptions

Load flow scenarios will only be performed at maximum demand with 27 generators running.

This is due to the lack of feeder loading information and the amount of power drawn by each

motor in normal operation. Scaling down the feeders from the power station to available

figures does not provide accurate figures of loading and voltage limits on each bus.

The two load flow scenarios that were performed are described below. LF-1 will be

discussed in section 4.3. LF-2 analysis can be found in Appendix D.1 as the results are

similar.

Case Study Description

LF-1 - Maximum Demand (51.14 MW) 27 Generators in

Service

Minimum 20°C operating

temperature of conductors

Maximum 90°C operating

temperature of conductors

LF-2 - Current Feeder Operation at Maximum Demand

(51.14 MW) 27 Generators in Service

Minimum 20°C operating

temperature of conductors

Maximum 90°C operating

temperature of conductors Table 1 Load Flow Case Studies

The minimum and maximum load flow calculation is the upper and lower temperature limit

of the conductors. An understanding of the theory behind the effects of temperature rise on

conductors is important to grasp why this should be analysed in a load flow. The maximum

temperature of 90°C was chosen as this is the upper limit of the insulating material within the

cables on site, XLPE (cross-linked polyethylene), before it starts to break down. The

minimum conductor temperature of 20°C is conventionally used in all catalogues.

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Load flow calculations were performed using the Newton-Raphson (Power Equations,

classical) method with 25 iterations and precision 0.01 kVA for determining convergence.

These values are used throughout the studies. The “as Dispatched” option was selected in the

“Active Power Control”, where balancing was chosen to be “Distributed Slack by Generation

(Synchronous Generators). By selecting these options it allowed for the sharing and

balancing of power between running generators.

The Newton-Raphson power flow uses Newton’s method of determining the voltage

magnitude and angle at each bus in the power system that satisfy power balance. The power

balance equations can be quite complex, although the process is simple. In order to solve the

non-linear power equations for points around the network where the equations are using the

basis of power in equals power out, a technique of approximating the unknown values is

performed.

Each iteration uses a new approximation and if successful will head towards the correct

answer and converge to a solution within the defined tolerance.

These options enabled the generators to be controlled by a station controller that allows for

accurate sharing of active and reactive power based on a voltage set point of 1.0 p.u. at the

PowerStation 11kV busbar.

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4.3 Load Flow LF-1 Maximum Demand – 27 Generators in Service 51.14 MW Load

4.3.1 LF-1 Results

The following results were established with a threshold of 80% of the loading. This means

that any elements (disregarding the motor loads) that are running at or over this capacity are

identified below in Table 2. Low and high voltages were also inspected with limits of 0.95

and 1.05 p.u. respectively. The performance of remaining areas can be seen in Appendix D.

Switchgear

Voltage level (p.u.)

Min Conductor

Temperature

Voltage level (p.u.)

Max Conductor

Temperature

LF-1 Maximum Demand – 27 Generators – 51.14 MW Load

Busbars

11MCC02C OLC MCC Supply 0.929 0.924

HPGR Follower Delta 20TX207E LV 0.932 0.930

HPGR Follower Motor 0.932 0.929

HPGR Follower Motor 2 0.932 0.929

HPGR Follower Star 20TX207E LV 0.932 0.930

HPGR Main Motor 20CR205A 0.932 0.929

HPGR Main Motor 20CR205B 0.932 0.929

HPGR Master Star 20TX207D LV 0.932 0.930

HPGR Master VSD 20TX207D Delta LV 0.932 0.930

Tails Pump D 3.3 kV N/A 0.947

Tails Pump E 3.3 kV 0.950 0.947

Cables

Feeder 20MCC206B to 20TX207D Loading 89.11% Loading 88.80%

Feeder 20MCC206B to Tails Pump 20TX207E Loading 89.24% Loading 88.93%

Feeder 20TX206A to 20MCC206B Loading 88.72% Loading 88.54%

Transformers

20TX206A 11/3.3kV 4500 kVA Dyn11 7.5% Loading 93.31% Loading 93.12%

TF042 33/0.418kV 200kVA Dyn11 4% Loading 91.87% Loading 91.91%

Table 2 LF-1 Results

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4.3.2 LF-1 Conclusions and Recommendations

As the LF-1 calculation is performed using the maximum demand load values for each

section, it should be noted that the occurrence of such a situation where everything is turned

on is very rare.

The results indicate five components with a loading of greater than 80% of their design

capacity and eleven busbars that are over or under 5% voltage, compared to their nominal

(design rated) voltage. In normal operation this outcome would be a cause for concern, if

there were such high loadings as, it would not allow for a further increase in load, potentially

causing equipment failure. There are no elements over 100% loading in this simulation and it

appears that the design sizing of the equipment at CC is adequately sized to handle the

maximum demand.

Transformers can be operated at high loading for short periods of time if the maximum

insulating operating temperature can be maintained at safe levels. Transformer failures are

mainly due to insulation system failure. The heat that an insulation system is exposed to is

directly related to the loading. High loading is permissible only if it is offset by a much

longer period of under loading. With this understood, it is not advisable to operate the

transformers in the range between 91.87% and 93.31% as seen in Table 2.

A possible source of high element loading can be attributed to the maximum demand

estimation in related sections. The loads connected downstream of 20TX206A are in the

OPF2 section. More specifically, this transformer provides power to the cone crushers and

tails pump D and E. The topography is based on SLDs that are from preliminary drawings so

this may need some revision as these figures have not been scaled down like the other feeders

in this section. The scaling figures for OPF2 have been provided in the maximum demand

spread sheet [Appendix J].

There are three cables that result in high loading during LF-1 minimum and maximum

scenarios. The only cable schedule for the OPF2 [6] was used to input the data, although it

does not mention the number of cables for the installation, rather just the size, length and

installation type. This file does not have an official document number so the information

offered should be verified with site installation.

The feeders 20MCC206B to 20TX207D, 20MCC206B to Tails Pump 20TX207E,

20TX206A to MCC206B are 95 mm2, 95mm2 and 120mm2 three-core copper

XLPE/HDS/PVC. They have quite high loadings approaching 90%. This indicates that the

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maximum demand value for this section and number of cables per feed for the model may

need revising.

Due to the large loads and cable selections, the bus voltages at certain buses can be seen to

drop below the acceptable 5%. This occurs again in OPF2 where the aforementioned

components are connected. The three winding transformers (20TX207D, 20TX207E) feeding

the VSD’s, HPGR Master and Follower Motors are nearing 80% loading and may need

revising on specific motor nameplate data.

It is recommended that further investigation is needed to calculate the maximum demand for

the loads connected downstream of 20TX206A, as well as the element connections, be

conducted There may be more cables feeding this area or possibly larger conductors that do

not have such a large voltage drop.

The other transformer TF042, that has a loading around 91% for the two scenarios feeds the

PL4426 Fuel Storage 418V bus. This area is used to store diesel fuel, so large pumps are used

in this area. The largest DOL is 30kW and the remaining lumped DOL motors are 94kW.

These are both the installed ratings of the motors and have not been diversified to a realistic

maximum demand figure. These loads have not been formally calculated in an official spread

sheet so need to be reviewed.

The installed transformers do not exceed their loaded kVA nameplate data when experiencing

maximum demand, which confirms adequate sizing. Tap changers on the transformers can be

increased from the neutral position, directly affecting the output voltages, bringing them up in

intervals of 2.5%. Further investigation into the load requirements is needed and this option

should only be carried out when knowing the average expected running demand for the

section.

If this model proves to be an accurate representation of this area, it would be advised to

conduct cable calculations for all cables to determine suitability with reference to the

Australian Standards AS 3000. It appears the cables that are quite long, at 520m and 525m

are fed from bus 20MCC206B are nearing their loading limit and only appear to have one

cable installed for each. This lengthy connection causes a large voltage drop that can be seen

at the end where the bus voltage drops are greater than 5%. The voltage drop has a flow-on

effect, so that once an upstream busbar is nearing its voltage drop limit, anything downstream

will have greater reductions due to the increase in impedance.

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5.0 Short Circuit Study

5.1 Theoretical Background

Some of the most important tasks for an electrical engineer when designing and operating

power systems, that are short-circuit (fault) current calculations. Faults cannot be eliminated,

but through careful design their effects can be minimised. Protection devices such as relays

and circuit breakers need to be accurately set up for coordination by using fault currents from

short circuit current calculations. The installed equipment must be able to withstand the

thermal and mechanical effects of short-circuit currents. These currents can cause

disturbances to the generator synchronisation, affecting system stability, which at worst case

may lead to a blackout. In the mining industry reliability is at the forefront of priorities for a

power network where any down time leads to a loss of production and therefore money.

A short-circuit fault is considered to be an undesired abnormal condition that involves a low

impedance or “shorted” path for current to flow. For a balanced three phase fault, this can be

thought of as having a busbar connected across all three phases. Simply by Ohms Law,

voltage equals current times impedance (V = IR). When the impedance becomes very low

and the voltage does not change, then the current becomes very large. High magnitude

currents cause a lot of heat transfer, increasing the temperature of the electrical equipment.

There are fundamentally four types of faults that can occur:

-Single phase to ground is an earth fault;

-A fault between two phase conductors is referred to as a phase-to-phase fault;

-A fault between two phases and ground is referred to as a line-line fault;

-A fault between all three conductors and sometimes with earth simultaneously (three phase

fault);

The increase in temperature from high currents can cause insulation damage and produce an

arcing fault. An arcing fault occurs when a connection is made via an electrical arc through

an ionized gas such as air. Once the gas has been ionized, current can continually flow until

either a protective device detects and opens the circuit, or the equipment fails and possibly

explodes in extremely hot temperatures (19000+ °C) blasting the internal molten metal

around [14].

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In the Pilbara region of Western Australia, rodents, snakes and birds can cause short circuits

by physically shorting out conductors or eating insulating equipment. Environmental factors

including bad weather, strong winds or lightning are the most frequent causes of short circuits

followed by equipment failure. Often it is hard to determine the exact cause of the fault,

unless there is evidence of arcing, carbon build up, or the remnants of a fire or dead animals.

Human error can also play a role in the source of short-circuit faults. A piece of equipment

may have been left or dropped in a vulnerable place. The energisation of incorrectly installed

equipment can also cause a short circuit to occur. Racking in or out a circuit breaker can

produce an arcing flash if the breaker is not safely removed from the power system and safely

earthed. A good switching procedure should be used to eliminate the potential for human

error, although equipment failure is becoming less frequent with the new design of

switchgear to higher safety standards.

Faults can be classified into two categories, balanced or unbalanced. Unbalanced faults are

most common and can be quite tedious to calculate for large networks without a software

package. A balanced fault occurs when all three phases are shorted at the same time, whereas

an unbalanced system such as a single phase to ground fault will have an uneven distribution

of currents and voltages.

A three phase fault generally produces the highest fault currents and is consequently used for

adequate selection of equipment. In some cases where the low voltage system is solidly

earthed, where a connection exists between neutral and earth, a slightly higher fault current

can occur in a single phase to ground fault. As a rule the fault current depends on impedance

values, so if the zero sequence impedance is smaller than the equivalent three phase

impedance, the single phase to ground short circuit current will be larger.

Protective devices such as relays, circuit breakers and fuses are installed to isolate faults,

eliminate or minimise damage to equipment and downtime of the network.

A short-circuit fault analysis is carried out to ensure the safety of the workers and ensure that

the protection of equipment is upheld. This analysis is normally undertaken at the design

stage of all projects to determine the short-circuit current ratings of all electrical equipment,

but should also occur when system topology changes on site. This short-circuit current rating

is the maximum short-circuit current a component can safely withstand for a predetermined

period of time. Switchgear manufacturers can customise their equipment to withstand safe

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passage of these currents for the duration specified. Routine calculations were also conducted

to verify the adequacy of the existing equipment for when the topology of the system

changes.

A short circuit analysis should be carried out as a function of time, until stable conditions are

reached. The waveforms below are of the two components of fault currents, symmetrical and

asymmetrical. These are shown in Figure 1.

Figure 1 Symmetrical & Asymmetrical Fault Currents (Redrawn from IEC 60909)

If the equivalent impedance of the fault circuit is mainly contains reactive and a short circuit

occurs at the peak of the voltage wave, then the short circuit current sine wave would start at

zero and be symmetrical about the time (x) axis.

Immediately after a fault occurs, the current wave is no longer a sine wave. It can be

represented by the sum of a sine wave and a decaying exponential component. This

waveform is called asymmetrical as it does not have symmetry about the time (x) axis. The

exponential component allows the current to reach a much higher magnitude than without. It

is the X/R ratio that determines the peak DC exponential component, where it is the reactance

to resistance ratio, related to the power factor (p.f). The DC component is introduced due to

the current in a system with inductance not being able to immediately change at the inception

of a fault to its steady state fault value and therefore a DC component is introduced.

p.f = cos(tan-1(X/R))

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The power factor and X/R ratio are different ways or saying the same thing, so as the power

factor decreases, the X/R ratio increases. If the circuit contains only reactance and the short

circuit occurs during the peak of the voltage waveform, there will be some offset of the

current. The amount of this offset depends on the point on the voltage waveform at which the

short circuit occurs.

The asymmetrical fault remains only for a few cycles and depends on the rate of decay of the

DC component. Higher values of resistance make this waveform decay faster.

Simplifying the network at the fault location into an equivalent circuit produces the circuit in

figure 2.

Figure 2 Simplified RL Circuit [17]

The current in the above circuit can be defined by the following equation:

Equation 5

𝑖(𝑡) = 𝑉𝑚𝑎𝑥𝑍

(𝑆𝑖𝑛(𝜔𝑡 + 𝛼) − 𝑆𝑖𝑛(𝛼 − 𝜑)𝑒−�𝑅𝐿�) [17]

Where:

𝑍 = �𝑅2 + 𝜔2𝐿2

𝛼 = 𝑡ℎ𝑒 𝑎𝑛𝑔𝑙𝑒 𝑜𝑛 𝑡ℎ𝑒 𝑣𝑜𝑙𝑡𝑎𝑔𝑒 𝑠𝑖𝑛𝑢𝑠𝑜𝑖𝑑𝑎𝑙 𝑤𝑎𝑣𝑒𝑓𝑜𝑟𝑚 𝑎𝑠 𝑠𝑜𝑜𝑛 𝑎𝑠 𝑡ℎ𝑒 𝑓𝑎𝑢𝑙𝑡 𝑜𝑐𝑐𝑢𝑟𝑠

𝜑 = 𝑡𝑎𝑛−1(𝜔𝐿/𝑅) 𝑜𝑟 𝜑 = 𝑡𝑎𝑛−1 �𝑋𝑅�

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There are two parts to the equations, the first being the steady state component and the

second, the transient or DC component. It can be seen that the initial maximum value is

when:

𝛼 − 𝜑 = ±𝜋2

𝑎𝑛𝑑 𝑧𝑒𝑟𝑜 (𝑛𝑜 𝑣𝑎𝑙𝑢𝑒) 𝑤ℎ𝑒𝑛 𝛼 = 𝜑

It is impossible to predict where on the sinusoidal cycle the fault will occur, so therefore it

impossible to establish the exact magnitude of the DC component.

5.2 Sources and Limitations of Short Circuit Current

When determining short circuit currents, it is important that all sources be considered.

Generators, synchronous and induction motors are the three basic sources of short circuit

currents in a power system.

When a short circuit occurs, the voltages around the system will decay, creating unstable

voltage levels. The rotating magnetic field in the rotor of the induction (asynchronous) motor

will attempt to support the reduced voltage condition by effectively becoming a generator and

supplying current. The amount of current delivered is dependent on the motor impedance and

usually lasts between one to four cycles. This current is known as the “motor contribution”

and is included in maximum short circuit current calculations.

Synchronous motors contribute to the short circuit current and can last between six to eight

cycles. The difference between the two motors is that the induction motor does not have an

excitation capability, so cannot sustain voltage for an equal amount of time.

Components that will limit the fault current in a network are primarily transformers, cable

impedance and series reactor impedance. These are very important in the design stage when

sizing of equipment is carried out. If the transformer size is too large in MVA rating, the fault

current is increased and this may cause an issue with downstream fault levels.

5.3 Effect of Short-Circuit Currents on Equipment, People and Livestock

5.3.1 Thermal Effects on Equipment

Short-circuit currents flowing through various equipment creates thermal effects due to

heating. Excess energy input over time is measured by I2T where I is the short-circuit current

magnitude (amps) and T is the short-circuit current duration (seconds). Both the AC and DC

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components of the short-circuit current contribute to the thermal heating of equipment. The

DC component can last up to 150ms or around 7.5 cycles for a 50Hz supply.

The temperature created by this excess energy can cause irreversible damage to equipment

and insulating devices. A breakdown on an insulating device can lead to an arc forming and

potentially create an explosion.

Typical ratings for conductors must be able to withstand a high current for a given time.

Many cables in the OLEX range have a short circuit current rating of 10kA for 1 second. The

three-phase short-circuit currents usually deliver the highest thermal effect on equipment.

5.3.2 Electromechanical Effects on Equipment

The mechanical effects of short-circuit currents can occur on electrical equipment such as

overhead lines, cables, busbars and transformer windings. These effects can be broken down

into two forces, axial (longitude) and radial (cross).

In transformers, axial forces are produced by the leakage flux and are responsible for

compressing the windings. Radial deformation known as buckling in the inner windings

occur when the force from the current is greater than the materials elastic limit. [11]

When subjected to a burst of high magnitude current, cables can physically move in the cable

tray, twist or bend, so careful clamping and fixing is required to minimise damage. Vibration

stresses occur due to the characteristics of alternating current changing direction every half

cycle.

5.3.3 Effects of Current on Human Beings and Livestock

IEC 60479-1 is an entire standard based on the effects of current on humans and livestock in

IEC 60479-1. Here the impedance of the human body is estimated based on “close

examination of the experimental results available from measurements carries out principally

on corpses and on some living persons” [19]. The impedance of the human body varies based

on current path, touch voltage, duration of current flow, frequency, amount of moisture on

skin, surface area of contact, pressure exerted and temperature.

When electrical current flows it generally takes the path of least resistance. In humans the

order of least resistance within the body is blood vessels first, then nerves, muscles, skin,

tendon, fat and bone. In the case of a person coming in contact with a live circuit and

becoming a part of it, the consequence of this can produce electrical burns and tissue damage

[19].

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An arc burn does not require direct contact with the circuit as the electricity ionises the air

completing the connection. Short circuits and arc faults are extremely dangerous as the heat

generated can be up to 19426°C. This is about four times hotter than the surface of the sun,

which is about 4982°C [15].

Burns through indirect contact can occur when clothing catches fire or nearby metal becomes

molten. Not only does the air ionise in a high current arcing event, this also causes the air to

expand, creating a high pressure that explodes the molten particles.

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5.4 Analysis of Faults by Hand

To understand how short circuit calculations are performed, some theory on the technique

used must be understood. Symmetrical components are an analytical tool used predominantly

in unbalanced short circuit calculations. The principle of this technique is to transform the

three voltages and currents of each phase into a new set of voltages and currents. This was

discovered by Charles Legeyt Fortescue in 1912, where he showed that any set of unbalanced

three-phase quantities could be expressed as the sum of three symmetrical sets of balanced

phasors [20].

Positive Sequence Component:

Equation 6

I1 = 1/3 (Ia + aIb + a2Ic) V1 = 1/3 (Va + aVb +a2Vc)

Negative Sequence Component:

Equation 7

I2 = 1/3 (Ia +a2Ib + Ic) V2 = 1/3 (Va + a2Vb +aVc)

Zero Sequence Component:

Equation 8

I0 = 1/3 (Ia + Ib + Ic) V0 = 1/3 (Va + Vb + Vc)

The symmetrical components can be used to determine any unbalanced current or voltage,

where the transformation equations are [20]:

Equation 9

Ia = I1 + I2 +I0 Va = V1 + V2 + V0

Ib = a2I1 + aI2 +I0 Vb = a2V1 + aV2 + V0

Ic = aI1 + a2I2 + I0 Vc = aV1 + a2V2 + V0

The three variables for voltage and current, V1,V2,V0 and I1,I2,I0 are called positive sequence,

negative sequence and zero sequence components. These are termed symmetrical

components as when taken separately, they transform into symmetrical sets of voltages. [12]

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Where the sequence voltages and currents in a three-phase unbalanced set can be calculated

using the following equations:

The “a” term used in the above equations shifts a vector by an angle of 120° counter-

clockwise, where the a2 term achieves a 240° counter-clockwise phase shift.

The calculation of symmetrical components in a balanced three-phase system results in only

positive sequence voltages 3V1. The currents will also have equal magnitudes and phase

angles 120° apart, which produces only positive sequence currents in a balanced system.

There are three sets of independent components in a three-phase system. These are positive

negative and zero sequences for both voltage and current. Positive sequence voltages are

supplied by generators and always exist. A negative sequence is a balanced set equal in

magnitude and displaced 120° in a counter-clockwise rotation A-C-B. The final set of

balanced phasors is equal in magnitude and has no notation sequence, this being the zero

sequence.

Motors are susceptible to damage caused by rotors overheating due to excessive negative

phase sequence currents. In a three phase system when the current is unbalanced or a phase

loss occurs, negative sequence current is equal to the positive sequence current and the

imbalance is 100 per-cent. This makes one winding act like 3 and will unavoidably lead to

overheating.

When a fault occurs in a power system, the phase impedances are no longer equal, (except for

a three-phase fault ) and the resulting voltages and currents are unbalanced. The point of the

fault is where the greatest unbalance will occur.

A three-phase short circuit calculation is made easier by assuming the system is perfectly

balanced. This means that each phase draws the same amount of current and allows the

voltages and currents to be the same magnitude but phases are ±120° apart. In reality the

three phase system is never perfectly balanced when running single phase loads.

There are various methods by hand that calculate the short circuit currents in a power system.

The three most commonly used due to their high accuracy are the Ohmic, Per-Unit and MVA

methods. The MVA method is much easier and quicker than the other methods, it does not

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require a common MVA base as compared to the per-unit method. It is not required to

convert voltage levels as required by the Ohmic method.

The per-unit and Ohmic methods are complex, not easy to remember and often end up with

small decimals after converting impedances. The MVA method is a modification of the

Ohmic method, where the impedance of a circuit is the sum of the impedances of the various

components. As admittance is the reciprocal of impedance, then the reciprocal of the system

admittance is the sum of the reciprocals of the admittances of the components. By definition,

admittance of a component is the maximum current of KVA at nominal voltage which should

flow through the component to a short circuit or fault when supplied from a source with

infinite capacity [20].

The MVA method is used to compare fault current results from IEC 60909 and Complete

methods used by PowerFactory. This can be found in Appendix E.

5.5 PowerFactory Short-Circuit Calculation Method

For this thesis two methods were chosen within PowerFactory to calculate the balanced three

phase short circuit currents as they provide the most accurate results. When using the pre-

determined maximum demand load in the calculations, the “Complete Method” has been

chosen. Assuming unloaded network conditions then method “IEC 60909” has been chosen.

The main difference between the two is that the complete method uses the superposition

principle, while the IEC 60909 method uses an equivalent voltage source at the fault location.

The equivalent voltage source is the only active voltage of the system. All network feeders,

synchronous and asynchronous machines are replaced by their internal impedances.

Using the Complete Method has limitations. By modelling the loads at maximum demand,

the calculation to obtain maximum fault current levels will be lower than assuming no load.

This is because the voltages at the buses drop according to how loaded they are. So the

maximum possible fault current for a particular area may be higher than calculated using the

Complete Method.

The international standard IEC 60909-0 was used to rectify this, where a voltage factor “c”

was applied at each bus to account for worst case conditions of the system and for variations

in load flow, voltage levels, transformer tap positions and internal sub transient voltage

sources of generators and motors. This standard is commonly used in Europe and all

throughout the world where the need for a “best practice” is required.

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The Australian Standard for three phase short circuit calculations is described in AS 3851,

published in 1991. This standard is quite good and is similar to the newer international

standard IEC 60909-0, published in 2001. The most significant difference between the two is

that IEC 60909 factors in the resistance of conductors in the calculations and uses different

figures for the voltage factor.

Within the IEC 60909 standard, various methods can be used to calculate the DC component.

The most accurate according to the PowerFactory user manual and Nasser Tleis [5] is method

C.

In method C, the magnitude of network reactances are scaled down from their power

frequency values to an equivalent frequency fc and then the Thevenin’s impedance is

calculated at each fault point. For a three phase short-circuit calculation, only the positive

sequence impedance is used. The X/R ratio at fault point is calculated from equation 10.

Equation 6

𝑋𝑅

= �𝑋𝑐𝑅𝑐� ∗

𝑓𝑓𝑐

where f is the nominal system frequency 50Hz and fc/f = 0.4. Therefore the equivalent frequency is fc = 20Hz.

5.6 Short-Circuit Case Study Descriptions

This report is concerned with balanced three-phase faults that occur at busbars throughout the

model. The following scenarios were chosen to provide the optimal result, where SC-1 and

SC-2 are the maximum demand calculations that AS 3851 and IEC 60909 define for the

calculation of three phase short circuits. In order to conduct a single phase study, more

information of the zero sequence data is required for the transformers.

SC-3 and SC-4 have been provided in Appendix D as they are not as important when

calculating short circuit currents. It is good practice to use varying topology when software

programs such as PowerFactory are capable of very quick simulations, though the results

used should be at maximum demand (from motors) and maximum generation to provide the

most fault current.

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Case Study Description

SC-

1

Min(2) Maximum Demand, 51.14 MW load, 27 generators in service, Using

Complete Method, load flow initialisation is enabled. (1)

Max(3)

SC-

2

Min(2) Maximum three phase fault currents using IEC 60909 method, 27 generators

in service load flow initialise is disabled. (1) Max(3)

SC-

3

Min(2) Medium-High Load, 20 generators in service, load flow initialisation is

disabled.(1) Max(3)

SC-

4

Min(2) Low Load, 6 Generators in service, load flow initialisation is disabled. (1)

Max(3)

Table 3 Short-Circuit Case Study Scenarios

Notes (1) Load flow initialisation is an option in the complete method short circuit calculation “Advanced Options”

that performs a pre-fault system calculation of voltages for all components. This voltage is then used for fault

calculations. Without this turned on the software uses the voltage factor c to multiply with the nominal voltage

of the busbars for the short circuit calculations.

(2) Minimum short circuit current:

- Voltage factor (cmin)of 0.95 for voltages below 1000V

- Voltage factor (cmin) of 1 for voltages above 1000V

- Maximum operating conductor temperatures of 90°C.

- DOL Motor contribution is disregarded

(3) Maximum short circuit current:

- Voltage factor (cmax) of 1.05 for voltages below 1000V

- Voltage factor (cmax) of 1.1 for voltages above 1000V

- 20°C conductor operating temperature

- DOL motor contribution is included

- Network topology selected that will yield the largest short circuit currents.

The voltage factor is introduced in SC-2 where a passive short-circuit analysis is performed,

meaning that the initial power system loading is ignored. The voltage factor is intended to

provide the worst case condition that accounts for the variations in loadflow conditions,

voltage levels between different areas and with time, transformer tap ratios and internal

subtransient voltage sources of generators and motors [5]. Table 4 below states the selection

of c, based on the nominal voltage of the busbar.

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Voltage Factor c for the

calculation of:

Nominal system phase-phase

voltage Un

Maximum

Short-circuit

currents

Minimum Short-

circuit currents

LV (100V up to 1000V)

* Upper voltage tolerance

+6%

1.05 0.95

* Upper voltage tolerance

+10%

1.1 0.95

MV and HV (>1 kV up to 550

kV)

1.1 1

Table 4 Voltage Factor (c) as per IEC 60909

5.6.1 Short Circuit SC-1

The minimum calculation uses a maximum conductor operating temperature of 90°C, where

the maximum current uses a minimum operating conductor temperature of 20°C and

considers motor contribution.

SC-1 Minimum 3 Phase Short-Circuit Fault Currents

The main focus of the results is the overloaded busbars and these can be seen in the Table 5

below. The overloaded feeders can be seen in Appendix D and are of less importance at this

stage.

Overloaded Busbars

Thermal

Current

Rating

(kA)

Actual

Current

(kA)

Loading

(%)

20MCC04 OPF1 31.50 (1s) 26.81 85.11

20MCC206A OPF2 31.50 (1s) 26.79 85.06

Kiosk Substation Sub018 30.00 (1s) 26.18 87.27

Secondary & Tertiary Crushing

20MCC205 65.00 (1s) 58.92 90.65

Stockyard Substation HV901 31.50 (1s) 27.19 86.31

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Table 5 SC-1 Minimum Three Phase Short-Circuit Results

The main busbars for OPF1, OPF2 and Stockyard HV901 are rated for 11kV line to line

voltage and 31.50 kA for one second. The Kiosk Substation had the second highest loading of

87.27% with a line to line voltage of 415V.

This minimum fault current calculation does not include contributions from DOL motors, in

effect removing a potential source of discrepancy. The pre-fault load flow still occurs and this

may be a source of inaccuracy, as assumptions of loads may not effectively represent the

voltages at each bus.

SC-1 Maximum 3 Phase Short-Circuit Fault Currents

The following busbars have been identified in Table 6 below as being over 80% of their

thermal rating. A load flow was conducted first which calculates the voltages at each busbar

throughout the network, then these values are used in the calculation of short circuit currents.

The busbar identified as the highest loading is found to be the Secondary & Tertiary Crushing

20MCC205 with 94.62%. The actual fault current that could be present in this instance is

61.50 kA, while the thermal limit of the busbar provided by the manufacturer is 65.00 kA for

1 second. This section is fed by a 3500kVA transformer, 20TX205. The size of the feeding

transformer plays a vital role in how large the fault currents can be.

Overloaded Busbars

Thermal

Current

Rating

(kA)

Actual

Current

(kA)

Loading

(%)

20MCC04 OPF1 31.50 (1s) 27.73 88.04

20MCC206A OPF2 31.50 (1s) 27.72 87.99

30TX207B LV 65.00 (1s) 52.97 81.49

30TX207C LV 65.00 (1s) 52.79 81.22

Jigging 35TX208B LV 80.00 (1s) 65.33 81.66

Kiosk Substation Sub018 30.00 (1s) 26.47 88.23

Secondary & Tertiary Crushing

20MCC205 65.00 (1s) 61.50 94.62

Stockyard Substation HV901 31.50 (1s) 28.10 89.22

Table 6 SC-1 Maximum Three Phase Short-Circuit Fault Currents

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SC-1 Conclusion and Recommendations

Eight busbars from the maximum calculation were identified as being over 80% of their

thermal rating. This number is significantly larger than expected and further investigation is

required to confirm the accuracy of these figures.

To reduce the possibility of high or inaccurate fault currents that may arise from the incorrect

or ineffective load modelling, another calculation SC-2 was chosen to conduct an unbiased

simulation using a voltage factor in the calculations.

5.4.3 Short Circuit SC-2

This case study allows for the standardised method of calculating short circuit currents with

direct reference to the international standards IEC 60909-0. This publication is considered the

best practice for calculating three phase short circuit currents internationally and is

predominantly used in Europe.

SC-2 Minimum 3 Phase Short-Circuit Fault Currents

There are five areas that pose concern for adequate thermal sizing, and can be seen below in

table 5.4.3. The highest fault current compared to busbar rating is at the Stockyard Substation

HV901 with 28.04 kA of actual current, compared to its thermal rating of 31.50 kA.

The minimum calculation is performed at the maximum conductor temperature of 90°C. As

the temperature of the conductor increases, so does the resistance, resulting in larger I2R

power losses which reduce the fault current. In reality this is the upper limit of the cables

insulation temperature rating and is very unlikely to occur. A conservative calculation allows

for the lower limit to be established, so to have any items recognised by PowerFactory is

alarming.

Overloaded Busbars

Thermal

Current

Rating

(kA)

Actual

Current

(kA)

Loading

(%)

20MCC04 OPF1 31.50 (1s) 27.67 87.83

20MCC206A OPF2 31.50 (1s) 27.62 87.69

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SC-2 Maximum 3 Phase Short-Circuit Fault Currents

The maximum calculation is based on resistance of conductors at 20° Celsius, so this allows

for the least resistance losses and highest fault currents. Motor contribution is considered and

also a voltage factor that provides the upper limit of the voltage at each bus and results in the

largest three phase fault currents.

The most concerning areas are 20MCC204 OPF1 and 20MCC206A OPF2 that have fault

currents greater than their busbar thermal capacity. This calculation is the worst case

scenario, but can still occur. When initially sizing equipment, the worst case situation should

be used in calculations as described in the standards allowing for a safety margin.

Kiosk Substation Sub018 30.00 (1s) 24.26 80.87

Secondary & Tertiary Crushing

20MCC205 65.00 (1s) 55.03 84.67

Stockyard Substation HV901 31.50 (1s) 28.04 89.02

Table 7 SC-2 Minimum Three Phase Short-Circuit Results

Overloaded Busbars

Thermal

Current

Rating

(kA)

Actual

Current

(kA)

Loading

(%)

11MCC202A 690V 80.00 (1s) 65.64 82.05

11MCC202B 690V 80.00 (1s) 65.64 82.05

20MCC04 OPF1 31.50 (1s) 33.70 106.98

20MCC206A OPF2 31.50 (1s) 33.71 107.01

30TX207A LV 65.00 (1s) 55.36 85.17

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SC-2 Conclusion and Recommendations

The second scenario SC-2 has highlighted more areas of concern than the first, SC-1. There

are twelve busbars with loading over 80% during the maximum calculation as compared to

eight. This may be due to the international standards method IEC 60909 being more

conservative with the voltage factors instead of using a load flow calculation. These busbars

that have been identified are greater than 1000V, so a voltage factor of 1.1 is applied.

Motor contribution plays an important role in the maximum calculation and may have

included a higher operating capacity due to the arrangement of the loads and how the

calculation is performed. The four sections that have a thermal loading greater than their

capacity (>100%) have a significant number of motors connected, providing a large motor

contribution to the fault current.

It is recommended to verify the maximum demand at each section to confirm the correct

number of DOL motors running. The size of all electrical equipment, where for example, the

Stockyard HV901 busbar is rated at 31.50kA for 1 second, should be verified, as the installed

equipment may be larger than what is stated in the SLDs

30TX207B LV 65.00 (1s) 60.04 92.37

30TX207C LV 65.00 (1s) 60.18 92.58

Jigging 35TX208A LV 80.00 (1s) 64.66 80.82

Jigging 35TX208B LV 80.00 (1s) 73.73 92.17

Kiosk Substation Sub018 30.00 (1s) 28.24 94.12

Secondary & Tertiary Crushing

20MCC205 65.00 (1s) 66.40 102.15

Stockyard Substation HV901 31.50 (1s) 34.15 108.41

Table 8 SC-2 Maximum Three Phase Short-Circuit Results

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6.0 Conclusion and Recommendations

A model is only as good as the data and information that has been used to create it. As

verified by hand calculations of the fault levels from the power station to Karntarma Village

(Appendix E), the model seems to be quite accurate in calculating short circuit currents. This

provides confidence in using the model for the purpose of verifying equipment size and for

future use of a protection coordination review.

First it is recommended to verify all components in the model and update any values that

have been assumed due to lack of information. By reducing the assumptions, model

accuracy will increase and therefore offer more assurances. Sections OPF1 and OPF2 are

constructed, owned and operated by CSI (Crushing Services International) who have not

handed over final drawings to FMG. When these drawings are handed over the model data

for these sections should be revised.

Assumptions that have been made to allow the model to reach an operable state have minimal

effects on loading and short circuit fault levels. Each value has been chosen with reference to

relevant standards that are slightly conservative in nature. Appendix B shows the breakdown

of each section and the assumptions made to reach an operable state.

The two main sections that contain the majority of elements are the ore processing facilities,

OPF1 and OPF2. There is conflicting information in two versions of a maximum demand

calculation for the second ore processing facility (OPF2). The oldest file dates back to

September 2011 stating 31.52 MW, while the newest is from August 2012 stating 22.627

MW. According to electrical engineers on site, the newest maximum demand estimation is

too conservative and needs to be further diversified.

The maximum demand calculation spread sheet for the OPF1 was produced in February

2010. These figures have also been revised by FMG with additional information of average

and minimum demand added. As there is not an equal distribution of information for the

entire site, it is impossible to produce a model with average loading that would represent a

more realistic situation.

To calculate the extreme upper and lower limit of the fault current, IEC 60909-0 was used in

SC-2. The complete method produces fault levels that take into account high loading and

therefore may be lower than the maximum possible fault level.

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The complete method in PowerFactory was only used for SC-1 where a pre-load flow was

performed first. The maximum demand for loads must be represented in the model as

realistically as possible in order to produce an accurate busbar voltage and short circuit fault

level. Due to the absence of recent load lists, the information may not be perfect. If loads are

underestimated, voltages in the network will be closer to nominal and therefore a more

conservative fault current will be calculated.

For SC-2 the minimum fault current calculation provides an analysis removing possible

sources of error that influence the results. The DOL motor contribution is not considered, nor

is a load flow conducted before the fault. The bus voltages are calculated using IEC 60909-0

standards, where a voltage factor is applied to determine voltages at each bus. This accounts

for the worst case scenario for a system with a maximum voltage drop of 5% on the LV bus.

There are five busbars in SC-2 that appear in the calculated results for having three phase

fault current levels greater than 80% of their thermal rating. These are the most favoured

results to use that will not overestimate the short circuit current.

The International Standards IEC 60909 states that during maximum fault current calculations

that the network topology must be such so that it will provide the maximum fault currents.

TF001 and TF012 are paralleled when both feeders from the power station to the overhead

lines are in service. This increases the fault currents throughout the network as there is now

an extra path for current to flow. This connection may not ever occur while both transformers

are energised as it is mainly used for redundancy purposes.

The results that provide the fault levels with the least discrepancy or difference of opinion are

found to be SC-2 minimum three phase fault current calculation. This calculation removes the

motor contribution and uses maximum conductor temperature so there are greater resistances

in cables,

The selection of the asynchronous machine to represent the DOL motor loads has both

positive and negative aspects. It allows for the contribution of fault currents when required,

however, this fault current will be based on the entire lumped sum motor capacity and not the

running kilowatt amount.

A possible solution to the overestimated fault contribution of the DOL motors could be

reached by using a general load element instead of an asynchronous motor. The actual

running capacity and fault contribution are independent of each other, where a fixed fault

contribution can be added to the “Complete Short-Circuit” tab. Another model could be

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created where the loads are based on the running size, so this would eliminate the excessive

fault contribution.

After completing the load modelling and further research, it became evident that soft starters

will also contribute to the fault current. Soft starters only run during the starting process of

the motor and then will enter a bypass mode, which will directly connect the motor to the

supply. The model does not allow for these to contribute to the fault current, so either

changing the component type to an asynchronous motor or calculating the fault current

contribution and entering it into the tab for a general load will correct this. The soft starters

will then need to be separated from the VSDs.

7.0 Model Verification and Validation

Verification tests whether the model is consistent and internally correct. The model was

checked once a week, comparing input data in the model back to the saved documents in the

drawing register in the references section. Items such as date, revision, layout and data were

confirmed during this procedure.

If a resulting fault current margin of error cannot be quantified, then it is only to be

considered a guess. Validation was performed by hand calculations using the MVA method

in order to compare the accuracy for part of the model. These can be seen in figures 8 and 10

in Appendix E. The results are very close and an acceptable method to check results. This

low error margin offers confidence in the capabilities of the software and the model itself.

Further investigation into verifying the model input data with the newest information is

required. It is difficult to compare real life data with the model as the loads are not fixed and

it will be extremely rare to experience maximum demand.

Models are approximate imitations of real world systems and never exactly replicate it. Due

to that, the model should be verified and validated to the degree of accuracy needed for the

models intended purpose and application. The main purpose of this model is to check existing

equipment sizing and eventually analyse the protection coordination.

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7.0 Future Works

At the time of writing this report, the model was currently left at a point where verifying the

topology had ceased, in order to run simulations for the internship. The model components

need to be verified and updated if new information is available.

Some feeders were excluded from the model if there was no information available. The

protection settings could be added to the model at the same time as verifying each section.

PowerFactory has a built in database for the storage of protection devices and allows for easy

studies and coordination.

Modelling motor contribution by finding out which motors are used at the same time to give a

better representation of fault current contribution is vital.

Only a small portion of the network busbars has fault levels, so the remainder of equipment

fault levels need to be added when available.

It is recommended to create a load list and estimation of maximum demand for remaining site

feeders not listed on the OPF1/OPF2 Drive list spread sheet.

It is recommended that a complete onsite load list with diversified loads estimating the

minimum, average and maximum demand be kept on file alongside a complete site HV cable

schedule.

A single phase to ground short circuit study should be conducted when the transformer test

sheet for OPF1 and OPF2 have been submitted. This will be a test to provide the minimum

short circuit current levels.

Earth fault protection must be looked at to update the model. The connection of neutral

earthing resistors included will allow more accurate single phase short circuit calculations on

the high voltage system.

The zero sequence impedance of cables that are not included in the OLEX Catalogue must be

calculated to accurately represent the earth fault impedance.

The load flow scenarios could only be performed by varying the minimum and maximum

temperature of the conductors while at maximum demand. It was not possible to determine

current operating conditions (which motors are on) at each bus at a given time. If a model of

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this is required, power flow data will need to be collected from the feeders downstream of the

power station over time.

A new system that has the ability to connect to the site PLCs has been established for

Christmas Creek. This is still in its early stages, but will allow the user to enter id tags for

equipment and be able to graph or tabulate these for a given time period. As there are 5089

tags for the OPFs, the electrical information will need to be filtered out and entered one by

one into the Historian server. This information can then be saved for future use.

The cable input data could be improved with the use of PowerFactory’s cable systems model.

The stacker and reclaimer loads are very complex to model. To increase the accuracy of the

representation, more loads should be used instead of a combined static load.

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8 Minor Projects

Descriptions of the tasks undertaken are explained below including their purpose and the

lessons learnt by this intern. These minor projects are important day to day activities on site

for electrical engineers and gaining insight and experience with them has been invaluable.

8.1 Recloser 2 (REC002) – Power vs. Time Graph – 16/01/2013

Reclosers are an extremely useful device used in overhead power lines to primarily provide

maximum uptime of the connection of power. They sense and interrupt fault currents and

automatically restore service after a fault or outage occurs, reducing costs while maximising

the transfer of power to the end user.

Recloser 2 (REC002) is connected onto the western overhead line running from the

PowerStation to Kandama Village. There are three 1250 kW backup generators that feed a

0.415/11kV 3 MVA step-up transformer, used as a standby supply to the camp. These can be

used in emergencies or if there are any outages on the overhead line.

In the event of a power outage to Kandama village camp these generators will need to be

switched on by an electrical supervisor. The process in paralleling generators is called

synchronisation. This means all generators must be in phase with each other and running at

the same speed to prevent damage to the machine and disturbances to the power system. Only

one generator is switched on at a time to ensure this occurs. The second and third generators

use control instruments to measure the live bus characteristics with a feedback system

allowing it to automatically synchronise when frequency and voltage match.

In order for the next generator to switch on or off, a limit must be reached for a programmed

time. This is a measurement of the spinning reserve, where a generator will turn on if the

spinning reserve drops below the lower limit and conversely turn off a generator if the

spinning reserve exceeds the maximum limit. Essential loads will be switched on first, if

more power is required, the next generator will turn on and provide an even distribution of

the load (load sharing).

The purpose of this minor project is to allow the automation of the process of turning on the

generators, first to essential loads then followed by non-essential loads while increasing the

number of generators running as required. A contractor specialising in PLC programming had

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connected to the PLC control centre of RMU 5&6 to update the code while testing was in

progress. It is often difficult to arrange a time for maintenance or upgrades as turning off

power to the camp effects the kitchens, rooms and more importantly, the much needed air

conditioning.

The next step would be to use some sort of logging method within the PLC to change the

starting generator order so that the first generator does not do all the work, all of the time.

The data in the graph plotted in Figure 3 below was captured from the recloser by connecting

a laptop to the user interface panel. It can be observed that a new generator is switched on at

the turning points in the graph where a slight dip in power occurs. The maximum power

required by the camp during this measurement was seen to be around 2000kW. Another good

graph to create if possible would be the spinning reserve vs. time of the generators and

combine the two graphs to get a better picture of the process. This information would need to

be collected from the PLC or on the InteliGen® gen-set controller module.

Figure 3 REC002 Power vs. Time During Generator Testing

The physical layout can be seen below in Figure 4. This shows the old switchroom, recloser,

transformer, PLC control centre and RMU 5&6. The generators are on loan from Coates Hire

and have a combined installed capacity of 3 x 1250kW = 3750 kW. They do not appear in

this photo, but are located on the left hand side, in line with the switchroom and transformer.

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The concrete wall to the right hand side is a protective barrier, also known as a firewall. This is

in place to contain debris and fire in the occurrence of a short circuit or oil leak.

Figure 4 Karntama Village Power System Physical Arrangement

8.2 Waste Water Treatment Plant (WWTP) Lighting and Small Power Cable Calculation SY_P5

A switchroom was being replaced with a new one at Kandama Village. This is the connection

point to the backup generators and RMU-06. The power cable that feeds the lighting and

small power for the WWTP is unknown in size and will be reused in the new installation.

This calculation is to check the performance and adequacy of the cable and determine the

minimum size needed to comply with Australian Standards.

FMG have an internal electrical standard, document number 100-sp-el-0001, created on 19

May 2011. This document defines the minimum design criteria for electrical equipment and

system for all FMG’s new projects. This is to provide a uniform standard throughout all sites.

A site visit to the construction area visually confirmed the cable size to be 50mm2 and can be

seen in Figure 5 below.

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Figure 5 WWTP Lighting and Small Power Cable

In order to satisfy the Australian Standards regarding electrical installations, the cable needs

to pass the following tests:

- current carrying capacity

- voltage drop

- short circuit energy

- earth fault loop impedance

A brief description of each of these tests and why they are necessary is explained below. The

calculation can be seen in Appendix G, where the outcome is the cable has passed all tests.

The proper sizing of an electrical cable is important to ensure that the cable can do the

following:

- operate under continuous full load without being damaged

- provide load with a suitable voltage and avoid large voltage drops

- withstand the worst short circuit currents

- ensure operation of protective devices during a fault to earth

The calculation can be seen in Appendix G, where the recommendation is to reduce the time

dial setting on the circuit breaker from 13x to 10x. This will allow a pass for the short circuit

energy test and fault loop impedance test.

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8.3 Kandama Generators 240V 6mm2 Cable Calculations

The cable calculation is to check the installation that contractors are performing on site. Final

size and cable selection is to be determined by the contractor. The recommendation is for the

cable to be spaced from the other circuits by a distance of one cable diameter, as seen in

calculation 2.

8.4 Recloser 1 (REC001) Western Overhead Line Fault

A single phase to earth fault occurred during the middle of the night on the western overhead

line and tripped recloser 1. The recloser has the ability of logging the voltage and current

during the fault. This can be seen below in Table 9. More pictures can be seen in Appendix

G.4.

19/02/2013 5:36 Operator control panel door closed

19/02/2013 5:35 Operator control panel door opened

19/02/2013 5:35 Operator control panel door closed

19/02/2013 5:25 Operator control panel door opened

19/02/2013 3:31 Operator control panel door closed

19/02/2013 3:31 Operator control panel door opened

19/02/2013 3:30 Operator control panel door closed

19/02/2013 3:28 Waveform Captured

19/02/2013 3:28 Panel Close Request

19/02/2013 3:26 Waveform Captured

19/02/2013 3:26 Panel Close Request

19/02/2013 3:25 Operator control panel door opened

19/02/2013 2:58 Sequence Reset

19/02/2013 2:57 Load Supply On

19/02/2013 2:57 Waveform Captured

19/02/2013 2:57 Inrush current timer expired

19/02/2013 2:57 Inrush current timing has started

19/02/2013 2:57 Automatic Reclose

19/02/2013 2:57 Load Supply Off

19/02/2013 2:57 Waveform Captured

19/02/2013 2:57 Last Good Value Trapped is 28 A

19/02/2013 2:57 Protection Disk Reset

19/02/2013 2:57 All protection elements resetting

19/02/2013 2:57 Inrush current timer ready

19/02/2013 2:57 Earth Maximum Current of 89 A during fault

19/02/2013 2:57 Current at trip Earth/SEF 86 A at the time of trip

19/02/2013 2:57 Protection Trip 1

19/02/2013 2:57 Earth Protection Trip

19/02/2013 2:57 Protection Group A Active

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19/02/2013 2:57 Protection Trip Request

19/02/2013 2:57 Protection Group A Active

19/02/2013 2:57 Protection Group A Active

19/02/2013 2:57 Pickup

Table 9 REC001 Fault Log

Comparing the log with the voltage, current and earth fault graphs that the earth fault

waveform captured does not match up with the event log provided. The maximum recorded

current value of 89A is not shown on the graph and may be outside the measurement

window.

It is suggested to review the waveform capture settings to ensure critical components of the

waveform are captured in future.

If the earth fault waveform is correct, the fault contained significant impedance. The most

likely cause could be from bird strike, although there was no physical evidence for this. A

review of the protection settings for the overhead line is needed in order to narrow down the

protection zone. Currently if there is a fault down the other end of the line many kilometres

away, the upstream recloser may trip off the entire supply. Protection coordination will

prevent this from happening by using a grading margin between the devices.

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9 References

[1] Gong Jie, “Australia FMG plans to go public in China”, Gong Jie, April 2013. [Online].

Available: http://www.china.org.cn/business/Boao_Forum_2013/2013-04/08/

content_28473678.htm. [Accessed: Apr. 08, 2013]

[2] Cummins Commentary, “Watts up at Christmas Creek”, 27 June 2011. [Online].

Available: http://cumminscommentary.wordpress.com/2011/06/27/watts-up-at-christmas-

creek/. [Accessed: Jan. 12, 2013]

[3] Australian Bureau of Meteorology, “Climate Statistics for Australian locations”, 23 May

2013. [Online]. Available: http://www.bom.gov.au/jsp/ncc/cdio/cvg/av?

p_stn_num=007151&p_prim_element_index=0

&p_comp_element_index=0&redraw=null&p_display_type=statistics_summary&normals_y

ears=1981-2010&tablesizebutt=normal. [Accessed: May. 23, 2013]

[4] DIgSILENT Pacific, “Power System Analysis Software DIgSILENT PowerFactory”, 11

April 2008. [Online]. Available: http://www.digsilent.de/tl_files/digsilent/files/powerfacto-

ry/PowerFactory_Flyer.pdf. [Accessed: Jan 16, 2013]

[5] Dr. Abdul Nasser Dib Tleis, “Power Systems Modelling and Fault Analysis: Theory and

Practice” 1st ed. Jordan Hill, Oxford: Elsevier, 2008.

[6] Power Analytics Corporation, “Short Circuit Analysis Program ANSI/IEC/IEEE &

Protective Device Evaluation. User Guide”, May 2011. [Online]. Available: http://

www.poweranalytics.com/designbase/pdf/3_Phase_Short_Circuit.pdf. [Accessed:

Feb. 21, 2013]

[7] Xu, X ; Zhu, W ; Wu, Y. “Experience of the treatment of severe electric burns on

special parts of the body.” Annals of the New York Academy of Sciences Vol.888

(1999): pg. 121-30, 1999. [Online] Available: http://onlinelibrary.wiley.com/doi/

10.1111/j.1749-6632.1999.tb07949.x/pdf. [Accessed: Apr. 08, 2013]

[8] Copper Development Association Inc. “Introduction to Transformer Losses”, April 2010.

[Online]. Available: http://www.copper.org/environment/sustainable-energy/transformers/

education/trans_losses.html. [Accessed: Feb. 13, 2013]

[9] Jignesh Parmar, “Vector group of Transformer”, 23 May 2012. [Online]. Available:

http://electricalnotes.wordpress.com/2012/05/23/vector-group-of-transformer/ .

[Accessed: Feb. 13, 2013]

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[10] Nexans OLEX, “The Handbook 2012 Edition”, 03 February 2012. [Online]. Available:

http://www.olex.com.au/eservice/Australia-en_AU/fileLibrary/Download_540225217/

Australasia/files/OLC11644%20Handbook_Gener ic_FA.pdf. [Accessed: Jan. 24, 2013]

[11] Jr. A.J.P Rosentino, E. Saraiva, A. C. Delaiba, R. Guimaraes , M. Lynce, J. C. De

Oliveira, Jr. D. Fernandes, W. Neves. “Modelling and Analysis of Electromechanical Stress

in Transformers Caused by Short-Circuits”, 29 October 2010. [Online]. Available: http://

www.icrepq.com/icrepq'11/432-rosentino.pdf. [Accessed: Feb. 22, 2013]

[12] J. L. Kirtley Jr., “Massachusetts Institute of Technology Department of Electrical En-

gineering and Computer Science 6.061 Introduction to Power Systems Class Notes Chapter

4: Introduction to Symetrical Components”, 16 September 2008. [Online]. Available: http://

ocw.mit.edu/courses/electrical-engineering-and-computer-science/6-061-introduction-to-

electric-power-systems-spring-2011/readings/MIT6_061S11_ch4.pdf. [Accessed: Mar. 19,

2013]

[13] ABB, “ABB industrial drives ACS800, multidrives 1.1 to 5600 kW Calalog”, 08

November 2011. [Online]. Available: http://www05.abb.com/global/scot/scot201.nsf/verity-

display/5191911f18a8d00cc125794400 2e8828/$file/acs800multidrivescatalogrevi_en.pdf.

[Accessed: Feb. 08, 2013]

[14] Rockwell Automation, “Arc Flash Fast Facts”, January 2005. [Online]. Available:

http://literature.rockwellautomation.com/idc/groups/literature/documents/wp/1500-wp001_-

en-e.pdf. [Accessed: Mar. 11, 2013]

[15]Fluke Corporation, “How to troubleshoot a large motor drive safely”, March 2010.

[Online]. Available: http://www.fluke.com/fluke/usen/community/fluke-news-plus/

ArticleCategories/Electrical-News/How-to-troubleshoot-large-motor-drives-safely.htm.

[Accessed: Mar. 11, 2013]

[16] Mining-Technology.com, “Christmas Creek Iron Ore Mine, Australia”, April 2012.

[Online]. Available: http://www.mining-technology.com/projects/christmas-creek/.

[Accessed: Jan. 16, 2013]

[17] Asif Eqbal, “An Overview of Short Circuit Current (Part 1)”, Electrical Engineering

Portal, 25 February 2013. [Online]. Available: http://electrical-engineering-portal.com/an-

overview-of-short-circuit-current-part-1. [Accessed: Feb. 27, 2013]

[18] All About Circuits, “Temperature coefficient of resistance”, 1999. [Online]. Available:

http://www.allaboutcircuits.com/vol_1/chpt_12/6.html. [Accessed: Mar. 19, 2013]

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[19] International Electrotechnical Commission, “IEC 60479-1: Effects of current on human

beings and livestock, 4th edition, 2005-07.

[20] Yuen M. H, “Short Circuit ABC-Learn It In an Hour, Use It Anywhere, Memorize No For-mula”, April 1974. [Online]. Available: http://www.arcadvisor.com/pdf/ShortCircuitABC.pdf. [Accessed: Apr. 21, 2013]

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STANDARDS

Standards Australia, “AS3851-1991: The calculation of short-circuit currents in three-phase a.c. systems,” Standards Australia, Homebush, NSW, 1991. Standards Australia, “AS3008.1.1:2009 Selection of Cable for Alternating Voltages up to and including 0.6/1kV, Homebush, NSW: Standards Australia, 2009.

Standards Australia, “AS60038-2012: Standard Voltages”, Homebush, NSW: Standards

Australia, 2012.

Standards Australia, “AS/NZS 3000:2007 Wiring Rules”, Homebush, NSW: Standards

Australia, 2007.

International Electrotechnical Commission, “IEC 60909-0: Short-Circuit Currents in Three-

Phase A.C Systems, 1st edition, 2001-07.

International Electrotechnical Commission, “IEC 60479-1: Effects of current on human

beings and livestock, 4th edition, 2005-07.

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Drawing Registry

Description Drawing Number/Document Name Date Created Accessed on

Power Station

Christmas Creek Stage 2 Power Station 1/2 CC-SL-001 SHEET 1 21/03/2012 14/01/2013

Christmas Creek Stage 2 Power Station 2/2 CC-SL-001 SHEET 2 21/03/2012 15/01/2013

T155: CC Expansion Project Power

Distribution Single Line Diagram

500CC-09000-DR-EL-0100_2B 11/09/2012 7/01/2013

T155 Chichester Expansion Project Power

Station Extension - Scope of Work

510CC-10015-SW-IF-0001_1 7/06/2011 29/01/2013

Christmas Creek PS - Process E&I PS

Upgrade

Christmas Creek PS HV Submission Rev A 16/02/2012 29/01/2013

FMG Power Distribution - Christmas Creek

Power Station Transformer Datasheet

500CC-10016-DS-EL-1015_2C3 17/02/2012 29/01/2013

DIgSILENT Technical Documentation -

Station Controller

TechRef_StationController.pdf 15/10/2009 30/01/2013

QTC Transfomer Co. Ltd. Transformer Test

Certificate Earthing Transformer

Earthing Transformer ZigZig Test.pdf 5/07/2010 1/02/2013

FMG Power Distribution - Christmas Creek

Kandama Village Transformer Datasheet

02 Transformer Data Sheet 500CC-1-0016-DS-EL-1021-

X

16/11/2013 7/02/2013

Neutral Earth Resistor Data Sheet NER - Data Sheet 11/33kV Tx 04/01/2011 29/01/2013

Caterpillar Diesel Generators Set C175-16 C175 Prime 2725 kVA LowBSFC_11000V EMCP4 02/01/2013 10/03/2013

Power Station Services

CC Power Station Fuel Facility Electrical

Schematic

FMG-10-E001-04 Schematics (PS Fuel) 22/09/2010 1/03/2013

Stockyard Substation HV901/HV902 (11kV)

T155 Christmas Creek Expansion Project

Power Station Expansion - Functional

Specification

510CC-13015-SP-EL-0001 16/06/2011 30/01/2013

Stockyard Substation HV901/HV902 (11kV)

CV701

WEG Motor Data Sheet CV701 FD-30390-3-2010 (CV701 WEG Motor Data Sheet) 2/08/2010 28/02/2013

CC Expansion Project - CV701-EM01 Drive

Schematic Diagram

500CC-09000-DR-EL-0278_1 5/12/2011 28/02/2013

CC Expansion Project - CV701-EM02 Drive

Schematic Diagram

500CC-09000-DR-EL-0281 5/12/2011 28/02/2013

T155 Chichester Expansion Project CC

Stockyard Upgrade - Rotor Resistor

Selection Criteria

Rotor Cubicle Requirement.xls 2/11/2011 28/02/2013

CC Expansion Project - Scope of Work for

Modification of HV901 and Other Related

Equipment

510CCC0001-09004-SW-EL-0004_A 1/09/2012 31/01/2013

Stockyard Area 415V Maximum Demand 500CC-09016-CA-EL-0005_B Stockyard Max Demand

Calc

27/04/2011 6/02/2013

CC Expansion Project - Switchroom SR901

Earthing Connection Diagram

500CC-09000-DR-EL-0033_2 5/12/2011 6/02/2013

Christmas Creek Control System CV701 500CC-09012-SP-IN-0002[CV701_Functional_Spec) 6/04/2011 12/03/2013

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Sample Station Functional Specification

Turkey Nest

CC Expansion Project MC902 415V Motor

Control Centre Single Line Diagram

500CC-09000-DR-EL-0107 15/12/2010 6/02/2013

CV701

Christmas Creek Expansion Project Reclaim

Conveyor CV701

500CC-09000-DR-ME-0503_2 5/02/2013

Reclaimer RC031

CC Project Reclaimer RC031 - Electrical

Cable Schedule

500CC-09009-CS-EL-0001_0 30/03/2011 5/02/2013

CC Project Reclaimer RC031 - H.V

Electrical Cable Schedule

500CC-09009-CS-EL-0002_0 18/02/2011 5/02/2013

Data Sheet Christmas Creek Reclaimer Datasheet RC031 Rev A .pdf 4/03/2010 5/02/2013

CC Expansion Project Stockyard -

Reclaimer RC031 Slewing & Operating

Range

500CC-09000-DR-ME-0210_3 28/09/2010 5/02/2013

MC01

Reclaimer RC031 11kV MCC RC031-

MC01 Single Line Diagram

500CC-09009-DR-EL-0200_1 14/05/2010 6/02/2013

MC02

Reclaimer RC031 415V MCC RC031-

MC02 Single Line Diagram Sheet 1/4

500CC-09009-DR-EL-0201_2 14/05/2010 6/02/2013

Train Loadout Conveyor CV801

Christmas Creek Train Loadout TOL

Substation MCC TL801-MC801

500CC-09043-DR-EL-1024_5[SLD) 14/07/2010 28/02/2013

CC Expansion Project CV801-EM01 Drive

Schematic Diagram

500CC-09000-DR-EL-0212_1 5/12/2011 28/02/2013

CC Expansion Project CV801-EM02 Drive

Schematic Diagram

500CC-09000-DR-EL-0215_1 5/12/2011 28/02/2013

CV601 Reclaimer Conveyors

Calibre Motor Data Sheet CV601-EM01 500CC-09004-DS-EL-0003[EM01_Data_Sheet) 19/07/2010 12/03/2013

Calibre Motor Data Sheet CV601-EM02 500CC-09004-DS-EL-0004[EM02_Data_Sheet) 19/07/2010 12/03/2013

Train Loadout Substation

TF801

TF801 Technical Specifications 500CC-09016-DS-EL-0004 11/08/2010 12/03/2013

CC Expansion Project Transfrmer TF801

Feeder Schematic Diagram

500CC-09000-DR-EL-0265_1 5/12/2011 12/03/2013

TF901

TF901 Technical Specifications 500CC-09016-DS-EL-0003 11/08/2010 31/01/2013

CC Expansin Project - Stockyard MCC901

Maximum Demand

500CC-09016-CA-EL-0005 13/08/2010 31/01/2013

Request for information - Airconditioner T155 TQ 006 Air Conditioner.pdf 24/07/2012 31/01/2013

CC Expansion Project Transformer TF901

Feeder Schematic Diagram

500CC-09000-DR-EL-0256_0 WS 18/08/2010 31/01/2013

SK703 Stacker

SK703 - Electrical Design Calculations 500CCM0013-C01-0001_1 Electrical Calculation.pdf 1/09/2010 1/02/2013

OPF1

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Power Distribution SLD 500CC-09000-DR-EL-0100 10/01/2011 21/02/2013

15MCC02A 500CCC0036-E02-0005_1 17/02/2010 20/01/2013

20MCC03 500CCC0036-E02-0009_1 17/02/2010 20/01/2013

20MCC04 500CCC0036-E02-0014_1 17/02/2010 20/01/2013

30MCC05A 500CCC0036-E02-0017_1 17/02/2010 20/01/2013

30MCC05B 500CCC0036-E02-0022_1 17/02/2010 20/01/2013

SUB018 SKE-110204 CV701 SUB018 SLD 17/02/2010 20/01/2013

10MCC201 SLD 4 Sheets 1550-1001-E-0001 17/02/2010 20/01/2013

HV Single Line Diagram 1/2 1500-SLD-HV1 1/2 17/02/2010 20/01/2013

HV Single Line Diagram 2/2 1500-SLD-HV1 2/2 17/02/2010 20/01/2013

OPF2 (20MCC206A)

11kV Switchboard (20MCC206A) SLD 1/2 510CCC0004-02000-DR-ME-0083_0[20MCC206A) 23/09/2011 25/02/2013

11kV Switchboard (20MCC206A) SLD 2/2 510CCC0004-02000-DR-ME-0084_0[20MCC206A-2) 23/09/2011 26/02/2013

HV Submission for Christmas Creek

Crushing2 Crushing Plant (11kV)

HV SUBMISSION P994 - 11kV-Package Part 1 of 3 19/06/2012 28/02/2013

OPF2 Feeder Cable 800mm

AL/XLPE/SC/AWAScreen EarthingTrench

Layout

SKE-120528 HV Screen Termination(OPF2 Feeders) 28/05/2012 8/02/2013

OPF2 - 10MCC201

Primary Crushing SLD 1550-1001-E-0001_4 (10MCC201 SLD) 1 to 4 13/01/2012 25/02/2013

OPF2 - 12MCC201

Course Ore Stockpile and Reclaiming

(12MCC203) SLD 1/2

1550-1203-E-0001_2 (12MCC203 SLD) 1 OF 2 3/01/2012 25/02/2013

Course Ore Stockpile and Reclaiming

(12MCC203) SLD 2/2

1550-1203-E-0001_2 (12MCC203 SLD) 2 OF 2 4/01/2012 25/02/2013

Transformer 10Tx201 Test Sheet Transformer Test 10TX20.pdf 9/07/2012 12/02/2013

OPF2 - 15MCC204A

Scrubbing and Screening (15MCC204A)

SLD 1/3

1550-1504-E-0001_1 (15MCC204A SLD) 1 OF 3 9/03/2012 25/02/2013

Scrubbing and Screening (15MCC204A)

SLD 2/3

1550-1504-E-0001_1 (15MCC204A SLD) 2 OF 3 9/03/2012 25/02/2013

Scrubbing and Screening (15MCC204A)

SLD 3/3

1550-1504-E-0001_1 (15MCC204A SLD) 3 OF 3 9/03/2012 25/02/2013

OPF2 - 15MCC204B

Scrubbing and Screening (15MCC204B)

SLD 1/3

1550-1504-E-0201_2 (15MCC204B SLD) 1 OF 3 9/03/2012 25/02/2013

Scrubbing and Screening (15MCC204B)

SLD 2/3

1550-1504-E-0201_2 (15MCC204B SLD) 2 OF 3 9/03/2012 25/02/2013

Scrubbing and Screening (15MCC204B)

SLD 3/3

1550-1504-E-0201_2 (15MCC204B SLD) 3 OF 3 9/03/2012 25/02/2013

OPF2 - 20MCC205

Secondary and Tertiary Crushing

(20MCC205) SLD 1/7

1550-2005-E-0001_1 (20MCC205 SLD) 1 OF 7 7/02/2012 25/02/2013

Secondary and Tertiary Crushing

(20MCC205) SLD 2/7

1550-2005-E-0001_1 (20MCC205 SLD) 2 OF 7 7/02/2012 25/02/2013

Secondary and Tertiary Crushing

(20MCC205) SLD 3/7

1550-2005-E-0001_1 (20MCC205 SLD) 3 OF 7 7/02/2012 25/02/2013

Secondary and Tertiary Crushing 1550-2005-E-0001_1 (20MCC205 SLD) 4 OF 7 7/02/2012 25/02/2013

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(20MCC205) SLD 4/7

Secondary and Tertiary Crushing

(20MCC205) SLD 5/7

1550-2005-E-0001_1 (20MCC205 SLD) 5 OF 7 7/02/2012 25/02/2013

Secondary and Tertiary Crushing

(20MCC205) SLD 6/7

1550-2005-E-0001_1 (20MCC205 SLD) 6 OF 7 7/02/2012 25/02/2013

Secondary and Tertiary Crushing

(20MCC205) SLD 7/7

1550-2005-E-0001_1 (20MCC205 SLD) 7 OF 7 7/02/2012 25/02/2013

OPF2 - 20MCC206B 3.3kV

3.3kV Switchboard (20MCC206B) SLD 1550-2006-E-0201_1 (3.3KV 20MCC206B SLD) 3/11/2011 25/02/2013

Technical Specifications

Standard Engineering Specifcation For

Electrical Design Criteria

500CC-09000-SP-EL-0001 19/05/2011 14/01/2013

HV Motors 500CC-09000-SP-EL-0002 9/08/2010 14/01/2013

Rotor Resistance Cubicles 500CC-09000-SP-EL-0003 17/10/2010 14/01/2013

HV Switchgear 500CC-09000-SP-EL-0004 20/09/2010 14/01/2013

LV Switchgear 500CC-09000-SP-EL-0007 20/09/2010 14/01/2013

Transformers 500CC-09000-SP-EL-0005 17/09/2010 14/01/2013

Transportable Switchrooms & Control

Rooms

500CC-09000-SP-EL-0006 20/09/2010 14/01/2013

Olex High Voltage Cable Catalogue OLC12641_HighVoltageCat_.pdf Mar-09 30/01/2013

Brugg HV Cable Systes Technical Guide Brugg HV Cable Systes Technical Guide.pdf 15/01/2009 31/01/2013

T155: FMG CC 2 Expansion Project - Cable

Schedule fr Installation of Switchboard

HV902 - OPF1 Alternate Power Supply

510CCC0001-0904-CS-EL-0002 Aug-12 31/01/2013

Design Fundamentals for Design Systems

on Conveyors

Design-fundamentals-Conveyors(VVVF-VSD).pdf Apr-09 1/02/2013

PowerFactory Technical Information

DIgSILENT Technical Documentation

Two-Winding Transformer (3-Phase)

TechRef_2-W-Transformer_3Phase 29/11/2010 6/03/2013

DIgSILENT Technical Documentation

Three-Winding Transformer

TechRef_3-W-Transformer 3/09/2008 6/03/2013

MVA Methos fr 3-Winding Transformer MVA_Method_3-Winding_Transformer 20/04/2011 13/03/2013

Load/Power Requirements

Christmas Crek Iron Ore Project - Maximum

Power Demand

CC2 Max Demand_FMG Rev C.pdf 25/02/2011 1/02/2013

33kV Distribution

33kV Distribution Network SLD SKE-100930 33kV Line SLD 1/10/2010 21/02/2013

CC Mine Site 33kV Distribution Network

SLD

500CC-10016-DR-EL-1019(33kV SLD) 19/10/2010 21/02/2013

TF001 11/33kV

Equipment Data Sheet for Transformers Datasheet_No_500CC-10016-DS-EL-1015.pdf 22/08/2011 4/02/2013

Fuel Unload RCDOS 33kV

Diesel Rail Unloading Facility CAE-120802 Cable Fuel Unload.pdf 2/08/2012 4/02/2013

Email - Cable for Fuel Unloader Cable for Fuel Unloader.msg 4/09/2012 1/03/2013

Email - RCDOS Load and Design 120207-FMG Power Supplies 8/02/2012 11/03/2013

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FMG Rail Diesel RCDOS Electrical Load estimate 9/09/2012 1/03/2013

RMU010

Fuel Storage

T155: Chichester Project - Christmas Creek

Mine - Bulk Diesel Storage Facility SLD

510CCC0028-13017-DR-EL-0002_D C2[BDSF) 3/08/2012 6/02/2013

CC Iron Ore Utilities - Sewage/Waste Water

Piping & Instrumentation Diagram

PRELIMINARY PROCESS Fuel 13/10/2008 6/02/2013

Cable

Block Diagram of RMU010/RMU001 SKE-120518 TF010 Block Diagram 18/05/2013 7/02/2013

Olex Krypton Test Sheet Test reports PO-0562-0563(Krypton) 27/01/2011 1/03/2013

6.35/11kV XLPE 20100623134527841 HV Cable6.35-11kV XLPE 5/04/2010 1/03/2013

HV Submission for FMG Christmas Creek

33kV Distribution System

CC 33 kV Sys HV Submission Package P856 7/08/2011 1/03/2013

Christmas Creek Mine Site - 33kV

Distribution Network

500CC-10016-DR-EL-1019 19/10/2010 2/03/2013

CCY2 RMU038

Christmas Creek (CCY@) Electrical

Services

P932-E00_to_E27_FMG_Comments(CCY2 Diagrams) N/A 7/02/2013

Maximum Power Demand Fuel Farm CCY2 - Fuel Maximum Demand Lis.pdf 30/01/2012 8/02/2013

HV Submission for FMG CC2 33kV

Distribution System

P970 - CC2 33kV Feeder Powerline HVS Package 4/07/2012 12/02/2013

CCY1 RMU017

Heavy Vehicle Workshop Facility P858-E01-03 Comment 110421 7/02/2011 12/02/2013

Cable Schedule for HV Workshop CCY2 LV Cable Schedule RevA 4-4-12 Review 4/04/2012

CCY1 - Bulk Diesel Storage Tank Farm Control Room - CRM1001

CC - 34x110kL Diesel Storage Facility

DB1001 Single Line Diagram 1/3

3030-EL-DR-001_0 DB1001 Single Line Diagram WET

SIGNED

20/04/2011 12/02/2013

OLC (Overland Conveyor)

Hahn Electrical Contractors - Transformer

Test 10Tx201 General Inspection

Transformer Test 10TX201 7/09/2012 21/02/2013

HV Sibmission for CC Crushing2 Remote

Crushing Hub (33kV)

CC2 33kV Remote Crushing Hub HVS Package 27/06/2012 12/02/2013

Primary Crushing (10MCC201) Single Line

Diagram

1550-1001-E-0001_0 (10MCC201 SLD) SHEET 1 14/09/2011 4/02/2013

Primary Crushing (10MCC201) Single Line

Diagram

1550-1001-E-0001_0 (10MCC201 SLD) SHEET 2 14/09/2011 4/02/2013

Primary Crushing (10MCC201) Single Line

Diagram

1550-1001-E-0001_0 (10MCC201 SLD) SHEET 3 14/09/2011 4/02/2013

EPE 200kVA TF033 Transformer Test

Sheet

200KVA OUTLINE AND DATA TF033 15/12/2010 28/02/2013

Partial Compliance Document for Christmas

Creek Remote Crushing Hub and Overland

Conveyor

120910_CC_EN_0062_CC

OPF2_Partial_Compliance_Document_Rev0

28/02/2013

EPE 100kVA Transformer Test Sheet 100KVA OUTLINE AND DATA 15/12/2010 28/02/2013

Construction Camp

CC Expansion Project Constructin Camp

Power Distribution Study Report

510CCC0001-10000-RP-EL-0001 Construction Camp

Power Distribution Study Rev 2

Oct-11 13/02/2013

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Table 10 Drawing Registry

Karntama Village

Heavy Vehicle Workshop & Gate House

Medical Centre Transformer Datasheet

500CC-10016-DS-EL-1001[Heavy Vehicle Workshop

Gate House Med Transformer Datasheet)

28/16/2010 19/02/2013

Chint 5MVA Name Plate Chint 5MVA Name Plate Transformer.pdf 14/06/2011 19/02/2013

Chint Test Report 5000kVA Test report 5000 Chint.pdf 16/02/2011 21/02/2013

Kandama Village Power 11kV SLD 500CC-10023-DR-EL-0200(Kandama Village PS) 23/06/2010 21/02/2013

Kandama Village Power System Package 500CC-100123-DR-EL-0201 to 500CC-100123-DR-EL-

0331)

23/06/2010 21/02/2013

Kandama Village 11kV Power Distribution

Permanent Standby Generation

SKE-120827 Karntama 11kV 27/08/2012 21/02/2013

Kandama Village Calbe Calculation for

1MVA Generators and 3MVA Transformer

510CCC0001-10023-CA-EL-0001_A[2] Cable Calc

Kandama Gen

25/03/2013 25/03/2013

T155: Chichester Expansion Project Christmas Creek Construction Camp Power Station 25/03/2013

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Appendix A Model Input Data

Generator Input Data

Cummins QSK78-G9 with HV80W Alternator

Apparent Power (MVA) sgn 3.259

Active Power Limit (MW) P_max 2.6072

Nominal Voltage (kV) ugn 11

Power Factor cosn 0.8

Synchronous Reactances (p.u.)

xd 2.6

xq 1.78

Zero Sequence (p.u.) x0 0.035

r0 0

Negative Sequence (p.u.)

x2 0.212

r2 0

Stator Resistance (p.u.) rstr 0.00887201

Subtransient Reactances xd” Sat 0.163 p.u.

Transient Reactances (p.u.) xd’ 0.221 p.u.

Reciprocal of Short Circuit Ratio (p.u.) xdsat 1.2

Table 11 Synchronous Generator Input Data

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Transformer Input Data

2 Winding

Transformers Pri/Sec Voltage

Size

(MVA)

Vector

Group Impedance (%Z) X/R

11TX202C 0.70/0.433kV 1.25 Dyn11 11.5 10

Tx-001 11/0.415kV 1 Dyn11 5.4 7.48539

Tx-002 11/0.415kV 1 Dyn11 5.4 7.48539

Tx-003 11/0.415kV 1 Dyn11 5.4 7.48539

Tx-004 11/0.415kV 1 Dyn11 5.4 7.485418

10TX01 11/0.433kV 2.75 Dyn11 6.33 10

12TX203 11/0.433kV 2 Dyn11 5.75 10

12TX204B 11/0.433kV 3 Dyn11 7.25 10

15TX02A 11/0.433kV 3 Dyn11 7.2 10

15Tx02B 11/0.433kV 3 Dyn11 7.2 10

15TX204A 11/0.433kV 3 Dyn11 7.5 10

20Tx03 11/0.433kV 3.5 Dyn11 6.4 10

20TX205 11/0.433kV 3.5 Dyn11 7.5 10

30TX05A 11/0.433kV 3.5 Dyn11 7.45 10

30TX05B 11/0.433kV 3 Dyn11 7.2 10

30TX207A 11/0.433kV 3.5 Dyn11 6.25 10

30TX207B 11/0.433kV 3 Dyn11 7.25 10

30TX207C 11/0.433kV 2.5 Dyn11 6.25 10

35TX208A 11/0.433kV 2.5 Dyn11 6.25 10

35TX208B 11/0.433kV 3 Dyn11 6.25 10

35TX208C 11/0.433kV 1.5 Dyn11 5 10

SK703-TF01 11/0.433kV 1 Dyn11 4 10

TF005 11/0.433kV 1 Dyn11 5 3.713879

TF008 11/0.433kV 1 Dyn11 5 3.713879

TF801 11/0.433kV 0.5 Dyn11 5.2 10

TF901 11/0.433kV 0.5 Dyn11 5.2 10

20TX04A 11/3.3kV 3 Dyn11 6.5 10

20TX206A 11/3.3kV 4.5 Dyn11 7.5 10

TF001 11/33kV 10 YNd1 5 11.17871

TF012 11/33kV 10 YNd1 5 11.17871

RC031-TF01 11kV/415V 1 Dyn11 4 10

TF011 33/0.418kV 1.5 Dyn11 3 10

TF012 33/0.418kV 1.5 Dyn11 3 10

TF042 33/0.418kV 0.2 Dyn11 4 2.909889

10TX201 33/0.433kV 2.75 Dyn11 7.69 10

Gatehouse 33/0.433kV 1 Dyn11 4 15.35208

Harridan Hill 33/0.433kV 0.1 Dyn11 4 2.379019

Ops Office 33/0.433kV 0.2 Dyn11 4 2.909889

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TF004 33/0.433kV 0.1 Dyn11 4 2.379019

TF017-1 33/0.433kV 0.63 Dyn11 4 9.640582

TF017-2 33/0.433kV 0.63 Dyn11 4 9.640582

TF017-3 33/0.433kV 1 Dyn11 4 15.35208

TF017-4 33/0.433kV 0.63 Dyn11 4 9.640582

TF033 33/0.433kV 2 Dyn11 5.75 7.117595

TF034 33/0.433kV 2 Dyn11 5.75 7.117595

TF035 33/0.433kV 2 Dyn11 5.75 7.117595

Fuel Unload 33/0.433kV 0.2 Dyn11 4 2.909889

11TX202A 33/0.7kV 5.5 Dyn11 6 10

11TX202B 33/0.7kV 5.5 Dyn11 6 10

08TF002 33/11kV 5 Dyn11 5 8.589999

Table 12 Two Winding Transformer Input Data

3 Winding

Transformers Pri/Sec/Ter Voltage

Size

(MVA) Vector Group

Impedance

(%Z) X/R

20TX04B 11/1.905/1.905kV 3.9 D0d0yn11 7.65 10

20TX04C 11/1.905/1.905kV 3.9 D0d0yn11 7.65 10

20TX206B 11/1.905/1.905kV 3.5 D0d0yn11 7.5 10

20TX206C 11/1.905/1.905kV 3.5 D0d0yn11 7.5 10

20TX207D 3.3kV/0.690/0.690kV 1.6 D0d0yn11 3 10

20TX207E 3.3kV/0.690/0.690kV 1.6 D0d0yn11 3 10

Table 13 Three Winding Transformer Input Data

The tap changer data input for all two-winding transformers are identical as per test sheets.

This can be seen in Table 14. The exception to this is only for the step up transformers TF001

and TF012 with YNd1 vector group. The actual tap positions of transformers have not been

verified and are assumed to be in the neutral position.

All Tx with Dyn11 Vector Group

Tap Changer Offload

Connected to HV Side

Additional Voltage

per Tap

2.50%

Phase of du 180

Neutral Position 3

Minimum Position 1

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The purpose of the tap changer is to allow a point of voltage regulation. It can vary in or out

the turns ratio of the transformer when it is de-energised (off load) or when energised (on

load). Each of these positions adjusts the voltage by 2.5%. The software has an option to

automatically adjust the tap settings according to a load flow calculation that can be used as a

function of reactive power control. This is used to control the voltages at nodes and bus

locations within the system to be within the voltage drop parameters defined. The 180° phase

shift relates to the relationship between the primary and secondary voltage and depends on

whether the primary and secondary windings are wound in the same direction or opposite.

This polarity is important when transformers are installed in parallel.

Maximum Position 5

Table 14

Tap Changer Dyn11

TF001/TF012 with YNd1 Vector

Group Tap Changer Offload

Connected to HV Side

Additional Voltage

per Tap

2.50%

Phase of du 180

Neutral Position 4

Minimum Position 1

Maximum Position 6 Table 15 Tap Changer Ynd1

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The vector group will also contribute to the phase shift between the HV and LV terminals. A

Dyn11 connection provides a +30° phase change, while the polarity of transformer provides a

180°. Combining these two phase shifts provides 210° (30+180 = 210) phase shift on the LV

side compared to the HV side. [9]

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Cable Input Data

Name

Type Length

Terminal I

(From) Terminal j (To)

TypLne,TypTow,TypGeo m Busbar Busbar

150mm Cu XLPE 4C+E

Olex 0.6/1kV 150mm 4C+E

Cu CLPE/PVC 200 Tx LV Fuel Unload Fuel Unload RCDOS

Alternate Feeder HV901

to HV902

Olex 6.35/11kV 630 Al 1C

XLPE/AWA/NY/PVC 30

Stockyard

Substation 11kV

Stockyard Substation

HV902

Bustie 11MCC202A to

11MCC202B 5000A Bus Tie 5000A 1 11MCC202A 11MCC202B

CCY1-RMU017-P1 19/33kV Al185mm 3C 300 CCY1 HV TF017-1

CCY1-RMU017-P2 19/33kV Al185mm 3C 220 CCY1 HV TF017-2

CCY1-RMU017-P3 19/33kV Al185mm 3C 176 CCY1 HV TF017-3

CCY1-RMU017-P4 19/33kV Al185mm 3C 308 CCY1 HV TF017-4

Connectin RMU-05 to

RMU-06

Olex 240mm 6.35/11kV 1C

Cu XLPE (Buried) 1 RMU-05 RMU-06

FE-04 - PS to HV901

400m

Olex 6.35/1kV 3C 300 Cu

XLPE/SWA/NY/PVC 400

Stockyard

Substation 11kV

Power Station Bus

11kV

FE-07 to OPF2-A

Olex 6.35/11kV 800mm Al

XLPE/HDS/PVC/NY/PVC 800

20MCC206A

OPF2

- Power Station Bus

11kV

FE-08 to OPF2-B

Olex 6.35/11kV 800mm Al

XLPE/HDS/PVC/NY/PVC 800

20MCC206A

OPF2

Power Station Bus

11kV

FE-09 PS to TF012

Olex 6.35/11kV 400mm 1C

Cu/XLPE/PVC 30

- Power Station

Bus 11kV

OHL East TF012 LV

11kV

Feed to Cone Crushers

Olex 3.8/6.6kV 70mm 3C Cu

(Buried) 140 20MCC206B Cone Crushers 3.3kV

Feeder 20MCC206A to

12TX203 480m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 480

20MCC206A

OPF2 12TX203 HV

Feeder 20MCC206A to

15TX204A 250m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 250

20MCC206A

OPF2 15TX204A HV

Feeder 20MCC206A to

15TX204B 260m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 260

20MCC206A

OPF2 12TX204B HV

Feeder 20MCC206A to

20TX205 30m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 30

20MCC206A

OPF2 20TX205 HV

Feeder 20MCC206A to

20TX206A 30m

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 30

20MCC206A

OPF2 20TX206A HV

Feeder 20MCC206A to

20TX206B 30m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 30

20MCC206A

OPF2

HPGR Master

20TX206B

Feeder 20MCC206A to

20TX206C 30m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 30

20MCC206A

OPF2

HPGR Follower

20TX206C HV

Feeder 20MCC206A to

30TX207A 500m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 500

20MCC206A

OPF2

Desands 30TX207A

HV

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Feeder 20MCC206A to

30TX207B 500m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 500

20MCC206A

OPF2

Desands 30TX207B

HV

Feeder 20MCC206A to

30TX207C 500m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 500

20MCC206A

OPF2

Desands 30TX207C

HV

Feeder 20MCC206A to

30TX208A 300m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 300

20MCC206A

OPF2 Jigging 35TX208A HV

Feeder 20MCC206A to

30TX208B 300m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 300

20MCC206A

OPF2 Jigging 35TX208B HV

Feeder 20MCC206A to

30TX208C 300m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 300

20MCC206A

OPF2 35TX208C HV

Feeder 20MCC206B to

20TX207D

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 520 20MCC206B Tails Pump D 3.3kV

Feeder 20MCC206B to

Tails Pump 20TX207E

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 525 20MCC206B Tails Pump E 3.3kV

Feeder 20TX206A to

20MCC206B 3.3kV

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 15 20TX206A LV 20MCC206B

Feeder Area 15 to Area 20

Olex 6.35/11kV 400mm 3C

Cu/XLPE/PVC 200

20MCC03

Secondary

Crushing (Area 15)

Area 20 MCC03

20CR01/20CR02

Feeder HPGR Follower

Delta

Olex 0.6/1kV 120mm 1C Cu

XLPE/PVC 20

HPGR Follower

Delta 20TX207E

LV HPGR Follower Motor

Feeder HPGR Follower

Star to Load

Olex 0.6/1kV 120mm 1C Cu

XLPE/PVC 20

HPGR Follower

Start 20TX207E

LV

HPGR Follower Motor

2

Feeder HPGR Master

Delta - 20CR205A 20m

Olex 0.6/1kV 120mm 1C Cu

XLPE/PVC 20

HPGR Master VSD

20TX207D LV

Delta

HPGR Main Motor

20CR205A

Feeder HPGR Master

Star - 20CR205B 20m

Olex 0.6/1kV 120mm 1C Cu

XLPE/PVC 20

HPGR Master Star

20TX207D LV

HPGR Main Motor

20CR205B

Feeder HV901 to CV201-

EM01 200m

Olex 6.35/11kV 50mm 3C Cu

XLPE/PVC 200

Stockyard

Substation 11kV

Plant Output

Conveyors

Feeder HV901 to CV401-

EM01/EM02 950m

Olex 6.35/11kV 50mm 3C Cu

XLPE/PVC 950

Stockyard

Substation 11kV CV401-EM01/EM02

Feeder HV901 to CV601-

EM01/EM02 80m

Olex 6.35/11kV 50mm 3C Cu

XLPE/PVC 80

Stockyard

Substation 11kV Reclaimer Conveyors

Feeder HV901 to CV701-

EM01/EM02 120m

Olex 6.35/11kV 300mm Cu

3C 120

Stockyard

Substation 11kV

Reclaimer Conveyors

CV701

Feeder HV901 to CV801-

EM01 400m

Olex 6.35/11kV 50mm 3C Cu

XLPE/PVC 400

Stockyard

Substation 11kV

Train Loadout

Conveyors

Feeder HV901 to RC031

600m

Olex 6.35/11kV 50mm 3C Cu

XLPE/PVC 600

Stockyard

Substation 11kV RC031 Reclaimer

Feeder HV901 to TF801

Tx

Olex 6.35/11kV 50mm 3C Cu

XLPE/PVC 500

Stockyard

Substation 11kV

TF801 HV - Train

Loadout Substation

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80

Feeder HV901 to TF901

20m

Olex 6.35/11kV 50mm 3C Cu

XLPE/PVC 20

Stockyard

Substation 11kV TF901 HV

Feeder HV902 to OPF1

400mm Cu

Olex 6.35/11kV 400mm 3C

Cu/XLPE/PVC 500 20MCC04 20MCC04

Feeder OHL to Harridan

Hill Tower Krypton Al AACA/120 +N 1350 PL1081

Harridan Hill Tower

HV

Feeder PL10062 to

Telstra Hut TF004 Krypton Al AACA/120 +N 10 TF004 HV PL10062

Feeder PL10062 to

PL1075 Krypton Al AACA/120 +N 1750 PL1075 PL10062

Feeder PL1075 to PL2032 Krypton Al AACA/120 +N 2200 PL1075 PL1081

Feeder PL1075 to

RMU011 Banana 3.5km Banana 33kV OHL 3500 PL1075

Construction Camp

RMU011

Feeder PL1081 to

Kandama Village 33kV Krypton Al AACA/120 +N 930 PL1081 Kandama Village RMU

Feeder PL4004 to

REC031 OLC 350m

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PVC 350 PL4004 OLC A REC031 OLC

Feeder PL4005 to

REC032 OLC 350m

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PVC 350 PL4005 OLC B REC032 OLC

Feeder PL4008 to PL4017 Krypton Al AACA/120 +N 100 PL4008 PL4017

Feeder PL4017 to CCY1 Krypton Al AACA/120 +N 1400 PL4017 CCY1

Feeder PL5005 to TF033

RCH

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PVC 300 PL5005 TF033 HV

Feeder PL5028 to TF034

RCH

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PVC 300 PL5028 TF034 HV

Feeder PL5043 to TF035

RCH

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PVC 300 PL5043 TF035 HV

Feeder PS to TF001

Olex 6.35/11kV 800mm Al

XLPE/HDS/PVC/NY/PVC 30

Power Station Bus

11kV

OHL West TF001 LV

11kV

Feeder REC037 to

10TX201 50mm

Olex 19/33kV 50mm 3C Al

XLPE/HDS/PVC/NYL 200 REC037 10TX201 HV

Feeder RMU-02 to RMU-

01

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 100 RMU-02 RMU-01

Feeder RMU-03 to RMU-

02

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 100 RMU-03 RMU-02

Feeder RMU-04 to RMU-

03

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 100 RMU-04 RMU-03

Feeder RMU001 to

Gatehouse 2km Banana 33kV OHL 2000 Power StationRMU Gatehouse RMU

Feeder RMU001 to

RMU010 U/G

Olex 19/33kV 185mm 3C Cu

XLPE/SWA/NY/PVC 10

RMU010 Power

Station 33kV Power StationRMU

Feeder RMU010 to CCY1 Krypton Al AACA/120 +N 8000 PL4004 OLC A PL4003 33kV

Feeder RMU011 to Olex 19/33kV 185mm 3C 10 RMU012/SUB012 Construction Camp

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81

RMU012 Al/XLPE/SWA/NY Con RMU011

Feeder TF001 to 3way Jcn

PL10062 Krypton Al AACA/120 +N 2000

PL10XX (Fuel

Unload) PL10062

Feeder TF001 to Fuel

Unload 4.15km Krypton Al AACA/120 +N 4150 Power StationRMU PL10XX (Fuel Unload)

Feeder TF004 to SWB004

Olex 0.6/1kV 120mm 1C Cu

XLPE/PVC 7

Switchroom Telstra

Hut Telstra Hut DB

Feeder TF801 to TLO

Substation 40m

Olex 0.6/1kV 500mm Cu 1C

XLPE/TPE 40

TF801 LV - Train

Loadout Substation 415V MC801

Feeder from OHL to Fuel

Unlaod Tx Krypton Al AACA/120 +N 10

PL10XX (Fuel

Unload) Tx HV Fuel Unload

Feeder from Tx001 to

RMU-04

Olex 240mm 6.35/11kV 1C

Cu XLPE (Buried) 320 RMU-06 RMU-04

Feeder to OLC Drive

Motor A

0.6/1kV 630mm 1C Cu

XLPE/PVC 100 11TX202A LV 11MCC202A

Feeder to OLC Drive

Motor B

0.6/1kV 630mm 1C Cu

XLPE/PVC 100 11TX202B LV 11MCC202B

Feeder to SK703 Med

Point JBOX 550m

Olex 6.35/11kV 50mm 3C Cu

XLPE/PVC 550

Stockyard

Substation 11kV SK703-TF01 TX HV

MCC902-P-01 Olex 0.6/1kV 1C Cu 400mm 300 Kiosk Substation Turkeys Nest

MCC902-P-02

Olex 6.35/11kV 400mm 3C

Cu/XLPE/PVC 300 Kiosk Substation EPCM Office

MCC902-P-03

Olex 6.35/11kV 400mm 3C

Cu/XLPE/PVC 300 Kiosk Substation Laboratory

OHL PL4001 to PL4003

Krypton Krypton Al AACA/120 +N 2500 PL4001 REC001 PL4003 33kV

OHL PL4004 to PL4005

Krypton 20m Krypton Al AACA/120 +N 20 PL4004 OLC A PL4005 OLC B

OHL PL4005 to PL4007

Krypton Krypton Al AACA/120 +N 1000 PL4005 OLC B PL4007

OHL PL4007 to PL4008

Banana Banana 33kV OHL 1000 PL4008 PL4007

OHL PL4007 to PL5005

Krypton Krypton Al AACA/120 +N 1000 PL4007 PL5005

OHL PL4008 to Ops

Office 100m Banana 33kV OHL 100 PL4008 Ops Office 33kV

OHL PL5005 to PL5028

Krypton Krypton Al AACA/120 +N 1000 PL5005 PL5028

OHL PL5028 to PL5043

Krypton Krypton Al AACA/120 +N 1000 PL5028 PL5043

OHL PL5043 to PL5059

Krypton Krypton Al AACA/120 +N 1000 PL5043 PL5059

OPF1 Incomer 1 Olex 6.35/11kV 630 Al 1C 100 20MCC04 Stockyard Substation

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82

XLPE/AWA/NY/PVC HV902

PL4001-P1 U/G 100m

Olex 19/33kV 185mm 3C

Al/XLPE/SWA/NY Con 100

RMU010 Power

Station 33kV PL4001 REC001

PL5059 to REC037 RCH

Primary Crushing Krypton Al AACA/120 +N 1000 PL5059 REC037

Power Station FE-05

Olex 6.35/11kV 630 Al 1C

XLPE/AWA/NY/PVC 520

Stockyard

Substation HV902

Power Station Bus

11kV

SB004 to Telstra Hut DB

Olex 0.6/1kV 50mm Cu 4C+E

XLPE/PVC 200 Telstra Hut DB Telstra Hut Load

Table 16 Cable Input Data

Name

Type

Rtd

.

Vol

tag

e

Rated

Curre

nt

R'

(20°C

) X' L' R0' X0'

TypLne,TypTow,TypGe

o kV kA

Ohm/

km

Ohm/k

m

mH/k

m

Ohm

/km

Ohm

/km

Bustie 11MCC202A to

11MCC202B 5000A Bus Tie 5000A 0.69 5 0 0 0 0 0

150mm Cu XLPE 4C+E

Olex 0.6/1kV 150mm 4C+E

Cu CLPE/PVC 1 0.304 0.124 0.0718

0.2285

47 0 0

Feeder HPGR Follower

Delta

Olex 0.6/1kV 120mm 1C

Cu XLPE/PVC 1 0.287 0.153 0.0844

0.2686

54 0 0

Feeder HPGR Follower

Star to Load

Olex 0.6/1kV 120mm 1C

Cu XLPE/PVC 1 0.287 0.153 0.0844

0.2686

54 0 0

Feeder HPGR Master

Delta - 20CR205A 20m

Olex 0.6/1kV 120mm 1C

Cu XLPE/PVC 1 0.287 0.153 0.0844

0.2686

54 0 0

Feeder HPGR Master

Star - 20CR205B 20m

Olex 0.6/1kV 120mm 1C

Cu XLPE/PVC 1 0.287 0.153 0.0844

0.2686

54 0 0

Feeder TF004 to

SWB004

Olex 0.6/1kV 120mm 1C

Cu XLPE/PVC 1 0.287 0.153 0.0844

0.2686

54 0 0

Feeder TF801 to TLO

Substation 40m

Olex 0.6/1kV 500mm Cu

1C XLPE/TPE 1 0.88 0.0384 0.082

0.2610

14 0 0

Feeder to OLC Drive

Motor A

0.6/1kV 630mm 1C Cu

XLPE/PVC 1 0.95 0.0283 0.0787

0.2505

1

0.028

3

0.078

7

Feeder to OLC Drive

Motor B

0.6/1kV 630mm 1C Cu

XLPE/PVC 1 0.95 0.0283 0.0787

0.2505

1

0.028

3

0.078

7

MCC902-P-01

Olex 0.6/1kV 1C Cu

400mm 1 0.71 0.0486 0.0802

0.2552

85 0 0

SB004 to Telstra Hut

DB

Olex 0.6/1kV 50mm Cu

4C+E XLPE/PVC 1 0.155 0.387 0.0751

0.2390

51 0 0

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83

Feed to Cone Crushers

Olex 3.8/6.6kV 70mm 3C

Cu (Buried) 3.3 0.195 0.268 0.109

0.3469

58 1.06

0.060

3

Alternate Feeder

HV901 to HV902

Olex 6.35/11kV 630 Al 1C

XLPE/AWA/NY/PVC 11 0.62 0.0469 0.095

0.3023

94 0.312

0.037

4

Connectin RMU-05 to

RMU-06

Olex 240mm 6.35/11kV 1C

Cu XLPE (Buried) 11 0.33 0.0754 0.106

0.3374

09 0.339

0.046

5

FE-04 - PS to HV901

400m

Olex 6.35/1kV 3C 300 Cu

XLPE/SWA/NY/PVC 11 0.521 0.0601 0.0904

0.2877

52 0.856

0.043

4

FE-07 to OPF2-A

Olex 6.35/11kV 800mm Al

LPE/HDS/PVC/NY/PVC 11 0.692 0.0367 0.092

0.2928

45 0.302

0.035

1

FE-08 to OPF2-B

Olex 6.35/11kV 800mm Al

LPE/HDS/PVC/NY/PVC 11 0.692 0.0367 0.092

0.2928

45 0.302

0.035

1

FE-09 PS to TF012

Olex 6.35/11kV 400mm 1C

Cu/XLPE/PVC 11 0.485 0.0778 0.101

0.3214

93 0.342

0.041

8

Feeder 20MCC206A to

12TX203 480m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

15TX204A 250m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

15TX204B 260m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

20TX205 30m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

20TX206A 30m

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 11 0.276 0.153 0.102

0.3246

76 0.95

0.054

3

Feeder 20MCC206A to

20TX206B 30m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

20TX206C 30m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

30TX207A 500m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

30TX207B 500m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

30TX207C 500m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

30TX208A 300m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

30TX208B 300m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206A to

30TX208C 300m

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206B to

20TX207D

Olex 6.35/11kV 95mm 3C

Cu XLPE/HDS/PVC 11 0.246 0.193 0.106

0.3374

09 0.95

0.054

3

Feeder 20MCC206B to Olex 6.35/11kV 95mm 3C 11 0.246 0.193 0.106 0.3374 0.95 0.054

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84

Tails Pump 20TX207E Cu XLPE/HDS/PVC 09 3

Feeder 20TX206A to

20MCC206B 3.3kV

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 11 0.276 0.153 0.102

0.3246

76 0.95

0.054

3

Feeder Area 15 to Area

20

Olex 6.35/11kV 400mm 3C

Cu/XLPE/PVC 11 0.534 0.047 0.087

0.2769

3 0.845

0.040

3

Feeder HV901 to

CV201-EM01 200m

Olex 6.35/11kV 50mm 3C

Cu XLPE/PVC 11 0.162 0.387 0.121

0.3851

55 0 0

Feeder HV901 to

CV401-EM01/EM02

950m

Olex 6.35/11kV 50mm 3C

Cu XLPE/PVC 11 0.162 0.387 0.121

0.3851

55 0 0

Feeder HV901 to

CV601-EM01/EM02

80m

Olex 6.35/11kV 50mm 3C

Cu XLPE/PVC 11 0.162 0.387 0.121

0.3851

55 0 0

Feeder HV901 to

CV701-EM01/EM02

120m

Olex 6.35/11kV 300mm Cu

3C 11 0.47 0.0601 0.0904

0.2877

52 0.856

0.043

4

Feeder HV901 to

CV801-EM01 400m

Olex 6.35/11kV 50mm 3C

Cu XLPE/PVC 11 0.162 0.387 0.121

0.3851

55 0 0

Feeder HV901 to

RC031 600m

Olex 6.35/11kV 50mm 3C

Cu XLPE/PVC 11 0.162 0.387 0.121

0.3851

55 0 0

Feeder HV901 to TF801

Tx

Olex 6.35/11kV 50mm 3C

Cu XLPE/PVC 11 0.162 0.387 0.121

0.3851

55 0 0

Feeder HV901 to TF901

20m

Olex 6.35/11kV 50mm 3C

Cu XLPE/PVC 11 0.162 0.387 0.121

0.3851

55 0 0

Feeder HV902 to OPF1

400mm Cu

Olex 6.35/11kV 400mm 3C

Cu/XLPE/PVC 11 0.534 0.047 0.087

0.2769

3 0.845

0.040

3

Feeder PS to TF001

Olex 6.35/11kV 800mm Al

XLPE/HDS/PVC/NY/PVC 11 0.692 0.0367 0.092

0.2928

45 0.302

0.035

1

Feeder RMU-02 to

RMU-01

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 11 0.276 0.153 0.102

0.3246

76 0.95

0.054

3

Feeder RMU-03 to

RMU-02

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 11 0.276 0.153 0.102

0.3246

76 0.95

0.054

3

Feeder RMU-04 to

RMU-03

Olex 6.35/11kV 120mm

XLPE/HDS/PVC Buried 11 0.276 0.153 0.102

0.3246

76 0.95

0.054

3

Feeder from Tx001 to

RMU-04

Olex 240mm 6.35/11kV 1C

Cu XLPE (Buried) 11 0.33 0.0754 0.106

0.3374

09 0.339

0.046

5

Feeder to SK703 Med

Point JBOX 550m

Olex 6.35/11kV 50mm 3C

Cu XLPE/PVC 11 0.162 0.387 0.121

0.3851

55 0 0

MCC902-P-02

Olex 6.35/11kV 400mm 3C

Cu/XLPE/PVC 11 0.534 0.047 0.087

0.2769

3 0.845

0.040

3

MCC902-P-03

Olex 6.35/11kV 400mm 3C

Cu/XLPE/PVC 11 0.534 0.047 0.087

0.2769

3 0.845

0.040

3

OPF1 Incomer 1

Olex 6.35/11kV 630 Al 1C

XLPE/AWA/NY/PVC 11 0.62 0.0469 0.095

0.3023

94 0.312

0.037

4

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85

Power Station FE-05

Olex 6.35/11kV 630 Al 1C

XLPE/AWA/NY/PVC 11 0.62 0.0469 0.095

0.3023

94 0.312

0.037

4

CCY1-RMU017-P1 19/33kV Al185mm 3C 33 0.284 0.164 0.117

0.3724

23 0.961

0.069

4

CCY1-RMU017-P2 19/33kV Al185mm 3C 33 0.284 0.164 0.117

0.3724

23 0.961

0.069

4

CCY1-RMU017-P3 19/33kV Al185mm 3C 33 0.284 0.164 0.117

0.3724

23 0.961

0.069

4

CCY1-RMU017-P4 19/33kV Al185mm 3C 33 0.284 0.164 0.117

0.3724

23 0.961

0.069

4

Feeder OHL to

Harridan Hill Tower Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder PL10062 to

Telstra Hut TF004 Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder PL10062 to

PL1075 Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder PL1075 to

PL2032 Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder PL1075 to

RMU011 Banana 3.5km Banana 33kV OHL 33 0.129 0.433 0.271

0.8626

2 0 0

Feeder PL1081 to

Kandama Village 33kV Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder PL4004 to

REC031 OLC 350m

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PV

C 33 0.213 0.268 0.139

0.4424

51 1.06

0.090

9

Feeder PL4005 to

REC032 OLC 350m

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PV

C 33 0.213 0.268 0.139

0.4424

51 1.06

0.090

9

Feeder PL4008 to

PL4017 Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder PL4017 to

CCY1 Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder PL5005 to

TF033 RCH

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PV

C 33 0.213 0.268 0.139

0.4424

51 1.06

0.090

9

Feeder PL5028 to

TF034 RCH

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PV

C 33 0.213 0.268 0.139

0.4424

51 1.06

0.090

9

Feeder PL5043 to

TF035 RCH

19/33kV 70mm 3C Cu

XLPE/HDS/PVC/NYL/PV

C 33 0.213 0.268 0.139

0.4424

51 1.06

0.090

9

Feeder REC037 to

10TX201 50mm

Olex 19/33kV 50mm 3C Al

XLPE/HDS/PVC/NYL 33 0.135 0.641 0.147

0.4679

16 1.23

0.098

5

Feeder RMU001 to Banana 33kV OHL 33 0.129 0.433 0.271 0.8626 0 0

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Gatehouse 2km 2

Feeder RMU001 to

RMU010 U/G

Olex 19/33kV 185mm 3C

Cu XLPE/SWA/NY/PVC 33 0.366 0.0991 0.116

0.3692

39 0.476

0.068

5

Feeder RMU010 to

CCY1 Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder RMU011 to

RMU012

Olex 19/33kV 185mm 3C

Al/XLPE/SWA/NY Con 33 0.27 0.164 0.117

0.3724

23 0.543

0.069

4

Feeder TF001 to 3way

Jcn PL10062 Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder TF001 to Fuel

Unload 4.15km Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Feeder from OHL to

Fuel Unlaod Tx Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

OHL PL4001 to PL4003

Krypton Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

OHL PL4004 to PL4005

Krypton 20m Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

OHL PL4005 to PL4007

Krypton Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

OHL PL4007 to PL4008

Banana Banana 33kV OHL 33 0.129 0.433 0.271

0.8626

2 0 0

OHL PL4007 to PL5005

Krypton Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

OHL PL4008 to Ops

Office 100m Banana 33kV OHL 33 0.129 0.433 0.271

0.8626

2 0 0

OHL PL5005 to PL5028

Krypton Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

OHL PL5028 to PL5043

Krypton Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

OHL PL5043 to PL5059

Krypton Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

PL4001-P1 U/G 100m

Olex 19/33kV 185mm 3C

Al/XLPE/SWA/NY Con 33 0.27 0.164 0.117

0.3724

23 0.543

0.069

4

PL5059 to REC037

RCH Primary Crushing Krypton Al AACA/120 +N 33 0.213 0.189 0.244

0.7766

76 0.567 0.732

Table 17 Cable Input Specification

Motor Data Input

Name

Terminal

Active

Power

Reactive

Power

Nominal

Apparent

Power

Power

Factor

Busbar MW Mvar kVA cosσ

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105.4kW Lumped

DOL 415V MC801 0.09 0.091488 131.75 0.72

108.5kW DOL 10MCC01 Primary Crushing 0.1085 0.103984 135.63 0.72

120kW Lumped Fuel Unload RCDOS 0.065 0.05758 130 0.8

19.5kW Lumped

DOL MC901 415V 0.0195 0.01839 24.38 0.72

222kW DOL 15MCC02B Screening 0.222 0.180639 277.5 0.8

22kW DOL Turkeys Nest 0.022 0.018517 27.5 0.8

288.3kW Lumped

DOL SK703-TF01 Stacker LV 0.1 0.200026 360.38 0.72

4kW Motor RC031-MC02 Reclaimer 415V 0.004 0.004761 7.024939 0.73

90kW DOL- 15MCC02A Screening 0.09 0.064918 112.5 0.8

94kW Motor Lumped PL4426 Fuel Storage 418V 0.094 0.066508 119 0.8

DOL 163kW Area 20 MCC03 20CR01/20CR02 0.0841 0.088933 203.75 0.8

DOL 181kW 30MCC05A 0.1774 0.144638 226.25 0.8

DOL 193kW 15TX204A Scrubbers 0.1182 0.08543 147.75 0.8

DOL 44kW Reclaim Tunnel Area (12MCC203) 0.02223 0.028223 56.25 0.8

DOL 587kW 30MCC05B 0.3528 0.437566 733.75 0.8

DOL 74kW Area 20 MCC03 20CR01/20CR02 0.0273 0.03837 92.5 0.8

DOL 74kW(1) Area 20 MCC03 20CR01/20CR02 0.0093 0.036461 92.5 0.8

DOL Lumped

225.5kW 12TX204B Scrubbers 0.1305 0.130947 281.88 0.8

DOL Wet Sizing

Screen 90kW 15MCC02A Screening 0.09 0.064918 112.5 0.8

L-DOL 110kW 30MCC05A 0.0868 0.091673 137.5 0.8

L-DOL - 150kW Jigging 35TX208B LV 0.0521 0.078457 187.5 0.8

L-DOL - 150kW 11MCC202C OLC MCC Supply 0.12 0.10545 187.5 0.8

L-DOL -110kW Jigging 35TX208A LV 0.0625 0.082144 137.5 0.8

L-DOL 110kW 30TX207B LV 0.066 0.083493 137.5 0.8

L-DOL 150kW 30MCC05B 0.1235 0.110227 187.5 0.8

L-DOL 37kW Secondary & Tertiray Crushing (20MCC205) 0.0031 0.021168 46.25 0.8

L-DOL - 37kW Secondary & Tertiray Crushing (20MCC205) 0.0031 0.021168 46.25 0.8

L-DOL -132kW Secondary & Tertiray Crushing (20MCC205) 0.0924 0.083353 165 0.8

L-DOL 110kW 30TX207A LV 0.077 0.087836 137.5 0.8

L-DOL 120kW 30TX207C LV 0.12 0.101093 178.5135 0.8

L-DOL 132kW Turkeys Nest 0.1056 0.090199 165 0.8

L-DOL 150kW 35TX208C LV 0.075 0.060903 178.2997 0.88

L-DOL 150kW

Conveyor 204 Secondary & Tertiray Crushing (20MCC205) 0.09 0.092158 187.5 0.8

L-DOL 15kW MC901 415V 0.015 0.013466 21.57032 0.76

L-DOL 22kW

Conveyor Drive

Motor Reclaim Tunnel Area (12MCC203) 0.0069 0.011822 28.62347 0.8

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L-DOL 250kW SK703-TF01 Stacker LV 0.25 0.143351 297.1662 0.839

L-DOL 30kW -

10FA204 Primary Crushing 10MCC201 0.021 0.017343 38.11557 0.8

L-DOL 30kW(1) Fuel Unload RCDOS 0.03 0.019584 38.11557 0.8

L-DOL 37kW Secondary & Tertiray Crushing (20MCC205) 0.0031 0.021168 46.25 0.8

L-DOL 45kW 10MCC01 Primary Crushing 0.045 0.037155 56.25 0.8

L-DOL 75kW 415V MC801 0.075 0.055317 97.26113 0.8

L-DOL 90kW 20MCC03 Secondary Crushing (Area 15) 0.09 0.065359 112.5 0.8

L-DOL 90kW(1) 15TX204A Scrubbers 0.072 0.058222 112.5 0.8

L-DOL Dust

Extractor 132kW Area 20 MCC03 20CR01/20CR02 0.0973 0.084453 165 0.8

L-DOL Loading

Pump 30kW PL4426 Fuel Storage 418V 0 0.016175 38.11557 0.8

L-DOL Lube 1

Cooler 150kW Area 20 MCC03 20CR01/20CR02 0.0947 0.092591 187.5 0.8

L-DOL Lube 2

Cooler 150kW Area 20 MCC03 20CR01/20CR02 0.1263 0.111817 187.5 0.8

L-DOL- 90kW 12TX204B Scrubbers 0.054 0.053469 112.5 0.8

L-DOL-90kW 15MCC02B Screening 0.09 0.066195 116.7134 0.8

Lumped DOL -

145kW 35TX208C LV 0.0725 0.091772 181.25 0.8

Lumped DOL

1009kW Jigging 35TX208A LV 0.5744 0.341558 1261.25 0.8

Lumped DOL 177.25

kW Primary Crushing 10MCC201 0.0257 0.0901 221.5625 0.8

Lumped DOL

219.7kW 11MCC202C OLC MCC Supply 0.12759 0.121254 274.625 0.8

Lumped DOL

310.80kW 30TX207A LV 0.172 0.179216 388.5 0.8

Lumped DOL

343.25kW 30TX207B LV 0.1751 0.192567 429.0625 0.8

Lumped DOL 34kW Secondary & Tertiray Crushing (20MCC205) 0.0188 0.020456 42.5 0.8

Lumped DOL 45kW Secondary & Tertiray Crushing (20MCC205) 0.0099 0.025825 56.25 0.8

Lumped DOL 489kW 30TX207C LV 0.29 0.169143 611.25 0.8

Lumped DOL 56kW Secondary & Tertiray Crushing (20MCC205) 0.0157 0.032489 70 0.8

Lumped DOL- 56kW Secondary & Tertiray Crushing (20MCC205) 0.0157 0.032489 70 0.8

Lumped-DOL

1599kW Jigging 35TX208B LV 0.851 0.928106 1998.75 0.8

Table 18 Asynchronous Motor Input Data

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Load Input Data

Name

Terminal Act.Pow.

React.Po

w.

App.Po

w.

Pow.Fa

ct.

Busbar kW kvar kVA cos σ

105.3kW Load EPCM Office 105.3 50.99913 117 0.9

12kW Static 15MCC02A Screening 12 5.811865

13.3333

3 0.9

130kW Static 10MCC01 Primary Crushing 130 62.96185

144.444

4 0.9

53.2kW Static 15MCC02B Screening 53.2 25.76594

59.1111

1 0.9

5kW Static Turkeys Nest 5 2.421611

5.55555

6 0.9

CC Load 2 450kW LV SUB012 450 217.945 500 0.9

CC Load 450kW LV DB Construction Camp Load 450 217.945 500 0.9

CV201-EM01 750kW Plant Output Conveyors 600 450 750 0.8

CV401-EM01/EM02

2MW CV401-EM01/EM02 2000 790.4509

2150.53

8 0.93

CV601-EM01/EM02

2MW Reclaimer Conveyors 2000 968.6445

2222.22

2 0.9

CV701-EM01/EM02

Motor Lump 2MW Reclaimer Conveyors CV701 1000 750 1250 0.8

CV801-EM01/EM02

2MW Train Loadout Conveyors 2000 790.4509

2150.53

8 0.93

Cone Crushers 2250

kW Cone Crushers 3.3kV 2250 889.2571

2419.35

5 0.93

HPGR Follower VSD

1300kW 20TX206C LV Delta 1300 513.793

1397.84

9 0.93

HPGR Follower VSD

1300kW(1) 20TX206C LV Star 1300 513.793

1397.84

9 0.93

HPGR Main B Motor

625kW HPGR Main Motor 20CR205B 625 247.0157 672.043 0.93

HPGR Main Motor

625kW HPGR Main Motor 20CR205A 625 247.0157 672.043 0.93

HPGR Master VSD

1300kW 20TX206B LV Delta 1300 513.793

1397.84

9 0.93

HPGR Master VSD

1300kW(1) 20TX206B LV Star 1300 513.793

1397.84

9 0.93

HPGR Rolls Crusher

Drive A (20CR03A) Desands Area 15/20 MCC04A 2650 1572.418

3081.39

6 0.86

HPGR Rolls Crusher

Drive B (20CR03B) Desands Area 15/20 MCC04A 2650 1572.418

3081.39

6 0.86

Lumped Load 63kW PS Services 63 30.51229 70 0.9

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MPGR Follower Motor

A 625kW HPGR Follower Motor 626 247.4109

673.118

2 0.93

MPGR Follower Motor

B 625kW HPGR Follower Motor 2 626 247.4109

673.118

2 0.93

OLC Drive 4 Stockpile

Conv Drive 2000kW 11MCC202B 2000 790.4509

2150.53

8 0.93

Ops Office Load 40A Ops Office 433V 26.9992 13.07632

29.9991

2 0.9

Overland Conveyor

Drive Motors 3x

1000kW 11MCC202A 3000 1185.676

3225.80

6 0.93

RC031 Reclaimer

1350kW RC031 Reclaimer 1350 801.043

1569.76

7 0.86

Secondary Cone

Crusher 750kW Desands Area 15/20 MCC04A 750 296.419

806.451

6 0.93

Secondary Cone

Crusher 750kW 2 Desands Area 15/20 MCC04A 750 296.419

806.451

6 0.93

Staic 24kW Secondary & Tertiray Crushing (20MCC205) 24 11.62373

26.6666

7 0.9

Static 3kW Area 20 MCC03 20CR01/20CR02 3 1.452966

3.33333

3 0.9

Static - 15kW MC901 415V 15 7.264834

16.6666

7 0.9

Static - 230.4kW Secondary & Tertiray Crushing (20MCC205) 230.4 111.5879 256 0.9

Static 140.30kW 12TX204B Scrubbers 140.3 67.95041

155.888

9 0.9

Static 165.9 kW Area 20 MCC03 20CR01/20CR02 165.9 80.34904

184.333

3 0.9

Static 190.60kW 30TX207B LV 190.6 92.31179

211.777

8 0.9

Static 191.93kW Reclaim Tunnel Area (12MCC203) 191.93 92.95594

213.255

6 0.9

Static 230.4kW Secondary & Tertiray Crushing (20MCC205) 230.4 111.5879 256 0.9

Static 254.37kW Secondary & Tertiray Crushing (20MCC205) 254.37 123.197

282.633

3 0.9

Static 30A Load PL4426 Fuel Storage 418V 19.54793 9.467492

21.7199

2 0.9

Static 3kW Area 20 MCC03 20CR01/20CR02 3 1.452966

3.33333

3 0.9

Static 45.3kW 20MCC03 Secondary Crushing (Area 15) 45.3 21.93979

50.3333

3 0.9

Static 45.77kW 30TX207C LV 45.77 22.16743

50.8555

6 0.9

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Static 487.87 kW 11MCC202C OLC MCC Supply 487.87 236.2862

542.077

8 0.9

Static 55kW 30MCC05A 55 26.63772

61.1111

1 0.9

Static 564kW Secondary & Tertiray Crushing (20MCC205) 564 273.1578

626.666

7 0.9

Static 595kW 30MCC05B 595 288.1718

661.111

2 0.9

Static 80.83 kW Jigging 35TX208B LV 80.83 39.14777

89.8111

2 0.9

Static 80.83kW Jigging 35TX208A LV 80.83 39.14777

89.8111

2 0.9

Static 8kW Fuel Unload RCDOS 8 3.874577

8.88888

9 0.9

Static Load - 15kW SK703-TF01 Stacker LV 15 7.264834

16.6666

7 0.9

Static Load 15kW 415V MC801 15 7.264834

16.6666

7 0.9

Static Load 329.45 kW Primary Crushing 10MCC201 329.45 159.5599

366.055

6 0.9

Static Load 34.4kW 30TX207A LV 34.4 16.66068

38.2222

3 0.9

Static Loads - 15kW RC031-MC02 Reclaimer 415V 15 7.264834

16.6666

7 0.9

Telstra Hut Load

25.1kW Telstra Hut Load 25.1 12.15649

27.8888

9 0.9

VSD 1300kW 20TX04C Star LV 1300 513.793

1397.84

9 0.93

VSD 1300kW 20TX04C Delta LV 1300 513.793

1397.84

9 0.93

VSD 1905kW 12TX204B Scrubbers 1905 752.9041

2048.38

7 0.93

VSD 26kW 11MCC202C OLC MCC Supply 26 10.27586

27.9569

9 0.93

VSD Load 1300kW 20TX04B Delta LV 1300 513.793

1397.84

9 0.93

VSD Load 1300kW 20TX04B Star LV 1300 513.793

1397.84

9 0.93

VSD/SS - 60kW Secondary & Tertiray Crushing (20MCC205) 60 23.71351

64.5161

3 0.93

VSD/SS - 60kW Secondary & Tertiray Crushing (20MCC205) 60 23.71351

64.5161

3 0.93

VSD/SS 1140kW 10MCC01 Primary Crushing 1140 450.5569 1225.80 0.93

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7

VSD/SS 1705kW 30MCC05A 1705 673.8591

1833.33

3 0.93

VSD/SS 1951kW 15MCC02B Screening 1951 771.0842

2097.84

9 0.93

VSD/SS 2345kW 30TX207A LV 2345 926.8031

2521.50

5 0.93

VSD/SS 2400kW - 15MCC02A Screening 2400 948.5411

2580.64

5 0.93

VSD/SS 2474kW 15TX204A Scrubbers 2474 977.7869

2660.21

5 0.93

VSD/SS 310kW Area 20 MCC03 20CR01/20CR02 310 122.5199

333.333

3 0.93

VSD/SS 320kW 35TX208C LV 320 126.4721 344.086 0.93

VSD/SS 325kW 30MCC05B 325 128.4482

349.462

4 0.93

VSD/SS 373.8kW 20MCC03 Secondary Crushing (Area 15) 373.8 147.7352

401.935

5 0.93

VSD/SS 528kW Reclaim Tunnel Area (12MCC203) 528 208.6789

567.741

9 0.93

VSD/SS 574kW Secondary & Tertiray Crushing (20MCC205) 574 226.8593

617.204

3 0.93

VSD/SS 60kW Secondary & Tertiray Crushing (20MCC205) 60 23.71351

64.5161

3 0.93

VSD/SS 662 kW Jigging 35TX208B LV 662 261.6391

711.827

9 0.93

VSD/SS 696kW 30TX207B LV 696 275.0769

748.387

1 0.93

VSD/SS 920.55kW RC031-MC02 Reclaimer 415V 920.55 363.8247

989.838

7 0.93

VSD/SS Load 1100kW 30TX207C LV 1100 434.7479

1182.79

6 0.93

VSD/SS Load 580 kW Jigging 35TX208A LV 580 229.2308

623.655

9 0.93

VSD/SS Lump 60kW Area 20 MCC03 20CR01/20CR02 60 23.71351

64.5161

3 0.93

VSD/SS Lump 60kW- Area 20 MCC03 20CR01/20CR02 60 23.71351

64.5161

3 0.93

VSD/SS Lumped

1140kW Primary Crushing 10MCC201 1170 462.4137

1258.06

4 0.93

VVF Lumped 49kW SK703-TF01 Stacker LV 49 19.36604

52.6881

7 0.93

Table 19 VSD, SS & Static Loads Input Data

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PowerFactory Device Data Input

Page 95: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Asynchronous Machines System Stage: Christmas Creek Annex: / 1 Name Type Num- Sn Un cos xm Num. Ilr/In R/X Rs Rr X1s X2s Busbar ber [kVA] [kV] phi [p.u.] Polepair[p.u.] [p.u.] [p.u.] [p.u.] [p.u.] 105.4kW Lu TLO MC801/415V .. 105.4 kW/0 1 131.75 0.41 0.72 1.86 0.100 0.020 108.5kW DO 10MCC01 Primary.. 108.5 kW/0 1 135.63 0.41 0.72 1.86 0.420 0.020 120kW Lump Fuel Unload RCDOS 120 kW/0.4 1 130.00 0.41 0.80 2.36 0.420 0.020 19.5kW Lum MC901/MC901 415V 19.5 kW/0. 1 24.38 0.41 0.80 1.86 0.420 0.020 222kW DOL 15MCC02B Screen.. 222 kW/0.4 1 277.50 0.41 0.80 2.57 0.420 0.020 22kW DOL MCC902/Turkeys .. 22 kW/0.41 1 27.50 0.41 0.80 2.31 0.420 0.030 288.3kW Lu SK703-TF01 Stac.. 288.3 kW/0 1 360.38 0.41 0.72 1.86 0.400 0.020 4kW Motor RC031-MC02 Recl.. 4 kW/0.4 k 1 7.02 0.40 0.73 1.94 4 4.600 0.100 0.030 90kW DOL- 15MCC02A Screen.. 90 kW/0.41 1 112.50 0.41 0.80 2.36 0.420 0.020 94kW Motor PL4426 Fuel Sto.. 94 kW/0.41 1 119.00 0.41 0.80 2.36 0.420 0.020 DOL 163kW Area 20 MCC03 2.. 163 kW/0.4 1 203.75 0.41 0.80 2.57 0.420 0.020 DOL 181kW 30MCC05A 181 kW/0.4 1 226.25 0.41 0.80 2.57 0.420 0.020 DOL 193kW 15TX204A Scrubb.. 118 kW/0.4 1 147.75 0.41 0.80 2.36 0.420 0.020 DOL 44kW Reclaim Tunnel .. 44 kW/0.41 1 56.25 0.41 0.80 2.21 0.420 0.030 DOL 587kW 30MCC05B 587 kW/0.4 1 733.75 0.41 0.80 1.86 0.420 0.020 DOL 74kW Area 20 MCC03 2.. 74 kW/0.41 1 92.50 0.41 0.80 2.45 0.420 0.020 DOL 74kW(1 Area 20 MCC03 2.. 74 kW/0.41 1 92.50 0.41 0.80 2.45 0.420 0.020 DOL Lumped 12TX204B Scrubb.. 225.5 kW/0 1 281.88 0.41 0.80 2.57 0.420 0.020 DOL Wet Si 15MCC02A Screen.. 90 kW/0.41 1 112.50 0.41 0.80 2.36 0.420 0.020 L-DOL 11 30MCC05A 110 kW/0.4 1 137.50 0.41 0.80 1.86 0.420 0.020 L-DOL - Jigging 35TX208.. 150 kW/0.4 1 187.50 0.41 0.80 2.52 0.420 0.020 L-DOL - 1 11MCC202C OLC M.. 150 kW/0.4 1 187.50 0.41 0.80 2.52 0.420 0.020 L-DOL -11 Jigging 35TX208.. 110 kW/0.4 1 137.50 0.41 0.80 1.86 0.420 0.020 L-DOL 110 30TX207B LV 110 kW/0.4 1 137.50 0.41 0.80 1.86 0.420 0.020 L-DOL 150 30MCC05B 150 kW/0.4 1 187.50 0.41 0.80 2.52 0.420 0.020 L-DOL 37k Secondary & Ter.. 37 kW/0.41 1 46.25 0.41 0.80 2.18 0.420 0.030 L-DOL - 37 Secondary & Ter.. 37 kW/0.41 1 46.25 0.41 0.80 2.18 0.420 0.030 L-DOL -132 Secondary & Ter.. 132 kW/0.4 1 165.00 0.41 0.80 2.57 0.420 0.020 L-DOL 110k 30TX207A LV 110 kW/0.4 1 137.50 0.41 0.80 1.86 0.420 0.020 L-DOL 120k 30TX207C LV 120 kW/0.4 1 178.51 0.41 0.80 2.57 0.100 0.020 L-DOL 132k MCC902/Turkeys .. 132 kW/0.4 1 165.00 0.41 0.80 2.57 0.420 0.020 L-DOL 150k 35TX208C LV 150 kW/0.4 1 178.30 0.41 0.88 3.43 2 7.200 0.100 0.020 L-DOL 150k Secondary & Ter.. 150 kW/0.4 1 187.50 0.41 0.80 2.52 0.420 0.020 L-DOL 15kW MC901/MC901 415V 15 kW/0.41 1 21.57 0.41 0.76 2.24 4 6.500 0.100 0.030 L-DOL 22kW Reclaim Tunnel .. 22 kW/0.41 1 28.62 0.41 0.80 2.54 0.420 0.030 L-DOL 250k SK703-TF01 Stac.. 250 kW/0.4 1 297.17 0.41 0.84 3.80 0.100 0.015 L-DOL 30kW Primary Crushin.. 30 kW/0.41 1 38.12 0.41 0.80 2.18 4 7.500 0.100 0.030 L-DOL 30kW Fuel Unload RCDOS 30 kW/0.41 1 38.12 0.41 0.80 2.18 4 7.500 0.100 0.030 L-DOL 37kW Secondary & Ter.. 37 kW/0.41 1 46.25 0.41 0.80 2.18 0.420 0.030 L-DOL 45kW 10MCC01 Primary.. 45 kW/0.41 1 56.25 0.41 0.80 2.21 0.420 0.030 L-DOL 75kW TLO MC801/415V .. 75 kW/0.41 1 97.26 0.41 0.80 2.45 4 6.100 0.100 0.020 L-DOL 90kW 20MCC03 Seconda.. 90 kW/0.41 1 112.50 0.41 0.80 2.36 0.420 0.020 L-DOL 90kW 15TX204A Scrubb.. 90 kW/0.41 1 112.50 0.41 0.80 2.36 0.420 0.020 L-DOL Dust Area 20 MCC03 2.. 132 kW/0.4 1 165.00 0.41 0.80 2.57 0.420 0.020 L-DOL Load PL4426 Fuel Sto.. 30 kW/0.41 1 38.12 0.41 0.80 2.18 4 7.500 0.100 0.030

Page 96: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Asynchronous Machines System Stage: Christmas Creek Annex: / 2 Name Type Num- Sn Un cos xm Num. Ilr/In R/X Rs Rr X1s X2s Busbar ber [kVA] [kV] phi [p.u.] Polepair[p.u.] [p.u.] [p.u.] [p.u.] [p.u.] L-DOL Lube Area 20 MCC03 2.. 150 kW/0.4 1 187.50 0.41 0.80 2.52 0.420 0.020 L-DOL Lube Area 20 MCC03 2.. 150 kW/0.4 1 187.50 0.41 0.80 2.52 0.420 0.020 L-DOL- 90k 12TX204B Scrubb.. 90 kW/0.41 1 112.50 0.41 0.80 2.36 0.420 0.020 L-DOL-90kW 15MCC02B Screen.. 90 kW/0.41 1 116.71 0.41 0.80 2.36 0.100 0.020 Lumped DOL 35TX208C LV 145 kW/0.4 1 181.25 0.41 0.80 2.21 0.420 0.030 Lumped DOL Jigging 35TX208.. 1009kW/0.4 1 1261.25 0.41 0.80 4.81 0.420 0.015 Lumped DOL Primary Crushin.. 177.25 kW/ 1 221.56 0.41 0.80 2.21 0.420 0.030 Lumped DOL 11MCC202C OLC M.. 219.7 kW/0 1 274.63 0.41 0.80 2.21 0.420 0.030 Lumped DOL 30TX207A LV 310.80 kW/ 1 388.50 0.41 0.80 2.57 0.420 0.020 Lumped DOL 30TX207B LV 343.25 kW/ 1 429.06 0.41 0.80 2.57 0.420 0.020 Lumped DOL Secondary & Ter.. 34 kW/0.41 1 42.50 0.41 0.80 2.18 0.420 0.030 Lumped DOL Secondary & Ter.. 45 kW/0.41 1 56.25 0.41 0.80 2.21 0.420 0.030 Lumped DOL 30TX207C LV 489 kW/0.4 1 611.25 0.41 0.80 4.81 0.420 0.015 Lumped DOL Secondary & Ter.. 56 kW/0.41 1 70.00 0.41 0.80 2.21 0.420 0.030 Lumped DOL Secondary & Ter.. 56 kW/0.41 1 70.00 0.41 0.80 2.21 0.420 0.030 Lumped-DOL Jigging 35TX208.. 1599 kW/0. 1 1998.75 0.41 0.80 2.52 0.420 0.020

Page 97: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Lines System Stage: Christmas Creek Annex: / 3 Name From To Type Cross-Sec. Num- R X B Distance In Der. Busbar Busbar [mm*2] ber [Ohm/km] [Ohm/km] [uS/km] [m ] [kA] factor 150mm Cu XLP Tx LV Fuel Unload Fuel Unload RCDOS Olex 0.6/1 0.00 1 0.1240 0.0718 200.000 0.304 1.00 Alternate Fe HV901/Stockyard.. HV902-11kV/Stoc.. Olex 6.35/ 0.00 1 0.0469 0.0950 30.000 0.620 1.00 Bustie 11MCC 11MCC202A 690V 11MCC202B 690V Bus Tie 50 0.00 1 0.0000 0.0000 1.000 5.000 1.00 CCY1-RMU017- RMU017/CCY1 HV TF017-1 19/33kV Al 0.00 1 0.1640 0.1170 300.000 0.284 1.00 CCY1-RMU017- RMU017/CCY1 HV TF017-2 19/33kV Al 0.00 1 0.1640 0.1170 220.000 0.284 1.00 CCY1-RMU017- RMU017/CCY1 HV TF017-3 19/33kV Al 0.00 1 0.1640 0.1170 176.000 0.284 1.00 CCY1-RMU017- RMU017/CCY1 HV TF017-4 19/33kV Al 0.00 1 0.1640 0.1170 308.000 0.284 1.00 Connectin RM RMU-05 RMU-06 Olex 240mm 0.00 1 0.0754 0.1060 1.000 0.330 1.00 FE-04 - PS t HV901/Stockyard.. PowerStation/Po.. Olex 6.35/ 0.00 4 0.0601 0.0904 400.000 0.521 1.00 FE-07 to OPF OPF2 SS/20MCC20.. PowerStation/FE.. Olex 6.35/ 0.00 4 0.0367 0.0920 800.000 0.692 1.00 FE-08 to OPF OPF2 SS/20MCC20.. PowerStation/Po.. Olex 6.35/ 0.00 4 0.0367 0.0920 800.000 0.692 1.00 FE-09 PS to PowerStation/FE.. OHL East TF012 .. Olex 6.35/ 0.00 6 0.0778 0.1010 30.000 0.485 1.00 Feed to Cone 20MCC206B Cone Crushers 3.. Olex 3.8/6 0.00 3 0.2680 0.1090 140.000 0.195 1.00 Feeder 20MCC OPF2 SS/20MCC20.. 12TX203 HV Olex 6.35 0.00 1 0.1930 0.1060 480.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. 15TX204A HV Olex 6.35 0.00 1 0.1930 0.1060 250.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. 12TX204B HV Olex 6.35 0.00 1 0.1930 0.1060 260.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. 20TX205 HV Olex 6.35 0.00 1 0.1930 0.1060 30.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. 20TX206A HV Olex 6.35/ 0.00 1 0.1530 0.1020 30.000 0.276 1.00 Feeder 20MCC OPF2 SS/20MCC20.. HPGR Master 20T.. Olex 6.35 0.00 1 0.1930 0.1060 30.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. HPGR Follower 2.. Olex 6.35 0.00 1 0.1930 0.1060 30.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. Desands 30TX207.. Olex 6.35 0.00 1 0.1930 0.1060 500.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. Desands 30TX207.. Olex 6.35 0.00 1 0.1930 0.1060 500.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. Desands 30TX207.. Olex 6.35 0.00 1 0.1930 0.1060 500.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. Jigging 35TX208.. Olex 6.35 0.00 1 0.1930 0.1060 300.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. Jigging 35TX208.. Olex 6.35 0.00 1 0.1930 0.1060 300.000 0.246 1.00 Feeder 20MCC OPF2 SS/20MCC20.. 35TX208C HV Olex 6.35 0.00 1 0.1930 0.1060 300.000 0.246 1.00 Feeder 20MCC 20MCC206B Tails Pump D 3.. Olex 6.35 0.00 1 0.1930 0.1060 520.000 0.246 1.00 Feeder 20MCC 20MCC206B Tails Pump E 3... Olex 6.35 0.00 1 0.1930 0.1060 525.000 0.246 1.00 Feeder 20TX2 20TX206A LV 20MCC206B Olex 6.35/ 0.00 3 0.1530 0.1020 1.000 0.276 1.00 Feeder Area 20MCC03 Seconda.. Area 20 MCC03 2.. Olex 6.35/ 0.00 6 0.0470 0.0870 200.000 0.534 1.00 Feeder HPGR HPGR Follower D.. HPGR Follower M.. Olex 0.6/1 0.00 4 0.1530 0.0844 20.000 0.287 1.00 Feeder HPGR HPGR Follower S.. HPGR Follower M.. Olex 0.6/1 0.00 4 0.1530 0.0844 20.000 0.287 1.00 Feeder HPGR HPGR Master VSD.. HPGR Main Motor.. Olex 0.6/1 0.00 4 0.1530 0.0844 20.000 0.287 1.00 Feeder HPGR HPGR Master Sta.. HPGR Main Motor.. Olex 0.6/1 0.00 4 0.1530 0.0844 20.000 0.287 1.00 Feeder HV901 HV901/Stockyard.. Plant Output Co.. Olex 6.35/ 0.00 1 0.3870 0.1210 200.000 0.162 1.00 Feeder HV901 HV901/Stockyard.. CV401-EM01/EM02 Olex 6.35/ 0.00 1 0.3870 0.1210 950.000 0.162 1.00 Feeder HV901 HV901/Stockyard.. Reclaimer Conve.. Olex 6.35/ 0.00 2 0.3870 0.1210 80.000 0.162 1.00 Feeder HV901 HV901/Stockyard.. Reclaimer Conve.. Olex 6.35/ 0.00 3 0.0601 0.0904 120.000 0.470 1.00 Feeder HV901 HV901/Stockyard.. Train Loadout C.. Olex 6.35/ 0.00 2 0.3870 0.1210 400.000 0.162 1.00 Feeder HV901 HV901/Stockyard.. RC031 Reclaimer Olex 6.35/ 0.00 1 0.3870 0.1210 600.000 0.162 1.00 Feeder HV901 HV901/Stockyard.. TF801 HV - Trai.. Olex 6.35/ 0.00 1 0.3870 0.1210 500.000 0.162 1.00 Feeder HV901 HV901/Stockyard.. TF901 HV Olex 6.35/ 0.00 1 0.3870 0.1210 20.000 0.162 1.00 Feeder HV902 OPF1/20MCC04 20MCC04 Olex 6.35/ 0.00 4 0.0470 0.0870 500.000 0.534 1.00 Feeder OHL t PL1081 Harridan Hill T.. Krypton Al 0.00 1 0.1890 0.2440 1350.000 0.213 1.00 Feeder PL100 TF004 HV PL10062 Krypton Al 0.00 1 0.1890 0.2440 10.000 0.213 1.00

Page 98: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Lines System Stage: Christmas Creek Annex: / 4 Name From To Type Cross-Sec. Num- R X B Distance In Der. Busbar Busbar [mm*2] ber [Ohm/km] [Ohm/km] [uS/km] [m ] [kA] factor Feeder PL100 PL1075 PL10062 Krypton Al 0.00 1 0.1890 0.2440 1750.000 0.213 1.00 Feeder PL107 PL1075 PL1081 Krypton Al 0.00 1 0.1890 0.2440 2200.000 0.213 1.00 Feeder PL107 PL1075 Construction Ca.. Banana 33k 0.00 1 0.4330 0.2710 3500.000 0.129 1.00 Feeder PL108 PL1081 Kandama Village.. Krypton Al 0.00 1 0.1890 0.2440 930.000 0.213 1.00 Feeder PL400 PL4004 OLC A REC031 OLC 19/33kV 70 0.00 1 0.2680 0.1390 350.000 0.213 1.00 Feeder PL400 PL4005 OLC B REC032 OLC 19/33kV 70 0.00 1 0.2680 0.1390 350.000 0.213 1.00 Feeder PL400 PL4008 PL4017 Krypton Al 0.00 1 0.1890 0.2440 100.000 0.213 1.00 Feeder PL401 PL4017 RMU017/CCY1 Krypton Al 0.00 1 0.1890 0.2440 1400.000 0.213 1.00 Feeder PL500 PL5005 TF033 HV 19/33kV 70 0.00 1 0.2680 0.1390 300.000 0.213 1.00 Feeder PL502 PL5028 TF034 HV 19/33kV 70 0.00 1 0.2680 0.1390 300.000 0.213 1.00 Feeder PL504 PL5043 TF035 HV 19/33kV 70 0.00 1 0.2680 0.1390 300.000 0.213 1.00 Feeder PS to PowerStation/Po.. OHL West TF001 .. Olex 6.35/ 0.00 3 0.0367 0.0920 30.000 0.692 1.00 Feeder REC03 REC037 10TX201 HV Olex 19/33 0.00 1 0.6410 0.1470 200.000 0.135 1.00 Feeder RMU-0 RMU-02 RMU-01 Olex 6.35/ 0.00 1 0.1530 0.1020 100.000 0.276 1.00 Feeder RMU-0 RMU-03 RMU-02 Olex 6.35/ 0.00 1 0.1530 0.1020 100.000 0.276 1.00 Feeder RMU-0 RMU-04 RMU-03 Olex 6.35/ 0.00 1 0.1530 0.1020 100.000 0.276 1.00 Feeder RMU00 RMU001/Power St.. Gatehouse RMU Banana 33k 0.00 1 0.4330 0.2710 2000.000 0.129 1.00 Feeder RMU00 RMU010 Power St.. RMU001/Power St.. Olex 19/33 0.00 1 0.0991 0.1160 10.000 0.366 1.00 Feeder RMU01 PL4004 OLC A PL4003 33kV Krypton Al 0.00 1 0.1890 0.2440 8000.000 0.213 1.00 Feeder RMU01 RMU012/SUB012 Construction Ca.. Olex 19/33 0.00 1 0.1640 0.1170 10.000 0.270 1.00 Feeder TF001 PL10XX (Fuel Un.. PL10062 Krypton Al 0.00 1 0.1890 0.2440 2000.000 0.213 1.00 Feeder TF001 RMU001/Power St.. PL10XX (Fuel Un.. Krypton Al 0.00 1 0.1890 0.2440 4150.000 0.213 1.00 Feeder TF004 SWB004/Switchro.. Telstra Hut/Tel.. Olex 0.6/1 0.00 4 0.1530 0.0844 7.000 0.287 1.00 Feeder TF801 TF801 LV - Trai.. TLO MC801/415V .. Olex 0.6/1 0.00 4 0.0384 0.0820 40.000 0.880 1.00 Feeder from PL10XX (Fuel Un.. Tx HV Fuel Unload Krypton Al 0.00 1 0.1890 0.2440 10.000 0.213 1.00 Feeder from RMU-06 RMU-04 Olex 240mm 0.00 3 0.0754 0.1060 320.000 0.330 1.00 Feeder to OL 11TX202A LV 11MCC202A 690V 0.6/1kV 6 0.00 6 0.0283 0.0787 100.000 0.950 1.00 Feeder to OL 11TX202B LV 11MCC202B 690V 0.6/1kV 6 0.00 6 0.0283 0.0787 100.000 0.950 1.00 Feeder to SK HV901/Stockyard.. SK703-TF01 TX HV Olex 6.35/ 0.00 1 0.3870 0.1210 550.000 0.162 1.00 MCC902-P-01 Sub018/Kiosk Su.. MCC902/Turkeys .. Olex 0.6/1 0.00 3 0.0486 0.0802 300.000 0.710 1.00 MCC902-P-02 Sub018/Kiosk Su.. EPCM Office Olex 6.35/ 0.00 3 0.0470 0.0870 300.000 0.534 1.00 MCC902-P-03 Sub018/Kiosk Su.. Laboratory Olex 6.35/ 0.00 3 0.0470 0.0870 300.000 0.534 1.00 OHL PL4001 t PL4001 REC001 PL4003 33kV Krypton Al 0.00 1 0.1890 0.2440 2500.000 0.213 1.00 OHL PL4004 t PL4004 OLC A PL4005 OLC B Krypton Al 0.00 1 0.1890 0.2440 20.000 0.213 1.00 OHL PL4005 t PL4005 OLC B PL4007 Krypton Al 0.00 1 0.1890 0.2440 1000.000 0.213 1.00 OHL PL4007 t PL4008 PL4007 Banana 33k 0.00 1 0.4330 0.2710 1000.000 0.129 1.00 OHL PL4007 t PL4007 PL5005 Krypton Al 0.00 1 0.1890 0.2440 1000.000 0.213 1.00 OHL PL4008 t PL4008 Ops Office 33kV Banana 33k 0.00 1 0.4330 0.2710 100.000 0.129 1.00 OHL PL5005 t PL5005 PL5028 Krypton Al 0.00 1 0.1890 0.2440 1000.000 0.213 1.00 OHL PL5028 t PL5028 PL5043 Krypton Al 0.00 1 0.1890 0.2440 1000.000 0.213 1.00 OHL PL5043 t PL5043 PL5059 Krypton Al 0.00 1 0.1890 0.2440 1000.000 0.213 1.00 OPF1 Incomer OPF1/20MCC04 HV902-11kV/Stoc.. Olex 6.35/ 0.00 4 0.0469 0.0950 100.000 0.620 1.00 PL4001-P1 U/ RMU010 Power St.. PL4001 REC001 Olex 19/33 0.00 1 0.1640 0.1170 100.000 0.270 1.00 PL5059 to RE PL5059 REC037 Krypton Al 0.00 1 0.1890 0.2440 1000.000 0.213 1.00 Power Statio HV902-11kV/Stoc.. PowerStation/Po.. Olex 6.35/ 0.00 4 0.0469 0.0950 520.000 0.620 1.00

Page 99: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Lines System Stage: Christmas Creek Annex: / 5 Name From To Type Cross-Sec. Num- R X B Distance In Der. Busbar Busbar [mm*2] ber [Ohm/km] [Ohm/km] [uS/km] [m ] [kA] factor SB004 to Tel Telstra Hut/Tel.. THLoad/Telstra .. Olex 0.6/1 0.00 1 0.3870 0.0751 200.000 0.155 1.00

Page 100: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Loads System Stage: Christmas Creek Annex: / 6 Out S P No of P Q Voltage System of Name Busbar Service Type Q cosphi [p.u.] Type Phases Conn. 105.3kW Loa EPCM Office No 105.30 kW 0.90 1.00 12kW Static 15MCC02A Screening No 12.00 kW 0.90 1.00 130kW Stati 10MCC01 Primary Cru.. No 130.00 kW 0.90 1.00 53.2kW Stat 15MCC02B Screening No 53.20 kW 0.90 1.00 5kW Static MCC902/Turkeys Nest No 5.00 kW 0.90 1.00 CC Load 2 4 LV SUB012 No 450.00 kW 0.90 1.00 CC Load 450 LV DB Construction .. No 450.00 kW 0.90 1.00 CV201-EM01 Plant Output Convey.. No 750.00 kVA 0.80 1.00 CV401-EM01/ CV401-EM01/EM02 No 2000.00 kW 0.93 1.00 CV601-EM01/ Reclaimer Conveyors No 2000.00 kW 0.90 1.00 CV701-EM01/ Reclaimer Conveyors.. No 1000.00 kW 0.80 1.00 CV801-EM01/ Train Loadout Conve.. No 2000.00 kW 0.93 1.00 Cone Crushe Cone Crushers 3.3kV No 2250.00 kW 0.93 1.00 HPGR Follow 20TX206C LV Delta No 1300.00 kW 0.93 1.00 HPGR Follow 20TX206C LV Star No 1300.00 kW 0.93 1.00 HPGR Main B HPGR Main Motor 20C.. No 625.00 kW 0.93 1.00 HPGR Main M HPGR Main Motor 20C.. No 625.00 kW 0.93 1.00 HPGR Master 20TX206B LV Delta No 1300.00 kW 0.93 1.00 HPGR Master 20TX206B LV Star No 1300.00 kW 0.93 1.00 HPGR Rolls Desands Area 15/20 .. No 2650.00 kW 0.86 1.00 HPGR Rolls Desands Area 15/20 .. No 2650.00 kW 0.86 1.00 Lumped Load PS Services No 63.00 kW 0.90 1.00 MPGR Follow HPGR Follower Motor No 626.00 kW 0.93 1.00 MPGR Follow HPGR Follower Motor 2 No 626.00 kW 0.93 1.00 OLC Drive 4 11MCC202B 690V No 2000.00 kW 0.93 1.00 Ops Office Ops Office 415V No 0.90 1.00 Overland Co 11MCC202A 690V No 3000.00 kW 0.93 1.00 RC031 Recla RC031 Reclaimer No 1350.00 kW 0.86 1.00 Secondary C Desands Area 15/20 .. No 750.00 kW 0.93 1.00 Secondary C Desands Area 15/20 .. No 750.00 kW 0.93 1.00 Staic 24kW Secondary & Tertira.. No 24.00 kW 0.90 1.00 Static 3kW Area 20 MCC03 20CR0.. No 3.00 kW 0.90 1.00 Static - 15 MC901/MC901 415V No 15.00 kW 0.90 1.00 Static - 23 Secondary & Tertira.. No 230.40 kW 0.90 1.00 Static 140. 12TX204B Scrubbers No 140.30 kW 0.90 1.00 Static 165. Area 20 MCC03 20CR0.. No 165.90 kW 0.90 1.00 Static 190. 30TX207B LV No 190.60 kW 0.90 1.00 Static 191. Reclaim Tunnel Area.. No 191.93 kW 0.90 1.00 Static 230. Secondary & Tertira.. No 230.40 kW 0.90 1.00 Static 254. Secondary & Tertira.. No 254.37 kW 0.90 1.00 Static 30A PL4426 Fuel Storage.. No 0.90 1.00 Static 3kW Area 20 MCC03 20CR0.. No 3.00 kW 0.90 1.00 Static 45.3 20MCC03 Secondary C.. No 45.30 kW 0.90 1.00 Static 45.7 30TX207C LV No 45.77 kW 0.90 1.00

Page 101: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Loads System Stage: Christmas Creek Annex: / 7 Out S P No of P Q Voltage System of Name Busbar Service Type Q cosphi [p.u.] Type Phases Conn. Static 487. 11MCC202C OLC MCC S.. No 487.87 kW 0.90 1.00 Static 55kW 30MCC05A No 55.00 kW 0.90 1.00 Static 564k Secondary & Tertira.. No 564.00 kW 0.90 1.00 Static 595k 30MCC05B No 595.00 kW 0.90 1.00 Static 80.8 Jigging 35TX208B LV No 80.83 kW 0.90 1.00 Static 80.8 Jigging 35TX208A LV No 80.83 kW 0.90 1.00 Static 8kW Fuel Unload RCDOS No 8.00 kW 0.90 1.00 Static Load SK703-TF01 Stacker LV No 15.00 kW 0.90 1.00 Static Load TLO MC801/415V MC801 No 15.00 kW 0.90 1.00 Static Load Primary Crushing 10.. No 329.45 kW 0.90 1.00 Static Load 30TX207A LV No 34.40 kW 0.90 1.00 Static Load RC031-MC02 Reclaime.. No 15.00 kW 0.90 1.00 Telstra Hut THLoad/Telstra Hut .. No 25.10 kW 0.90 1.00 VSD 1300kW 20TX04C Star LV No 1300.00 kW 0.93 1.00 VSD 1300kW 20TX04C Delta LV No 1300.00 kW 0.93 1.00 VSD 1905kW 12TX204B Scrubbers No 1905.00 kW 0.93 1.00 VSD 26kW 11MCC202C OLC MCC S.. No 26.00 kW 0.93 1.00 VSD Load 1 20TX04B Delta LV No 1300.00 kW 0.93 1.00 VSD Load 13 20TX04B Star LV No 1300.00 kW 0.93 1.00 VSD/SS - 6 Secondary & Tertira.. No 60.00 kW 0.93 1.00 VSD/SS - 60 Secondary & Tertira.. No 60.00 kW 0.93 1.00 VSD/SS 1140 10MCC01 Primary Cru.. No 1140.00 kW 0.93 1.00 VSD/SS 1705 30MCC05A No 1705.00 kW 0.93 1.00 VSD/SS 1951 15MCC02B Screening No 1951.00 kW 0.93 1.00 VSD/SS 2345 30TX207A LV No 2345.00 kW 0.93 1.00 VSD/SS 2400 15MCC02A Screening No 2400.00 kW 0.93 1.00 VSD/SS 2474 15TX204A Scrubbers No 2474.00 kW 0.93 1.00 VSD/SS 310k Area 20 MCC03 20CR0.. No 310.00 kW 0.93 1.00 VSD/SS 320k 35TX208C LV No 320.00 kW 0.93 1.00 VSD/SS 325k 30MCC05B No 325.00 kW 0.93 1.00 VSD/SS 373. 20MCC03 Secondary C.. No 373.80 kW 0.93 1.00 VSD/SS 528k Reclaim Tunnel Area.. No 528.00 kW 0.93 1.00 VSD/SS 574k Secondary & Tertira.. No 574.00 kW 0.93 1.00 VSD/SS 60kW Secondary & Tertira.. No 60.00 kW 0.93 1.00 VSD/SS 662 Jigging 35TX208B LV No 662.00 kW 0.93 1.00 VSD/SS 696k 30TX207B LV No 696.00 kW 0.93 1.00 VSD/SS 920. RC031-MC02 Reclaime.. No 920.55 kW 0.93 1.00 VSD/SS Load 30TX207C LV No 1100.00 kW 0.93 1.00 VSD/SS Load Jigging 35TX208A LV No 580.00 kW 0.93 1.00 VSD/SS Lump Area 20 MCC03 20CR0.. No 60.00 kW 0.93 1.00 VSD/SS Lump Area 20 MCC03 20CR0.. No 60.00 kW 0.93 1.00 VSD/SS Lump Primary Crushing 10.. No 1170.00 kW 0.93 1.00 VVF Lumped SK703-TF01 Stacker LV No 49.00 kW 0.93 1.00

Page 102: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Synchronous Machines System Stage: Christmas Creek Annex: / 8 Name Type Num- Sn Un cos xd" xd"sat. R2 x2 R0 x0 Re xe Busbar ber [MVA] [kV] phi [p.u.] [p.u.] [p.u.] [p.u.] [p.u.] [p.u.] [Ohm ] [Ohm ] Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/Po.. Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000 Generator PowerStation/28 Cummins QS 1 3.26 11.00 0.80 0.16 0.16 0.000 0.212 0.000 0.035 0.000 0.000

Page 103: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Terminals System Stage: Christmas Creek Annex: / 9 Name Inside Type Un System No. of Ithlim Iplim Line [kV] Type Phases [kA] [kA] 10MCC01 Primary Crus 0.43 AC 3 10TX201 HV 33.00 AC 3 11MCC202A 690V 690V 5000A 80kA 1s 0.69 AC 3 80.00 0.00 11MCC202B 690V 690V 5000A 80kA 1s 0.69 AC 3 80.00 0.00 11MCC202C OLC MCC Su 415V 2000A 65kA 1s 0.41 AC 3 65.00 0.00 11TX202A LV 0.69 AC 3 11TX202B LV 0.69 AC 3 12TX203 HV 11.00 AC 3 12TX204B HV 11.00 AC 3 12TX204B Scrubbers 415V 80kA 1s 0.43 AC 3 80.00 0.00 15MCC02A Screening 0.43 AC 3 15MCC02B Screening 0.43 AC 3 15TX204A HV 11.00 AC 3 15TX204A Scrubbers 415V 80kA 1s 0.43 AC 3 80.00 0.00 20MCC03 Secondary Cr 0.41 AC 3 20MCC04 11kV 25kA 3s 11.00 AC 3 25.00 0.00 20MCC206B 3.3kV 25kA 1s 3.30 AC 3 0.00 0.00 20TX04B Delta LV 1.90 AC 3 20TX04B Star LV 1.90 AC 3 20TX04C Delta LV 1.90 AC 3 20TX04C Star LV 1.90 AC 3 20TX205 HV 11.00 AC 3 20TX206A HV 11.00 AC 3 20TX206A LV 3.30 AC 3 20TX206B LV Delta 1.90 AC 3 20TX206B LV Star 1.90 AC 3 20TX206C LV Delta 1.90 AC 3 20TX206C LV Star 1.90 AC 3 30MCC05A 0.43 AC 3 30MCC05B 0.43 AC 3 30TX207A LV 415V 65kA 1s 0.41 AC 3 65.00 0.00 30TX207B LV 415V 65kA 1s 0.43 AC 3 65.00 0.00 30TX207C LV 415V 65kA 1s 0.43 AC 3 65.00 0.00 35TX208C HV 11.00 AC 3 35TX208C LV 415V 80kA 1s 0.43 AC 3 80.00 0.00 Area 20 MCC03 20CR01 0.41 AC 3 CV401-EM01/EM02 11kV Bus 40kA 11.00 AC 3 40.00 0.00 Cone Crushers 3.3kV 3.30 AC 3 Construction Camp RM 33kV 16kA 1s 33.00 AC 3 16.00 0.00 Desands 30TX207A HV 11.00 AC 3 Desands 30TX207B HV 11.00 AC 3 Desands 30TX207C HV 11.00 AC 3 Desands Area 15/20 M 3.30 AC 3 EPCM Office 0.41 AC 3 Fuel Unload RCDOS 415V 10kA 1s 0.41 AC 3 10.00 0.00

Page 104: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Terminals System Stage: Christmas Creek Annex: / 10 Name Inside Type Un System No. of Ithlim Iplim Line [kV] Type Phases [kA] [kA] Gatehouse RMU 33.00 AC 3 Gatehouse TX LV 0.43 AC 3 HPGR Follower 20TX20 11.00 AC 3 HPGR Follower Delta 0.69 AC 3 HPGR Follower Motor 0.69 AC 3 HPGR Follower Motor 0.69 AC 3 HPGR Follower Star 2 0.69 AC 3 HPGR Main Motor 20CR 0.69 AC 3 HPGR Main Motor 20CR 0.69 AC 3 HPGR Master 20TX206B 11.00 AC 3 HPGR Master Star 20T 0.69 AC 3 HPGR Master VSD 20TX 0.69 AC 3 HV TF017-1 33.00 AC 3 HV TF017-2 33.00 AC 3 HV TF017-3 33.00 AC 3 HV TF017-4 33.00 AC 3 Harridan Hill Tower 33.00 AC 3 Harridan Hill Tower 0.41 AC 3 Jigging 35TX208A HV 11.00 AC 3 Jigging 35TX208A LV 415V 80kA 1s 0.43 AC 3 80.00 0.00 Jigging 35TX208B HV 11.00 AC 3 Jigging 35TX208B LV 415V 80kA 1s 0.43 AC 3 80.00 0.00 Kandama Village RMU 33kV 16kA 1s 33.00 AC 3 16.00 0.00 LV DB Construction C 0.41 AC 3 LV SUB012 0.41 AC 3 LV TF017-1 Admin Com 0.43 AC 3 LV TF017-2 Ancillary 0.43 AC 3 LV TF017-3 HV W/Shop 0.43 AC 3 LV TF017-4 Gulf W/Sh 0.43 AC 3 Laboratory 0.41 AC 3 OHL East TF012 LV 11 11.00 AC 3 OHL West TF001 LV 11 11.00 AC 3 Ops Office 33kV 33.00 AC 3 Ops Office 415V 0.41 AC 3 PL10062 33.00 AC 3 PL1075 33.00 AC 3 PL1081 33.00 AC 3 PL10XX (Fuel Unload) 33.00 AC 3 PL4001 REC001 33.00 AC 3 PL4003 33kV 33.00 AC 3 PL4004 OLC A 33.00 AC 3 PL4005 OLC B 33.00 AC 3 PL4007 33.00 AC 3 PL4008 33.00 AC 3 PL4017 33.00 AC 3

Page 105: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Terminals System Stage: Christmas Creek Annex: / 11 Name Inside Type Un System No. of Ithlim Iplim Line [kV] Type Phases [kA] [kA] PL4426 Fuel Storage 415V 25kA 1s 0.42 AC 3 25.00 0.00 PL5005 33.00 AC 3 PL5028 33.00 AC 3 PL5043 33.00 AC 3 PL5059 33.00 AC 3 PS Services 0.43 AC 3 Plant Output Conveyo 11kV Bus 40kA 11.00 AC 3 40.00 0.00 Primary Crushing 10M 415V 2000A 65kA 1s 0.41 AC 3 65.00 0.00 RC031 Reclaimer 11.00 AC 3 RC031-MC02 Reclaimer 415V 50kA 1s 0.41 AC 3 50.00 0.00 REC031 OLC 33.00 AC 3 REC032 OLC 33.00 AC 3 REC037 33.00 AC 3 RMU-01 11.00 AC 3 RMU-02 11.00 AC 3 RMU-03 11.00 AC 3 RMU-04 11.00 AC 3 RMU-05 11.00 AC 3 RMU-06 11.00 AC 3 RMU010 Power Station 33kV 16kA 1s 33.00 AC 3 16.00 0.00 RMU012/SUB012 33kV 16kA 1s 33.00 AC 3 16.00 0.00 Reclaim Tunnel Area 415V 65kA 1s 0.43 AC 3 65.00 0.00 Reclaimer Conveyors 11.00 AC 3 Reclaimer Conveyors 11kV Bus 40kA 11.00 AC 3 40.00 0.00 SK703-TF01 Stacker L 0.43 AC 3 SK703-TF01 TX HV 11.00 AC 3 Secondary & Tertiray 415V 65kA 1s 0.43 AC 3 65.00 0.00 TF004 HV 33.00 AC 3 TF033 HV 33.00 AC 3 TF033 LV 0.43 AC 3 TF034 HV 33.00 AC 3 TF034 LV 0.43 AC 3 TF035 HV 33.00 AC 3 TF035 LV 0.41 AC 3 TF801 HV - Train Loa 11kV Bus 40kA 11.00 AC 3 40.00 0.00 TF801 LV - Train Loa 415V 50kA 1s 0.41 AC 3 50.00 0.00 TF901 HV 11.00 AC 3 TX-001 LV 0.41 AC 3 TX-002 LV 0.41 AC 3 TX-003 LV 0.41 AC 3 Tails Pump D 3.3kV 3.30 AC 3 Tails Pump E 3.3kV 3.30 AC 3 Train Loadout Convey 11.00 AC 3 Tx HV Fuel Unload 33.00 AC 3 Tx LV Fuel Unload 0.41 AC 3

Page 106: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: Terminals System Stage: Christmas Creek Annex: / 12 Name Inside Type Un System No. of Ithlim Iplim Line [kV] Type Phases [kA] [kA] Waste Water Treatmen 0.41 AC 3

Page 107: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek Study Case: Study Case Equipment: 2-Winding Transformers System Stage: Christmas Creek Annex: / 13 Name From To Type Num- Sn HV-Side LV-Side Uk Pcu Io Voltage/Tap Busbar Busbar ber [MVA] [kV] [kV] [%] [kW] [%] [%] [deg] 08TF002 33/1 Kandama Villag.. RMU-05 Kandama Vi 1 5.000 33.00 11.50 5.00 1.500 2.50 180.0 10TX01 11/0. 20MCC04 10MCC01 Primar.. 11/0.43kV 1 2.750 11.00 0.43 6.33 0.000 2.50 180.0 10TX201 33/0 10TX201 HV Primary Crushi.. RCH 33/0.4 1 2.750 33.00 0.43 7.69 0.000 2.50 180.0 11TX202A 33/ REC031 OLC 11TX202A LV 3/0.7kV 55 1 5.500 33.00 0.70 6.00 0.000 2.50 180.0 11TX202B 33/ REC032 OLC 11TX202B LV 3/0.7kV 55 1 5.500 33.00 0.70 6.00 0.000 2.50 180.0 11TX202C 700 11MCC202B 690V 11MCC202C OLC .. 11TX202C 7 1 1.250 0.70 0.43 11.50 0.000 2.50 180.0 12TX203 11/0 12TX203 HV Reclaim Tunnel.. 12TX203 11 1 2.000 11.00 0.43 5.75 0.000 2.50 180.0 12TX204B 11/ 12TX204B HV 12TX204B Scrub.. 12TX204B 1 1 3.000 11.00 0.43 7.25 0.000 2.50 180.0 15TX02A 11/0 20MCC04 15MCC02A Scree.. 11/0.433kV 1 3.000 11.00 0.43 7.20 0.000 2.50 180.0 15TX204A 11/ 15TX204A HV 15TX204A Scrub.. 15TX204A 1 1 3.000 11.00 0.43 7.50 0.000 2.50 180.0 15Tx02B 11/0 20MCC04 15MCC02B Scree.. 11/0.433kV 1 3.000 11.00 0.43 7.20 0.000 2.50 180.0 20TX04A 11/3 20MCC04 Desands Area 1.. 11/3.3kV 3 1 3.000 11.00 3.30 6.50 0.000 2.50 180.0 20TX205 11/0 20TX205 HV Secondary & Te.. 20TX205 11 1 3.500 11.00 0.43 7.50 0.000 2.50 180.0 20TX206A 11/ 20TX206A HV 20TX206A LV 20TX206A 1 1 4.500 11.00 3.30 7.50 0.000 2.50 180.0 20Tx03 3500k 20MCC04 20MCC03 Second.. 11/0.433kV 1 3.500 11.00 0.43 6.40 0.000 2.50 180.0 30TX05A 11/0 20MCC04 30MCC05A 11/0.433kV 1 3.500 11.00 0.43 7.45 0.000 2.50 180.0 30TX05B 11/0 20MCC04 30MCC05B 11/0.433kV 1 3.000 11.00 0.43 7.20 0.000 2.50 180.0 30TX207A 11/ Desands 30TX20.. 30TX207A LV 30TX207A 1 1 3.500 11.00 0.43 6.25 0.000 2.50 180.0 30TX207B 11/ Desands 30TX20.. 30TX207B LV 30TX207B 1 1 3.000 11.00 0.43 7.25 0.000 2.50 180.0 30TX207C 11/ Desands 30TX20.. 30TX207C LV 11/0.433kV 1 2.500 11.00 0.43 6.25 0.000 2.50 180.0 35TX208A 11/ Jigging 35TX20.. Jigging 35TX20.. 11/0.433kV 1 2.500 11.00 0.43 6.25 0.000 2.50 180.0 35TX208B 11/ Jigging 35TX20.. Jigging 35TX20.. 11/0.433kV 1 3.000 11.00 0.43 6.25 0.000 2.50 180.0 35TX208C 11/ 35TX208C HV 35TX208C LV 11/0.433 1 1 1.500 11.00 0.43 5.00 0.000 2.50 180.0 Fuel Unload Tx HV Fuel Unl.. Tx LV Fuel Unl.. EPE 33/0.4 1 0.200 33.00 0.43 4.00 1.929 2.50 180.0 Gatehouse 33 Gatehouse RMU Gatehouse TX LV EPE 33/0.4 1 1.000 33.00 0.43 4.00 1.929 2.50 180.0 Harridan Hil Harridan Hill .. Harridan Hill .. EPE 33/0.4 1 0.100 33.00 0.43 4.00 1.886 2.50 180.0 Ops Office 3 Ops Office 33kV Ops Office 415V EPE 33/0.4 1 0.200 33.00 0.43 4.00 1.929 2.50 180.0 RC031-TF01 1 RC031 Reclaimer RC031-MC02 Rec.. 11/0.415kV 1 1.000 11.00 0.41 4.00 0.000 2.50 180.0 SK703-TF01 1 SK703-TF01 TX HV SK703-TF01 Sta.. 11/433V 1M 1 1.000 11.00 0.43 4.00 0.000 2.50 180.0 TF001 11/33k RMU001/Power S.. OHL West TF001.. 11/33kV St 1 10.000 33.00 11.00 5.00 0.140 2.50 180.0 TF004 100kvA TF004 HV SWB004/Switchr.. EPE 33/0.4 1 0.100 33.00 0.43 4.00 1.886 2.50 180.0 TF005 11/0.4 PowerStation/P.. PS Services QTC 11/0.4 1 1.000 11.00 0.43 5.00 1.183 2.50 180.0 TF008 11/0.4 OPF1/20MCC04 Sub018/Kiosk S.. QTC 11/0.4 1 1.000 11.00 0.43 5.00 1.183 2.50 180.0 TF011 33/0.4 Construction C.. LV DB Construc.. 33/0.418kV 1 1.500 33.00 0.42 3.00 0.000 2.50 180.0 TF012 11/33k RMU010 Power S.. OHL East TF012.. 11/33kV St 1 10.000 33.00 11.00 5.00 0.140 2.50 180.0 TF012 33/0.4 RMU012/SUB012 LV SUB012 33/0.418kV 1 1.500 33.00 0.42 3.00 0.000 2.50 180.0 TF017-1 33/0 HV TF017-1 LV TF017-1 Adm.. EPE 33/0.4 1 0.630 33.00 0.43 4.00 1.929 2.50 180.0 TF017-2 33/0 HV TF017-2 LV TF017-2 Anc.. EPE 33/0.4 1 0.630 33.00 0.43 4.00 1.929 2.50 180.0 TF017-3 33/0 HV TF017-3 LV TF017-3 HV .. EPE 33/0.4 1 1.000 33.00 0.43 4.00 1.929 2.50 180.0 TF017-4 33/0 HV TF017-4 LV TF017-4 Gul.. EPE 33/0.4 1 0.630 33.00 0.43 4.00 1.929 2.50 180.0 TF033 33/0.4 TF033 HV TF033 LV Tusco 33/0 1 2.000 33.00 0.43 5.75 1.910 2.50 180.0 TF034 33/0.4 TF034 HV TF034 LV Tusco 33/0 1 2.000 33.00 0.43 5.75 1.910 2.50 180.0 TF035 33/0.4 TF035 HV TF035 LV Tusco 33/0 1 2.000 33.00 0.43 5.75 1.910 2.50 180.0 TF042 33/0.4 PL4003 33kV PL4426 Fuel St.. EPE 33/0.4 1 0.200 33.00 0.43 4.00 1.929 2.50 180.0 TF801 - Trai TF801 HV - Tra.. TF801 LV - Tra.. 11/433kV 5 1 0.500 11.00 0.43 5.20 0.000 2.50 180.0

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Grid: Christmas Creek Study Case: Study Case Equipment: 2-Winding Transformers System Stage: Christmas Creek Annex: / 14 Name From To Type Num- Sn HV-Side LV-Side Uk Pcu Io Voltage/Tap Busbar Busbar ber [MVA] [kV] [kV] [%] [kW] [%] [%] [deg] TF901 11/0.4 TF901 HV MC901/MC901 415V 11/433kV 5 1 0.500 11.00 0.43 5.20 0.000 2.50 180.0 Tx-001 11/0. RMU-01 TX-001 LV Kandama Vi 1 1.000 11.00 0.41 5.40 0.330 2.50 0.0 Tx-002 11/0. RMU-02 TX-002 LV Kandama Vi 1 1.000 11.00 0.41 5.40 0.330 2.50 0.0 Tx-003 11/0. RMU-03 TX-003 LV Kandama Vi 1 1.000 11.00 0.41 5.40 0.330 2.50 0.0 Tx-004 11/0. RMU-04 Waste Water Tr.. WWTP - 11 1 1.000 11.00 0.41 5.40 0.330 2.50 180.0

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Grid: Christmas Creek Study Case: Study Case Equipment: 3-Winding Transformers System Stage: Christmas Creek Annex: / 15 Name Type Num- Sn Un Uk Pcu Io Voltage/Tap Busbar ber [kVA] [kV] [%] [kW] [%] [%] [deg] 20TX04B 11/1 HV-Side 20MCC04 11/1.95/1.95 1 3900.00 11.00 7.65 1.00 2.00 180.0 MV-Side 20TX04B Delta LV 1950.00 1.90 7.65 0.00 0.0 LV-Side 20TX04B Star LV 1950.00 1.90 7.65 0.00 0.0 20TX04C 11/1 HV-Side 20MCC04 11/1.95/1.95 1 3900.00 11.00 7.65 1.00 2.00 180.0 MV-Side 20TX04C Delta LV 1950.00 1.90 7.65 0.00 0.0 LV-Side 20TX04C Star LV 1950.00 1.90 7.65 0.00 0.0 20TX206B 11/ HV-Side HPGR Master 20TX2.. 11/1.905/1.9 1 3500.00 11.00 7.50 0.00 2.00 180.0 MV-Side 20TX206B LV Delta 1750.00 1.90 7.50 2.00 180.0 LV-Side 20TX206B LV Star 1750.00 1.90 7.50 2.00 180.0 20TX206C 1kv HV-Side HPGR Follower 20T.. 11/1.905/1.9 1 3500.00 11.00 7.50 0.00 2.00 180.0 MV-Side 20TX206C LV Delta 1750.00 1.90 7.50 2.00 180.0 LV-Side 20TX206C LV Star 1750.00 1.90 7.50 2.00 180.0 20TX207D 3.3 HV-Side Tails Pump D 3.3kV 3.3kV/2x690V 1 1600.00 3.30 3.00 0.00 2.50 180.0 MV-Side HPGR Master VSD 2.. 800.00 0.69 3.00 2.50 180.0 LV-Side HPGR Master Star .. 800.00 0.69 3.00 2.50 180.0 20TX207E 3.3 HV-Side Tails Pump E 3.3kV 3.3kV/2x690V 1 1600.00 3.30 3.00 0.00 2.50 180.0 MV-Side HPGR Follower Del.. 800.00 0.69 3.00 2.50 180.0 LV-Side HPGR Follower Sta.. 800.00 0.69 3.00 2.50 180.0

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Appendix B Assumption Breakdown

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YES CompleteBreak Down of Sections Line Transformer Load NO Need Data Power Station YES NA NA NA Not Applicable Power Station Services YES YES YES Power Station Earthing Transformer (Zig Zag) YES YES YES 33kV Overhead Line YES NA NA RMU001 Power Station YES YES NA Fuel Unload RCDOS YES YES YES Harridan Hill Tower YES NO NO Telstra Hut YES YES YES Construction Camp NO NO YES RMU010 Power Station YES YES NA Operations Office NO YES YES Bulk Diesel Fuel Storage BDFS NO NO YES OLC (Overland Conveyor) YES NA NA 11MCC202A YES NO YES 11MCC202B YES NO YES Motor Control Centre MCC Supply YES NO YES Remote Crushing Hub YES NA NA TF033 NO NO NO TF034 NO NO NO TF035 NO NO NO Primary Crushing 10MCC201 NO NO YES CCY1 YES NA NA Admin Complex YES YES NO Ancillary Workshop YES YES NO HV Workshop YES YES NO Gulf Workshop & Surrounds YES YES NO HV901 Stockyard Substation YES NA NA Reclaimer Conveyor CV701 NO NA YES Train Loadout Substation TLO YES NO YES Stacker SK703 YES NO YES Train Loadout Conveyor YES NA YES Reclaimer Conveyors YES NA YES Plant Output Conveyor YES NA YES Reclaimer RC031 YES NA YES CV401 YES NA YES MC901 415V YES YES NO HV902 YES NA NA Reactor YES NA NA CSI HV Switchroom 20MCC04 NO NO YES Sub018 NA YES NA Turkeys Nest YES NA YES EPCM Office NO NA YES Laboratory NO NA YES OPF1 (20MCC04) NO NA NA Primary Crushing 10MCC01 NA NO YES Screening 15MCC02A NA NO YES

KeyPercentage Component Completion - Christmas Creek PowerFactory ModelChecklist of Model - Before Assumptions Made

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Screening 15MCC02B NA NO YES Secondary Crushing 20MCC03 NA YES NA Area 15 NO NA YES Area 20 20MCC03 NO NA NA Secondary Cone Crusher NO NA YES Tertiary Cone Crusher NO NA YES HPGR Crusher NO NA YES YES Complete Desands Area 15/20 NA NO NO NO Need Data Second & Tertiary Crushers NA NO YES NA Not Applicable 20TX04B NA NO NO 20TX04C NA NO NO 30MCC05A NA NO YES 30MCC05B NA NO YES OPF2 (20MCC206A) YES NA NA Reclaim Tunnel Area (12MCC203) YES NO YES 15TX204A YES NO YES 15TX204B YES NO NO Secondary Crushing 20MCC05 YES NO YES 20TX206A YES NO NA 20MCC206B YES NO NO 20TX206B YES NO NO 20TX206C YES NO NO 30TX207A YES NO YES 30TX207B YES NO YES 30TX207C YES NO YES 30TX208A YES NO YES 30TX208B YES NO YES 35TX208C YES YES YES Kandama Village YES NA NA RMU-05/RMU-06 YES YES NA RMU-04 YES YES NO RMU-03 NO YES NO RMU-02 NO YES NO RMU-01 NO YES NOGatehouse and Medical NO NO NONumber of YES 49 20 42Number of NO 21 36 21Estimated % Components Completed 58.73015873

Break Down of Sections Line Transformer Load Power Station YES NA NA Power Station Services YES YES YES Power Station Earthing Transformer (Zig Zag) YES YES YES 33kV Overhead Line YES NA NA RMU001 Power Station YES YES NA Fuel Unload RCDOS YES YES YES

Key

Notes: Generators and bus elements have not been included as they have previously been setup.

Checklist Model - Transformer Assumptions made

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Harridan Hill Tower YES YES NO Telstra Hut YES YES YES Construction Camp NO YES YES RMU010 Power Station YES YES NA Operations Office NO YES YES Bulk Diesel Fuel Storage BDFS NO YES YES OLC (Overland Conveyor) YES NA NA 11MCC202A YES YES YES 11MCC202B YES YES YES Motor Control Centre MCC Supply YES YES YES Remote Crushing Hub YES NA NA TF033 NO YES NO YES Complete TF034 NO YES NO NO Need Data TF035 NO YES NO NA Not Applicable Primary Crushing 10MCC201 NO YES YES CCY1 YES NA NA Admin Complex YES YES NO Ancillary Workshop YES YES NO HV Workshop YES YES NO Gulf Workshop & Surrounds YES YES NO HV901 Stockyard Substation YES NA NA Reclaimer Conveyor CV701 NO NA YES Train Loadout Substation TLO YES YES YES Stacker SK703 YES YES YES Train Loadout Conveyor YES NA YES Reclaimer Conveyors YES NA YES Plant Output Conveyor YES NA YES Reclaimer RC031 YES NA YES CV401 YES NA YES MC901 415V YES YES NO HV902 YES NA NA Reactor YES NA NA CSI HV Switchroom 20MCC04 NO YES YES Sub018 NA YES NA Turkeys Nest YES NA YES EPCM Office NO NA YES Laboratory NO NA YES OPF1 (20MCC04) NO NA NA Primary Crushing 10MCC01 NA YES YES Screening 15MCC02A NA YES YES Screening 15MCC02B NA YES YES Secondary Crushing 20MCC03 NA YES NA Area 15 NO NA YES Area 20 20MCC03 NO NA NA Secondary Cone Crusher NO NA YES Tertiary Cone Crusher NO NA YES HPGR Crusher NO NA YES Desands Area 15/20 NA YES NO Second & Tertiary Crushers NA YES YES

Key

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20TX04B NA YES NO 20TX04C NA YES NO 30MCC05A NA YES YES 30MCC05B NA YES YES OPF2 (20MCC206A) YES NA NA Reclaim Tunnel Area (12MCC203) YES YES YES 15TX204A YES YES YES 15TX204B YES YES NO Secondary Crushing 20MCC05 YES YES YES 20TX206A YES YES NA 20MCC206B YES YES NO 20TX206B YES YES NO 20TX206C YES YES NO 30TX207A YES YES YES 30TX207B YES YES YES 30TX207C YES YES YES 30TX208A YES YES YES YES Complete 30TX208B YES YES YES NO Need Data 35TX208C YES YES YES NA Not Applicable Kandama Village YES NA NA Need Length RMU-05/RMU-06 YES YES NA Need Type RMU-04 YES YES NO No Data RMU-03 NO YES NO Deleted RMU-02 NO YES NO RMU-01 NO YES NOGatehouse and Medical NO YES NONumber of YES 49 56 42Number of NO 21 0 21Estimated % Components Completed 77.78%

Break Down of Sections Line Transformer Load Power Station YES NA NA Power Station Services YES YES YES Power Station Earthing Transformer (Zig Zag) YES YES YES 33kV Overhead Line YES NA NA RMU001 Power Station YES YES NA Fuel Unload RCDOS YES YES YES Harridan Hill Tower YES YES NO Telstra Hut YES YES YES Construction Camp YES YES YES RMU010 Power Station YES YES NA Operations Office YES YES YES Bulk Diesel Fuel Storage BDFS YES YES YES OLC (Overland Conveyor) YES NA NA 11MCC202A YES YES YES

Assumptions Made: If there has not been a test/data sheet supplied then AS3851 "The calculation of short-circuit currents in three-phase a.c systems" (page 18) states that the X/R ratio is to be 10 for transformers less than 10MVA. Unknown size will be noted and revised.

Key

Checklist Model - Line Assumptions Made

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11MCC202B YES YES YES Motor Control Centre MCC Supply YES YES YES Remote Crushing Hub YES NA NA TF033 YES YES NO TF034 YES YES NO TF035 YES YES NO Primary Crushing 10MCC201 YES YES YES CCY1 YES NA NA Admin Complex YES YES NO Ancillary Workshop YES YES NO HV Workshop YES YES NO Gulf Workshop & Surrounds YES YES NO HV901 Stockyard Substation YES NA NA Reclaimer Conveyor CV701 YES NA YES Train Loadout Substation TLO YES YES YES Stacker SK703 YES YES YES Train Loadout Conveyor YES NA YES Reclaimer Conveyors YES NA YES Plant Output Conveyor YES NA YES Reclaimer RC031 YES NA YES CV401 YES NA YES MC901 415V YES YES NO YES Complete HV902 YES NA NA NO Need Data Reactor YES NA NA NA Not Applicable CSI HV Switchroom 20MCC04 YES YES YES Need Length Sub018 NA YES NA Need Type Turkeys Nest YES NA YES No Data EPCM Office YES NA YES Deleted Laboratory YES NA YES OPF1 (20MCC04) YES NA NA Primary Crushing 10MCC01 NA YES YES Screening 15MCC02A NA YES YES Screening 15MCC02B NA YES YES Secondary Crushing 20MCC03 NA YES NA Area 15 YES NA YES Area 20 20MCC03 YES NA NA Secondary Cone Crusher YES NA YES Tertiary Cone Crusher YES NA YES HPGR Crusher YES NA YES Desands Area 15/20 NA YES NO Second & Tertiary Crushers NA YES YES 20TX04B NA YES NO 20TX04C NA YES NO 30MCC05A NA YES YES 30MCC05B NA YES YES OPF2 (20MCC206A) YES NA NA Reclaim Tunnel Area (12MCC203) YES YES YES 15TX204A YES YES YES 15TX204B YES YES NO

Key

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Secondary Crushing 20MCC05 YES YES YES 20TX206A YES YES NA 20MCC206B YES YES NO 20TX206B YES YES NO 20TX206C YES YES NO 30TX207A YES YES YES 30TX207B YES YES YES 30TX207C YES YES YES 30TX208A YES YES YES 30TX208B YES YES YES 35TX208C YES YES YES Kandama Village YES NA NA RMU-05/RMU-06 YES YES NA RMU-04 YES YES NO RMU-03 YES YES NO RMU-02 YES YES NO RMU-01 YES YES NOGatehouse and Medical YES YES NONumber of YES 70 56 42Number of NO 0 0 21Estimated % Components Completed 88.89%Assumptions Made: To get a load flow to run, the line (cable) needs to have some information. Main feeders are kept as they are required to supply larger current to loads. Some of the feeders downstream that are estimated to be shorter than 100m have been deleted as they will have negligible affect on the short circuit current.

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Appendix C PowerFactory Model Methodology

Figure 6 Methodology Flowchart

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Appendix D Load Flow Scenarios

D.1 LF-2 Existing Feeder Operation – Maximum Demand - 27 Generators in Service

51.14 MW Load

In this scenario, the existing feeder connection is considered at maximum demand and with

27 generators running.

D.1 LF-2 Results

Feeders not in service from the power station include:

- Feeder- FE-07 to OPF2-A

- Feeder FE-09 to TF012 (Overhead Line East)

LF-2 Existing Feeders - Maximum Demand – 51.14 MW Load

Switchgear 20°C Min Voltage (p.u.) 90°C Max Voltage (p.u.)

Busbar

10TX201 HV 0.950 0.945

11MCC202A 690V 0.942 0.937

11MCC202B 690V 0.942 0.937

11MCC202C OLC MCC Supply 0.914 0.909

11TX202A LV 0.948 0.944

11TX202B LV 0.948 0.944

CCY1/RMU017 N/A 0.948

HPGR Follower Delta 20TX207E LV 0.932 0.929

HPGR Follower Motor 0.931 0.927

HPGR Follower Motor 2 0.931 0.927

HPGR Follower Star 20TX207E LV 0.932 0.929

HPGR Main Motor 20CR205A 0.931 0.927

HPGR Main Motor 20CR205B 0.931 0.927

HPGR Master Star 20TX207D LV 0.932 0.929

HPGR Master VSD 20TX207D LV Delta 0.932 0.929

HV TF017-1 N/A 0.948

HV TF017-2 N/A 0.948

HV TF017-3 N/A 0.948

HV TF017-4 N/A 0.948

LV TF017-1 Admin Complex N/A 0.947

LV TF017-2 Ancillary W/Shop N/A 0.947

LV TF017-3 HV W/Shop N/A 0.947

LV TF017-4 Gulf W/Shop N/A 0.947

Ops Office 33kV N/A 0.948

PL4004 OLC A N/A 0.949

PL4005 OLC B N/A 0.949

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PL4007 N/A 0.948

PL4008 N/A 0.948

PL4017 N/A 0.948

PL5005 N/A 0.947

PL5028 N/A 0.947

PL5043 N/A 0.946

PL5059 N/A 0.946

REC031 OLC N/A 0.948

REC032 OLC N/A 0.948

REC037 0.950 0.946

TF033 HV N/A 0.947

TF033 LV N/A 0.946

TF034 HV N/A 0.947

TF034 LV N/A 0.946

Tails Pump D 3.3kV 0.949 0.949

Tails Pump E 3.3kV 0.949 0.949

Cables Loading Min Loading Max

Feeder 20MCC206B to 20TX207D 88.98% 88.65%

Feeder 20MCC206B to Tails Pump 20TX207E 89.11% 88.77%

Feeder 20TX206A to 20MCC206B 3.3kV 88.70% 88.51%

Transformers Loading Min Loading Max

20TX206A 11/3.3kV 4500kVA Dyn11 7.5% 93.29% 93.09%

TF001 11/33kV 10MVA YNd1 5% 93.77% 94.18%

TF042 33/0.418kV 200kVA Dyn11 4% 92.53% 92.58%

Table 20 LF-2 Results

4.4.2 LF-2 Conclusions and Recommendations

The resulting load flow data provided in the LF-2 calculation occurs when the feeders “FE-07

to OPF2-A” and “FE-09 to TF012 (OHL East) are not in service. This running topology is

currently in use at Christmas Creek so this was chosen to analyse. The problem with this is

that the choice of not using a particular cable may have been chosen based on the low load

demands for the sections. Where there is a large load and more generators running then the

current feeders being used may be decided to be in service.

There are 48 items that have been highlighted in table 4.3.2 LF-2 Results that have a voltage

drop greater than 5% or equipment loading of 80% or greater. The maximum conductor

temperature case study provided more busbars to have a greater voltage drop. This is due to

the I2R losses associated with conductor temperature rise and is evident in the model. The

raw data for this calculation can be seen in Appendix A.

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By switching FE-09 to TF012 off, the step-up transformer TF001 is now supplying all the

power to the overhead line network. At maximum demand this amount is 8.193 MW and 4.64

Mvar. TF001 has a nameplate rating of 10MVA and is loaded at 93.77% for the minimum

and 94.17% for the maximum conductor temperature case study. This is a very high loading

and is not recommended to be operated in this condition for long periods of time. There could

be reliability issues associated with only having one feeder in service from the power station

during maximum demand.

More sections that now appear in the results by having an unsatisfactory voltage drop

include:

- Remote crushing hub

- Overland Conveyor

- CCY1

- Multiple sections of overhead line

- OPF2 tails pumps

The largest voltage drop occurring is 11MCC202C OLC bus with 9.1% voltage drop from

the nominal rated 415V. This is a significant drop caused by the flow on effect of upstream

cable losses during the maximum conductor temperature scenario. The maximum demand of

the loads connected to this bus has not been diversified and may require doing so before this

to be a real issue.

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Appendix D Short Circuit Scenarios

D.1 SC-1

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Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Min. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Automatic Neglection Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Max. Loading (Peak) 80.00 % Max. Loading (Interrupting) 80.00 % Max. Loading (Thermal) 80.00 % Fortescue SC-1 DIgSILENT Project: XMAS CREEK Metals Group 6 Generators in Service (No Load Flow) PowerFactory Minimum Short Circuit Currents 14.1.4 Date: 4/24/2013 Study Case: Study Case Annex: / 1 Overloaded Branches Thermal equivalent Current Name Type Terminal i Terminal j Nominal(1s) ( 1.0 s) Actual Loading [kA] [kA] [kA] [%] Feeder HV901 to CV201-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Plant Output C.. 7.15 7.15 6.38 89.24 Feeder HV901 to CV401-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. CV401-EM01/EM02 7.15 7.15 6.38 89.24 Feeder HV901 to RC031 600 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. RC031 Reclaimer 7.15 7.15 6.38 89.24 Feeder HV901 to TF801 Tx Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF801 HV - Tra.. 7.15 7.15 6.38 89.24 Feeder HV901 to TF901 20m Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF901 HV 7.15 7.15 6.38 89.24 Feeder to SK703 Med Point Olex 6.35/11kV 50mm Lne HV901/Stockyar.. SK703-TF01 TX HV 7.15 7.15 6.38 89.24

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Fortescue SC-1 DIgSILENT Project: XMAS CREEK Metals Group 6 Generators in Service (No Load Flow) PowerFactory Minimum Short Circuit Currents 14.1.4 Date: 4/24/2013 Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Min. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Automatic Neglection Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Grid: Christmas Creek System Stage: Christmas Creek Annex: / 1 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] HV901 Stockyard Subst 11.00 0.00 0.00 1.00 118.85 MVA 6.24 kA -86.66 15.93 kA 4.53 86.24 6.24 6.38 Alternate Feede HV902-11kV 47.37 MVA 2.49 kA 88.46 6.35 kA FE-04 - PS to H PowerStati 71.76 MVA 3.77 kA 96.56 9.62 kA Feeder HV901 to Plant Outp 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to CV401-EM01 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Train Load 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to RC031 Recl 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to TF801 HV - 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to TF901 HV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder to SK703 SK703-TF01 0.00 MVA 0.00 kA 0.00 0.00 kA HV902-11kV Stockyard Subst 11.00 0.00 0.00 1.00 118.80 MVA 6.24 kA -86.66 15.92 kA 4.53 86.23 6.24 6.38 Alternate Feede HV901 58.28 MVA 3.06 kA 96.56 7.81 kA OPF1 Incomer 1 OPF1 0.00 MVA 0.00 kA 0.00 0.00 kA Power Station F PowerStati 60.70 MVA 3.19 kA 90.25 8.13 kA MC901 MC901 415V 0.41 0.00 0.00 0.95 8.00 MVA 11.13 kA -84.43 27.53 kA 11.13 8.00 11.13 11.32 TF901 11/0.433k TF901 HV 8.00 MVA 11.13 kA 95.57 27.53 kA 19.5kW Lumped D 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 15kW 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902 Turkeys Nest 0.41 0.00 0.00 0.95 8.05 MVA 11.20 kA -64.72 19.91 kA 11.20 8.05 11.20 11.24 MCC902-P-01 Sub018 8.05 MVA 11.20 kA 115.28 19.91 kA 22kW DOL 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 124: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 2 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] L-DOL 132kW 0.00 MVA 0.00 kA 0.00 0.00 kA OPF1 20MCC04 11.00 0.00 0.00 1.00 118.52 MVA 6.22 kA -86.58 15.86 kA 4.52 86.16 6.22 6.36 Feeder HV902 to 20MCC04 0.00 MVA 0.00 kA 0.00 0.00 kA OPF1 Incomer 1 HV902-11kV 118.52 MVA 6.22 kA 93.42 15.86 kA TF008 11/0.433k Sub018 0.00 MVA 0.00 kA 0.00 0.00 kA OPF2 SS 20MCC206A OPF2 11.00 0.00 0.00 1.00 117.36 MVA 6.16 kA -86.44 15.65 kA 4.51 85.86 6.16 6.29 FE-07 to OPF2-A PowerStati 0.00 MVA 0.00 kA 0.00 0.00 kA FE-08 to OPF2-B PowerStati 117.36 MVA 6.16 kA 93.56 15.65 kA Feeder 20MCC206 12TX203 HV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 15TX204A H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 12TX204B H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20TX205 HV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20TX206A H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 35TX208C H 0.00 MVA 0.00 kA 0.00 0.00 kA PowerStation Power Station B 11.00 0.00 0.00 1.00 119.55 MVA 6.27 kA -86.88 16.10 kA 4.54 86.40 6.27 6.43 FE-04 - PS to H HV901 0.00 MVA 0.00 kA 0.00 0.00 kA FE-07 to OPF2-A OPF2 SS 0.00 MVA 0.00 kA 0.00 0.00 kA FE-08 to OPF2-B OPF2 SS 0.00 MVA 0.00 kA 0.00 0.00 kA FE-09 PS to TF0 OHL East T 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PS to TF OHL West T 0.00 MVA 0.00 kA 0.00 0.00 kA Power Station F HV902-11kV 0.00 MVA 0.00 kA 0.00 0.00 kA TF005 11/0.433k PS Service 0.00 MVA 0.00 kA 0.00 0.00 kA Eathing Tx ZigZ 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 01 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 02 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 03 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 04 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 05 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 06 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 07 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 08 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 09 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 10 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 125: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 3 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Generator 11 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 12 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 13 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 14 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 15 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 16 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 17 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 18 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 19 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 20 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 21 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 22 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 23 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 24 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 25 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 26 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 27 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 28 0.00 MVA 0.00 kA 0.00 0.00 kA RMU001 Power StationRM 33.00 0.00 0.00 1.00 74.38 MVA 1.30 kA -86.12 3.31 kA 1.17 66.69 1.30 1.33 Feeder RMU001 t Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU010 Pow 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10XX (Fu 0.00 MVA 0.00 kA 0.00 0.00 kA TF001 11/33kV 1 OHL West T 74.38 MVA 1.30 kA 93.88 3.31 kA RMU017 CCY1 33.00 0.00 0.00 1.00 58.41 MVA 1.02 kA -75.71 2.12 kA 0.97 55.56 1.02 1.03 CCY1-RMU017-P1 HV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P2 HV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P3 HV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P4 HV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4017 t PL4017 58.41 MVA 1.02 kA 104.29 2.12 kA SWB004 Switchroom Tels 0.43 0.00 0.00 0.95 2.35 MVA 3.13 kA -67.72 5.78 kA 3.13 2.35 3.13 3.14 Feeder TF004 to Telstra Hu 0.00 MVA 0.00 kA 0.00 0.00 kA TF004 100kvA 33 TF004 HV 2.35 MVA 3.13 kA 112.28 5.78 kA Sub018 Kiosk Substatio 0.41 0.00 0.00 0.95 15.37 MVA 21.39 kA -76.65 45.30 kA 21.39 15.37 21.39 21.54 MCC902-P-01 MCC902 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902-P-02 EPCM Offic 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902-P-03 Laboratory 0.00 MVA 0.00 kA 0.00 0.00 kA TF008 11/0.433k OPF1 15.37 MVA 21.39 kA 103.35 45.30 kA

Page 126: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 4 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] THLoad Telstra Hut Loa 0.43 0.00 0.00 0.95 1.16 MVA 1.54 kA -33.67 2.25 kA 1.54 1.16 1.54 1.54 SB004 to Telstr Telstra Hu 1.16 MVA 1.54 kA 146.33 2.25 kA TLO MC801 415V MC801 0.41 0.00 0.00 0.95 7.63 MVA 10.61 kA -82.42 25.14 kA 10.61 7.63 10.61 10.75 Feeder TF801 to TF801 LV - 7.63 MVA 10.61 kA 97.58 25.14 kA 105.4kW Lumped 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 75kW 0.00 MVA 0.00 kA 0.00 0.00 kA Telstra Hut Telstra Hut DB 0.43 0.00 0.00 0.95 2.34 MVA 3.12 kA -67.52 5.74 kA 3.12 2.34 3.12 3.13 Feeder TF004 to SWB004 2.34 MVA 3.12 kA 112.48 5.74 kA SB004 to Telstr THLoad 0.00 MVA 0.00 kA 0.00 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 118.41 MVA 6.21 kA -86.50 15.81 kA 4.52 86.13 6.21 6.35 Feeder HV901 to HV901 118.41 MVA 6.21 kA 93.50 15.81 kA TF801 HV - Train 11.00 0.00 0.00 1.00 108.06 MVA 5.67 kA -74.09 11.38 kA 4.42 84.22 5.67 5.70 Feeder HV901 to HV901 108.06 MVA 5.67 kA 105.91 11.38 kA TF801 - Train L TF801 LV - 0.00 MVA 0.00 kA 0.00 0.00 kA TF801 LV - Train 0.41 0.00 0.00 0.95 7.95 MVA 11.06 kA -83.43 26.78 kA 11.06 7.95 11.06 11.22 TF801 - Train L TF801 HV - 7.95 MVA 11.06 kA 96.57 26.78 kA Feeder TF801 to TLO MC801 0.00 MVA 0.00 kA 0.00 0.00 kA Train Loadout Con 11.00 0.00 0.00 1.00 114.96 MVA 6.03 kA -81.34 13.77 kA 4.49 85.58 6.03 6.10 Feeder HV901 to HV901 114.96 MVA 6.03 kA 98.66 13.77 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 118.13 MVA 6.20 kA -85.57 15.45 kA 4.52 86.11 6.20 6.31 Feeder HV901 to HV901 118.13 MVA 6.20 kA 94.43 15.45 kA Plant Output Conv 11.00 0.00 0.00 1.00 114.96 MVA 6.03 kA -81.34 13.77 kA 4.49 85.58 6.03 6.10 Feeder HV901 to HV901 114.96 MVA 6.03 kA 98.66 13.77 kA CV401-EM01/EM02 11.00 0.00 0.00 1.00 96.86 MVA 5.08 kA -64.90 8.99 kA 4.24 80.73 5.08 5.10 Feeder HV901 to HV901 96.86 MVA 5.08 kA 115.10 8.99 kA TF901 HV 11.00 0.00 0.00 1.00 118.49 MVA 6.22 kA -86.11 15.68 kA 4.52 86.18 6.22 6.35 Feeder HV901 to HV901 118.49 MVA 6.22 kA 93.89 15.68 kA TF901 11/0.433k MC901 0.00 MVA 0.00 kA 0.00 0.00 kA 20MCC04 11.00 0.00 0.00 1.00 117.22 MVA 6.15 kA -86.20 15.55 kA 4.51 85.84 6.15 6.28 10TX01 11/0.433 10MCC01 Pr 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV902 to OPF1 117.22 MVA 6.15 kA 93.80 15.55 kA 15TX02A 11/0.43 15MCC02A S 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 127: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 5 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 15Tx02B 11/0.43 15MCC02B S 0.00 MVA 0.00 kA 0.00 0.00 kA 20Tx03 3500kVA 20MCC03 Se 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04A 11/3.3k Desands Ar 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04B 11/1.90 20TX04B De 20TX04B St 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04C 11/1.90 20TX04C De 20TX04C St 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX05A 11/0.43 30MCC05A 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX05B 11/0.43 30MCC05B 0.00 MVA 0.00 kA 0.00 0.00 kA SK703-TF01 TX HV 11.00 0.00 0.00 1.00 106.83 MVA 5.61 kA -72.97 11.06 kA 4.40 83.92 5.61 5.64 SK703-TF01 11/0 SK703-TF01 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder to SK703 HV901 106.83 MVA 5.61 kA 107.03 11.06 kA SK703-TF01 Stacke 0.43 0.00 0.00 0.95 19.72 MVA 26.29 kA -82.10 61.76 kA 26.29 19.72 26.29 26.61 SK703-TF01 11/0 SK703-TF01 19.72 MVA 26.29 kA 97.90 61.76 kA L-DOL 250kW 0.00 MVA 0.00 kA 0.00 0.00 kA 288.3kW Lumped 0.00 MVA 0.00 kA 0.00 0.00 kA RC031 Reclaimer 11.00 0.00 0.00 1.00 105.60 MVA 5.54 kA -71.87 10.75 kA 4.39 83.60 5.54 5.57 Feeder HV901 to HV901 105.60 MVA 5.54 kA 108.13 10.75 kA RC031-TF01 11kV RC031-MC02 0.00 MVA 0.00 kA 0.00 0.00 kA OHL West TF001 LV 11.00 0.00 0.00 1.00 119.43 MVA 6.27 kA -86.86 16.08 kA 4.53 86.38 6.27 6.42 Feeder PS to TF PowerStati 119.43 MVA 6.27 kA 93.14 16.08 kA TF001 11/33kV 1 RMU001 0.00 MVA 0.00 kA 0.00 0.00 kA OHL East TF012 LV 11.00 0.00 0.00 1.00 54.00 MVA 2.83 kA -85.78 7.17 kA 2.73 52.00 2.83 2.89 FE-09 PS to TF0 PowerStati 0.00 MVA 0.00 kA 0.00 0.00 kA TF012 11/33kV 1 RMU010 Pow 54.00 MVA 2.83 kA 94.22 7.17 kA RMU010 Power Stat 33.00 0.00 0.00 1.00 74.37 MVA 1.30 kA -86.11 3.31 kA 1.17 66.69 1.30 1.33 TF012 11/33kV 1 OHL East T 0.00 MVA 0.00 kA 0.00 0.00 kA PL4001-P1 U/G 1 PL4001 REC 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU001 74.37 MVA 1.30 kA 93.89 3.31 kA PL4001 REC001 33.00 0.00 0.00 1.00 74.31 MVA 1.30 kA -86.03 3.30 kA 1.17 66.65 1.30 1.33 PL4001-P1 U/G 1 RMU010 Pow 74.31 MVA 1.30 kA 93.97 3.30 kA OHL PL4001 to P PL4003 33k 0.00 MVA 0.00 kA 0.00 0.00 kA PL4003 33kV 33.00 0.00 0.00 1.00 71.11 MVA 1.24 kA -84.00 3.02 kA 1.13 64.60 1.24 1.26 OHL PL4001 to P PL4001 REC 71.11 MVA 1.24 kA 96.00 3.02 kA TF042 33/0.418k PL4426 Fue 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU010 t PL4004 OLC 0.00 MVA 0.00 kA 0.00 0.00 kA Tx HV Fuel Unload 33.00 0.00 0.00 1.00 69.16 MVA 1.21 kA -82.83 2.86 kA 1.11 63.31 1.21 1.23 Fuel Unload 33/ Tx LV Fuel 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder from OHL PL10XX (Fu 69.16 MVA 1.21 kA 97.17 2.86 kA

Page 128: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 6 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Tx LV Fuel Unload 0.41 0.00 0.00 0.95 4.17 MVA 5.80 kA -71.84 11.37 kA 5.80 4.17 5.80 5.83 Fuel Unload 33/ Tx HV Fuel 4.17 MVA 5.80 kA 108.16 11.37 kA 150mm Cu XLPE 4 Fuel Unloa 0.00 MVA 0.00 kA 0.00 0.00 kA PL1075 33.00 0.00 0.00 1.00 64.91 MVA 1.14 kA -80.24 2.55 kA 1.06 60.37 1.14 1.15 Feeder PL10062 PL10062 64.91 MVA 1.14 kA 99.76 2.55 kA Feeder PL1075 t PL1081 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t Constructi 0.00 MVA 0.00 kA 0.00 0.00 kA PL10062 33.00 0.00 0.00 1.00 66.85 MVA 1.17 kA -81.41 2.69 kA 1.08 61.73 1.17 1.18 Feeder PL10062 PL1075 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10XX (Fu 66.85 MVA 1.17 kA 98.59 2.69 kA Feeder PL10062 TF004 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL1081 33.00 0.00 0.00 1.00 62.59 MVA 1.10 kA -78.87 2.40 kA 1.03 58.70 1.10 1.10 Feeder PL1075 t PL1075 62.59 MVA 1.10 kA 101.13 2.40 kA Feeder PL1081 t Kandama Vi 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Harridan Hill Tow 33.00 0.00 0.00 1.00 61.23 MVA 1.07 kA -78.08 2.31 kA 1.01 57.69 1.07 1.08 Harridan Hill P Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H PL1081 61.23 MVA 1.07 kA 101.92 2.31 kA REC031 OLC 33.00 0.00 0.00 1.00 61.87 MVA 1.08 kA -78.23 2.34 kA 1.02 58.17 1.08 1.09 Feeder PL4004 t PL4004 OLC 61.73 MVA 1.08 kA 101.98 2.34 kA 11TX202A 33/0.7 11TX202A L 0.27 MVA 0.00 kA 44.73 0.01 kA HV TF017-1 33.00 0.00 0.00 1.00 58.25 MVA 1.02 kA -75.56 2.11 kA 0.97 55.45 1.02 1.03 CCY1-RMU017-P1 RMU017 58.25 MVA 1.02 kA 104.44 2.11 kA TF017-1 33/0.43 LV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-2 33.00 0.00 0.00 1.00 58.29 MVA 1.02 kA -75.60 2.11 kA 0.97 55.48 1.02 1.03 CCY1-RMU017-P2 RMU017 58.29 MVA 1.02 kA 104.40 2.11 kA TF017-2 33/0.43 LV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-3 33.00 0.00 0.00 1.00 58.32 MVA 1.02 kA -75.62 2.11 kA 0.97 55.49 1.02 1.03 CCY1-RMU017-P3 RMU017 58.32 MVA 1.02 kA 104.38 2.11 kA TF017-3 33/0.43 LV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-4 33.00 0.00 0.00 1.00 58.25 MVA 1.02 kA -75.55 2.11 kA 0.97 55.44 1.02 1.03 CCY1-RMU017-P4 RMU017 58.25 MVA 1.02 kA 104.45 2.11 kA TF017-4 33/0.43 LV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA LV TF017-1 Admin 0.43 0.00 0.00 0.95 12.04 MVA 16.06 kA -82.23 37.87 kA 16.06 12.04 16.06 16.26 TF017-1 33/0.43 HV TF017-1 12.04 MVA 16.06 kA 97.77 37.87 kA

Page 129: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 7 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] LV TF017-2 Ancill 0.43 0.00 0.00 0.95 12.05 MVA 16.06 kA -82.24 37.89 kA 16.06 12.05 16.06 16.26 TF017-2 33/0.43 HV TF017-2 12.05 MVA 16.06 kA 97.76 37.89 kA LV TF017-3 HV W/S 0.43 0.00 0.00 0.95 16.99 MVA 22.66 kA -83.02 54.28 kA 22.66 16.99 22.66 22.96 TF017-3 33/0.43 HV TF017-3 16.99 MVA 22.66 kA 96.98 54.28 kA LV TF017-4 Gulf W 0.43 0.00 0.00 0.95 12.04 MVA 16.06 kA -82.23 37.87 kA 16.06 12.04 16.06 16.26 TF017-4 33/0.43 HV TF017-4 12.04 MVA 16.06 kA 97.77 37.87 kA Kandama Village R 33.00 0.00 0.00 1.00 61.65 MVA 1.08 kA -78.32 2.34 kA 1.01 58.00 1.08 1.09 Feeder PL1081 t PL1081 61.65 MVA 1.08 kA 101.68 2.34 kA 08TF002 33/11kV RMU-05 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-05 11.00 0.00 0.00 1.00 34.73 MVA 1.82 kA -80.26 4.12 kA 1.82 34.73 1.82 1.84 08TF002 33/11kV Kandama Vi 34.73 MVA 1.82 kA 99.74 4.12 kA Connectin RMU-0 RMU-06 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-04 11.00 0.00 0.00 1.00 34.60 MVA 1.82 kA -80.12 4.09 kA 1.82 34.60 1.82 1.83 Tx-004 11/0.415 Waste Wate 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder from Tx0 RMU-06 34.60 MVA 1.82 kA 99.88 4.09 kA Feeder RMU-04 t RMU-03 0.00 MVA 0.00 kA 0.00 0.00 kA Waste Water Treat 0.41 0.00 0.00 0.95 11.72 MVA 16.30 kA -81.58 37.93 kA 16.30 11.72 16.30 16.49 Tx-004 11/0.415 RMU-04 11.72 MVA 16.30 kA 98.42 37.93 kA RMU-06 11.00 0.00 0.00 1.00 34.73 MVA 1.82 kA -80.26 4.12 kA 1.82 34.73 1.82 1.84 Feeder from Tx0 RMU-04 0.00 MVA 0.00 kA 0.00 0.00 kA Connectin RMU-0 RMU-05 34.73 MVA 1.82 kA 99.74 4.12 kA RMU-03 11.00 0.00 0.00 1.00 34.47 MVA 1.81 kA -79.84 4.05 kA 1.81 34.47 1.81 1.83 Feeder RMU-04 t RMU-04 34.47 MVA 1.81 kA 100.16 4.05 kA Feeder RMU-03 t RMU-02 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-003 11/0.415 TX-003 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-02 11.00 0.00 0.00 1.00 34.34 MVA 1.80 kA -79.55 4.01 kA 1.80 34.34 1.80 1.82 Feeder RMU-03 t RMU-03 34.34 MVA 1.80 kA 100.45 4.01 kA Feeder RMU-02 t RMU-01 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-002 11/0.415 TX-002 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-01 11.00 0.00 0.00 1.00 34.20 MVA 1.80 kA -79.27 3.98 kA 1.80 34.20 1.80 1.81 Feeder RMU-02 t RMU-02 34.20 MVA 1.80 kA 100.73 3.98 kA Tx-001 11/0.415 TX-001 LV 0.00 MVA 0.00 kA 0.00 0.00 kA TX-003 LV 0.41 0.00 0.00 0.95 11.70 MVA 16.28 kA -81.48 37.80 kA 16.28 11.70 16.28 16.46 Tx-003 11/0.415 RMU-03 11.70 MVA 16.28 kA 98.52 37.80 kA

Page 130: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 8 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TX-002 LV 0.41 0.00 0.00 0.95 11.69 MVA 16.26 kA -81.37 37.67 kA 16.26 11.69 16.26 16.44 Tx-002 11/0.415 RMU-02 11.69 MVA 16.26 kA 98.63 37.67 kA TX-001 LV 0.41 0.00 0.00 0.95 11.67 MVA 16.24 kA -81.27 37.54 kA 16.24 11.67 16.24 16.41 Tx-001 11/0.415 RMU-01 11.67 MVA 16.24 kA 98.73 37.54 kA Harridan Hill Tow 0.41 0.00 0.00 0.95 2.15 MVA 2.99 kA -67.64 5.51 kA 2.99 2.15 2.99 3.00 Harridan Hill P Harridan H 2.15 MVA 2.99 kA 112.36 5.51 kA 10MCC01 Primary C 0.43 0.00 0.00 0.95 30.99 MVA 41.33 kA -84.82 102.70 kA 41.33 30.99 41.33 42.06 10TX01 11/0.433 20MCC04 30.99 MVA 41.33 kA 95.18 102.70 kA L-DOL 45kW 0.00 MVA 0.00 kA 0.00 0.00 kA 108.5kW DOL 0.00 MVA 0.00 kA 0.00 0.00 kA 15MCC02A Screenin 0.43 0.00 0.00 0.95 30.18 MVA 40.24 kA -84.81 99.98 kA 40.24 30.18 40.24 40.95 15TX02A 11/0.43 20MCC04 30.18 MVA 40.24 kA 95.19 99.98 kA DOL Wet Sizing 0.00 MVA 0.00 kA 0.00 0.00 kA 90kW DOL- 0.00 MVA 0.00 kA 0.00 0.00 kA 15MCC02B Screenin 0.43 0.00 0.00 0.95 30.18 MVA 40.24 kA -84.81 99.98 kA 40.24 30.18 40.24 40.95 15Tx02B 11/0.43 20MCC04 30.18 MVA 40.24 kA 95.19 99.98 kA L-DOL-90kW 0.00 MVA 0.00 kA 0.00 0.00 kA 222kW DOL 0.00 MVA 0.00 kA 0.00 0.00 kA 20MCC03 Secondary 0.41 0.00 0.00 0.95 33.44 MVA 46.52 kA -84.91 115.74 kA 46.52 33.44 46.52 47.36 20Tx03 3500kVA 20MCC04 33.44 MVA 46.52 kA 95.09 115.74 kA Feeder Area 15 Area 20 MC 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 90kW 0.00 MVA 0.00 kA 0.00 0.00 kA Area 20 MCC03 20C 0.41 0.00 0.00 0.95 20.08 MVA 27.94 kA -72.58 55.27 kA 27.94 20.08 27.94 28.09 Feeder Area 15 20MCC03 Se 20.08 MVA 27.94 kA 107.42 55.27 kA L-DOL Lube 2 Co 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL Dust Extr 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 74kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 74kW(1) 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL Lube 1 Co 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 163kW 0.00 MVA 0.00 kA 0.00 0.00 kA Desands Area 15/2 3.30 0.00 0.00 1.00 32.98 MVA 5.77 kA -84.83 14.34 kA 5.77 32.98 5.77 5.87 20TX04A 11/3.3k 20MCC04 32.98 MVA 5.77 kA 95.17 14.34 kA PL4426 Fuel Stora 0.42 0.00 0.00 0.95 4.24 MVA 5.86 kA -71.90 11.49 kA 5.86 4.24 5.86 5.89 TF042 33/0.418k PL4003 33k 4.24 MVA 5.86 kA 108.10 11.49 kA L-DOL Loading P 0.00 MVA 0.00 kA 0.00 0.00 kA 94kW Motor Lump 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 131: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 9 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 20TX04B Delta LV 1.90 0.00 0.00 1.00 20.95 MVA 6.35 kA -84.63 15.74 kA 6.35 20.95 6.35 6.46 20TX04B 11/1.90 20MCC04 20TX04B St 20.95 MVA 6.35 kA 95.37 15.74 kA 20TX04B Star LV 1.90 0.00 0.00 1.00 20.95 MVA 6.35 kA -84.63 15.74 kA 6.35 20.95 6.35 6.46 20TX04B 11/1.90 20MCC04 20TX04B De 20.95 MVA 6.35 kA 95.37 15.74 kA 20TX04C Delta LV 1.90 0.00 0.00 1.00 20.95 MVA 6.35 kA -84.63 15.74 kA 6.35 20.95 6.35 6.46 20TX04C 11/1.90 20MCC04 20TX04C St 20.95 MVA 6.35 kA 95.37 15.74 kA 20TX04C Star LV 1.90 0.00 0.00 1.00 20.95 MVA 6.35 kA -84.63 15.74 kA 6.35 20.95 6.35 6.46 20TX04C 11/1.90 20MCC04 20TX04C De 20.95 MVA 6.35 kA 95.37 15.74 kA 30MCC05A 0.43 0.00 0.00 0.95 32.92 MVA 43.90 kA -84.86 109.13 kA 43.90 32.92 43.90 44.68 30TX05A 11/0.43 20MCC04 32.92 MVA 43.90 kA 95.14 109.13 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 181kW 0.00 MVA 0.00 kA 0.00 0.00 kA 30MCC05B 0.43 0.00 0.00 0.95 30.18 MVA 40.24 kA -84.81 99.98 kA 40.24 30.18 40.24 40.95 30TX05B 11/0.43 20MCC04 30.18 MVA 40.24 kA 95.19 99.98 kA L-DOL 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 587kW 0.00 MVA 0.00 kA 0.00 0.00 kA 12TX203 HV 11.00 0.00 0.00 1.00 110.47 MVA 5.80 kA -80.40 12.99 kA 4.42 84.27 5.80 5.85 Feeder 20MCC206 OPF2 SS 110.47 MVA 5.80 kA 99.60 12.99 kA 12TX203 11/0.43 Reclaim Tu 0.00 MVA 0.00 kA 0.00 0.00 kA Reclaim Tunnel Ar 0.43 0.00 0.00 0.95 25.84 MVA 34.46 kA -83.33 82.97 kA 34.46 25.84 34.46 34.94 12TX203 11/0.43 12TX203 HV 25.84 MVA 34.46 kA 96.67 82.97 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 22kW Conv 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 44kW 0.00 MVA 0.00 kA 0.00 0.00 kA 15TX204A HV 11.00 0.00 0.00 1.00 113.82 MVA 5.97 kA -83.20 14.15 kA 4.47 85.07 5.97 6.05 Feeder 20MCC206 OPF2 SS 113.82 MVA 5.97 kA 96.80 14.15 kA 15TX204A 11/0.4 15TX204A S 0.00 MVA 0.00 kA 0.00 0.00 kA 15TX204A Scrubber 0.43 0.00 0.00 0.95 29.09 MVA 38.79 kA -84.00 94.71 kA 38.79 29.09 38.79 39.39 15TX204A 11/0.4 15TX204A H 29.09 MVA 38.79 kA 96.00 94.71 kA L-DOL 90kW(1) 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 193kW 0.00 MVA 0.00 kA 0.00 0.00 kA 12TX204B HV 11.00 0.00 0.00 1.00 113.68 MVA 5.97 kA -83.07 14.10 kA 4.46 85.04 5.97 6.04 Feeder 20MCC206 OPF2 SS 113.68 MVA 5.97 kA 96.93 14.10 kA 12TX204B 11/0.4 12TX204B S 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 132: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 10 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 12TX204B Scrubber 0.43 0.00 0.00 0.95 29.78 MVA 39.71 kA -83.95 96.84 kA 39.71 29.78 39.71 40.32 12TX204B 11/0.4 12TX204B H 29.78 MVA 39.71 kA 96.05 96.84 kA L-DOL- 90kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL Lumped 225. 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX205 HV 11.00 0.00 0.00 1.00 116.94 MVA 6.14 kA -86.04 15.45 kA 4.50 85.77 6.14 6.26 Feeder 20MCC206 OPF2 SS 116.94 MVA 6.14 kA 93.96 15.45 kA 20TX205 11/0.43 Secondary 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206A HV 11.00 0.00 0.00 1.00 116.97 MVA 6.14 kA -86.12 15.49 kA 4.50 85.77 6.14 6.26 Feeder 20MCC206 OPF2 SS 116.97 MVA 6.14 kA 93.88 15.49 kA 20TX206A 11/3.3 20TX206A L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206A LV 3.30 0.00 0.00 1.00 39.66 MVA 6.94 kA -84.91 17.26 kA 6.93 39.61 6.94 7.06 20TX206A 11/3.3 20TX206A H 39.66 MVA 6.94 kA 95.09 17.26 kA Feeder 20TX206A 20MCC206B 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master 20TX2 11.00 0.00 0.00 1.00 116.94 MVA 6.14 kA -86.04 15.45 kA 4.50 85.77 6.14 6.26 Feeder 20MCC206 OPF2 SS 116.94 MVA 6.14 kA 93.96 15.45 kA 20TX206B 11/1.9 20TX206B L 20TX206B L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206B LV Delta 1.90 0.00 0.00 1.00 19.45 MVA 5.89 kA -84.58 14.60 kA 5.89 19.45 5.89 6.00 20TX206B 11/1.9 HPGR Maste 20TX206B L 19.45 MVA 5.89 kA 95.42 14.60 kA 20TX206B LV Star 1.90 0.00 0.00 1.00 19.45 MVA 5.89 kA -84.58 14.60 kA 5.89 19.45 5.89 6.00 20TX206B 11/1.9 HPGR Maste 20TX206B L 19.45 MVA 5.89 kA 95.42 14.60 kA HPGR Follower 20T 11.00 0.00 0.00 1.00 116.94 MVA 6.14 kA -86.04 15.45 kA 4.50 85.77 6.14 6.26 Feeder 20MCC206 OPF2 SS 116.94 MVA 6.14 kA 93.96 15.45 kA 20TX206C 1kv/2x 20TX206C L 20TX206C L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206C LV Delta 1.90 0.00 0.00 1.00 19.45 MVA 5.89 kA -84.58 14.60 kA 5.89 19.45 5.89 6.00 20TX206C 1kv/2x HPGR Follo 20TX206C L 19.45 MVA 5.89 kA 95.42 14.60 kA 20TX206C LV Star 1.90 0.00 0.00 1.00 19.45 MVA 5.89 kA -84.58 14.60 kA 5.89 19.45 5.89 6.00 20TX206C 1kv/2x HPGR Follo 20TX206C L 19.45 MVA 5.89 kA 95.42 14.60 kA Desands 30TX207A 11.00 0.00 0.00 1.00 110.18 MVA 5.78 kA -80.16 12.90 kA 4.42 84.19 5.78 5.84 Feeder 20MCC206 OPF2 SS 110.18 MVA 5.78 kA 99.84 12.90 kA 30TX207A 11/0.4 30TX207A L 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX207A LV 0.41 0.00 0.00 0.95 26.36 MVA 36.68 kA -83.16 87.96 kA 36.68 26.36 36.68 37.18 30TX207A 11/0.4 Desands 30 26.36 MVA 36.68 kA 96.84 87.96 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 133: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 11 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 310. 0.00 MVA 0.00 kA 0.00 0.00 kA Desands 30TX207B 11.00 0.00 0.00 1.00 110.18 MVA 5.78 kA -80.16 12.90 kA 4.42 84.19 5.78 5.84 30TX207B 11/0.4 30TX207B L 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 OPF2 SS 110.18 MVA 5.78 kA 99.84 12.90 kA 30TX207B LV 0.43 0.00 0.00 0.95 29.53 MVA 39.38 kA -83.13 94.36 kA 39.38 29.53 39.38 39.92 30TX207B 11/0.4 Desands 30 29.53 MVA 39.38 kA 96.87 94.36 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 343. 0.00 MVA 0.00 kA 0.00 0.00 kA Desands 30TX207C 11.00 0.00 0.00 1.00 110.18 MVA 5.78 kA -80.16 12.90 kA 4.42 84.19 5.78 5.84 Feeder 20MCC206 OPF2 SS 110.18 MVA 5.78 kA 99.84 12.90 kA 30TX207C 11/0.4 30TX207C L 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX207C LV 0.43 0.00 0.00 0.95 28.70 MVA 38.27 kA -83.16 91.77 kA 38.27 28.70 38.27 38.79 30TX207C 11/0.4 Desands 30 28.70 MVA 38.27 kA 96.84 91.77 kA L-DOL 120kW 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 489k 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208A 11.00 0.00 0.00 1.00 113.10 MVA 5.94 kA -82.58 13.89 kA 4.46 84.90 5.94 6.01 Feeder 20MCC206 OPF2 SS 113.10 MVA 5.94 kA 97.42 13.89 kA 35TX208A 11/0.4 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208A 0.43 0.00 0.00 0.95 28.89 MVA 38.53 kA -83.83 93.72 kA 38.53 28.89 38.53 39.11 35TX208A 11/0.4 Jigging 35 28.89 MVA 38.53 kA 96.17 93.72 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL -110kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 1009 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208B 11.00 0.00 0.00 1.00 113.10 MVA 5.94 kA -82.58 13.89 kA 4.46 84.90 5.94 6.01 Feeder 20MCC206 OPF2 SS 113.10 MVA 5.94 kA 97.42 13.89 kA 35TX208B 11/0.4 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208B 0.43 0.00 0.00 0.95 32.90 MVA 43.87 kA -83.76 106.51 kA 43.87 32.90 43.87 44.53 35TX208B 11/0.4 Jigging 35 32.90 MVA 43.87 kA 96.24 106.51 kA L-DOL - 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped-DOL 1599 0.00 MVA 0.00 kA 0.00 0.00 kA 35TX208C HV 11.00 0.00 0.00 1.00 113.10 MVA 5.94 kA -82.58 13.89 kA 4.46 84.90 5.94 6.01 Feeder 20MCC206 OPF2 SS 113.10 MVA 5.94 kA 97.42 13.89 kA 35TX208C 11/0.4 35TX208C L 0.00 MVA 0.00 kA 0.00 0.00 kA 35TX208C LV 0.43 0.00 0.00 0.95 23.10 MVA 30.80 kA -83.92 75.15 kA 30.80 23.10 30.80 31.28

Page 134: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 12 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 35TX208C 11/0.4 35TX208C H 23.10 MVA 30.80 kA 96.08 75.15 kA L-DOL 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL - 14 0.00 MVA 0.00 kA 0.00 0.00 kA 20MCC206B 3.30 0.00 0.00 1.00 39.65 MVA 6.94 kA -84.90 17.25 kA 6.93 39.60 6.94 7.06 Feeder 20TX206A 20TX206A L 39.65 MVA 6.94 kA 95.10 17.25 kA Feed to Cone Cr Cone Crush 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master VSD 2 0.69 0.00 0.00 0.95 13.76 MVA 11.51 kA -75.15 23.77 kA 11.51 13.76 11.51 11.59 20TX207D 3.3kV/ Tails Pump HPGR Maste 13.76 MVA 11.51 kA 104.85 23.77 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master Star 0.69 0.00 0.00 0.95 13.76 MVA 11.51 kA -75.15 23.77 kA 11.51 13.76 11.51 11.59 20TX207D 3.3kV/ Tails Pump HPGR Maste 13.76 MVA 11.51 kA 104.85 23.77 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump D 3.3 3.30 0.00 0.00 1.00 30.04 MVA 5.26 kA -65.05 9.36 kA 5.26 30.04 5.26 5.28 20TX207D 3.3kV/ HPGR Maste HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 30.04 MVA 5.26 kA 114.95 9.36 kA HPGR Follower Del 0.69 0.00 0.00 0.95 13.74 MVA 11.50 kA -75.07 23.71 kA 11.50 13.74 11.50 11.57 20TX207E 3.3kV/ Tails Pump HPGR Follo 13.74 MVA 11.50 kA 104.93 23.71 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Follower Sta 0.69 0.00 0.00 0.95 13.74 MVA 11.50 kA -75.07 23.71 kA 11.50 13.74 11.50 11.57 20TX207E 3.3kV/ Tails Pump HPGR Follo 13.74 MVA 11.50 kA 104.93 23.71 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump E 3.3k 3.30 0.00 0.00 1.00 29.96 MVA 5.24 kA -64.91 9.32 kA 5.24 29.96 5.24 5.26 20TX207E 3.3kV/ HPGR Follo HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 29.96 MVA 5.24 kA 115.09 9.32 kA 11MCC202B 690V 0.69 0.00 0.00 0.95 40.50 MVA 33.89 kA -78.91 74.52 kA 33.74 40.32 33.89 34.17 11TX202C 700/43 11MCC202C 0.00 MVA 0.00 kA 0.00 0.00 kA Bustie 11MCC202 11MCC202A 20.25 MVA 16.95 kA 101.08 37.27 kA Feeder to OLC D 11TX202B L 20.25 MVA 16.94 kA 101.10 37.25 kA REC032 OLC 33.00 0.00 0.00 1.00 61.85 MVA 1.08 kA -78.22 2.34 kA 1.02 58.15 1.08 1.09 Feeder PL4005 t PL4005 OLC 61.69 MVA 1.08 kA 102.00 2.34 kA 11TX202B 33/0.7 11TX202B L 0.28 MVA 0.00 kA 45.91 0.01 kA 11MCC202C OLC MCC 0.41 0.00 0.00 0.95 8.04 MVA 11.18 kA -83.16 26.90 kA 11.18 8.04 11.18 11.34 11TX202C 700/43 11MCC202B 8.04 MVA 11.18 kA 96.84 26.90 kA L-DOL - 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 135: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 13 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 219. 0.00 MVA 0.00 kA 0.00 0.00 kA EPCM Office 0.41 0.00 0.00 0.95 7.85 MVA 10.92 kA -66.03 19.71 kA 10.92 7.85 10.92 10.96 MCC902-P-02 Sub018 7.85 MVA 10.92 kA 113.97 19.71 kA Laboratory 0.41 0.00 0.00 0.95 7.85 MVA 10.92 kA -66.03 19.71 kA 10.92 7.85 10.92 10.96 MCC902-P-03 Sub018 7.85 MVA 10.92 kA 113.97 19.71 kA Cone Crushers 3.3 3.30 0.00 0.00 1.00 38.68 MVA 6.77 kA -81.74 15.74 kA 6.77 38.68 6.77 6.84 Feed to Cone Cr 20MCC206B 38.68 MVA 6.77 kA 98.26 15.74 kA HPGR Main Motor 2 0.69 0.00 0.00 0.95 13.48 MVA 11.28 kA -73.72 22.75 kA 11.28 13.48 11.28 11.35 Feeder HPGR Mas HPGR Maste 13.48 MVA 11.28 kA 106.28 22.75 kA HPGR Main Motor 2 0.69 0.00 0.00 0.95 13.48 MVA 11.28 kA -73.72 22.75 kA 11.28 13.48 11.28 11.35 Feeder HPGR Mas HPGR Maste 13.48 MVA 11.28 kA 106.28 22.75 kA HPGR Follower Mot 0.69 0.00 0.00 0.95 13.47 MVA 11.27 kA -73.64 22.69 kA 11.27 13.47 11.27 11.33 Feeder HPGR Fol HPGR Follo 13.47 MVA 11.27 kA 106.36 22.69 kA HPGR Follower Mot 0.69 0.00 0.00 0.95 13.47 MVA 11.27 kA -73.64 22.69 kA 11.27 13.47 11.27 11.33 Feeder HPGR Fol HPGR Follo 13.47 MVA 11.27 kA 106.36 22.69 kA PL10XX (Fuel Unlo 33.00 0.00 0.00 1.00 69.17 MVA 1.21 kA -82.83 2.87 kA 1.11 63.31 1.21 1.23 Feeder TF001 to RMU001 69.17 MVA 1.21 kA 97.17 2.87 kA Feeder from OHL Tx HV Fuel 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10062 0.00 MVA 0.00 kA 0.00 0.00 kA Fuel Unload RCDOS 0.41 0.00 0.00 0.95 2.44 MVA 3.39 kA -50.23 5.27 kA 3.39 2.44 3.39 3.40 150mm Cu XLPE 4 Tx LV Fuel 2.44 MVA 3.39 kA 129.77 5.27 kA L-DOL 30kW(1) 0.00 MVA 0.00 kA 0.00 0.00 kA 120kW Lumped 0.00 MVA 0.00 kA 0.00 0.00 kA TF004 HV 33.00 0.00 0.00 1.00 66.84 MVA 1.17 kA -81.40 2.69 kA 1.08 61.72 1.17 1.18 TF004 100kvA 33 SWB004 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL10062 PL10062 66.84 MVA 1.17 kA 98.60 2.69 kA PL4004 OLC A 33.00 0.00 0.00 1.00 62.12 MVA 1.09 kA -78.57 2.37 kA 1.02 58.35 1.09 1.10 Feeder RMU010 t PL4003 33k 62.12 MVA 1.09 kA 101.43 2.37 kA Feeder PL4004 t REC031 OLC 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4004 to P PL4005 OLC 0.00 MVA 0.00 kA 0.00 0.00 kA PL4005 OLC B 33.00 0.00 0.00 1.00 62.10 MVA 1.09 kA -78.56 2.37 kA 1.02 58.34 1.09 1.10 Feeder PL4005 t REC032 OLC 0.01 MVA 0.00 kA 67.86 0.00 kA OHL PL4004 to P PL4004 OLC 62.09 MVA 1.09 kA 101.45 2.37 kA OHL PL4005 to P PL4007 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 136: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 14 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] PL5059 33.00 0.00 0.00 1.00 57.36 MVA 1.00 kA -75.82 2.08 kA 0.96 54.74 1.00 1.01 OHL PL5043 to P PL5043 57.36 MVA 1.00 kA 104.18 2.08 kA PL5059 to REC03 REC037 0.00 MVA 0.00 kA 0.00 0.00 kA PL5043 33.00 0.00 0.00 1.00 58.26 MVA 1.02 kA -76.33 2.14 kA 0.97 55.44 1.02 1.03 OHL PL5028 to P PL5028 58.26 MVA 1.02 kA 103.67 2.14 kA Feeder PL5043 t TF035 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5043 to P PL5059 0.00 MVA 0.00 kA 0.00 0.00 kA PL5028 33.00 0.00 0.00 1.00 59.18 MVA 1.04 kA -76.86 2.19 kA 0.98 56.15 1.04 1.04 OHL PL5005 to P PL5005 59.18 MVA 1.04 kA 103.14 2.19 kA Feeder PL5028 t TF034 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5028 to P PL5043 0.00 MVA 0.00 kA 0.00 0.00 kA PL5005 33.00 0.00 0.00 1.00 60.13 MVA 1.05 kA -77.41 2.25 kA 0.99 56.87 1.05 1.06 OHL PL5005 to P PL5028 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4007 to P PL4007 60.13 MVA 1.05 kA 102.59 2.25 kA Feeder PL5005 t TF033 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL4007 33.00 0.00 0.00 1.00 61.10 MVA 1.07 kA -77.97 2.31 kA 1.01 57.60 1.07 1.08 OHL PL4005 to P PL4005 OLC 61.10 MVA 1.07 kA 102.03 2.31 kA OHL PL4007 to P PL4008 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4007 to P PL5005 0.00 MVA 0.00 kA 0.00 0.00 kA PL4008 33.00 0.00 0.00 1.00 59.82 MVA 1.05 kA -76.50 2.20 kA 0.99 56.64 1.05 1.05 OHL PL4007 to P PL4007 59.82 MVA 1.05 kA 103.50 2.20 kA OHL PL4008 to O Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4017 0.00 MVA 0.00 kA 0.00 0.00 kA TF033 HV 33.00 0.00 0.00 1.00 59.92 MVA 1.05 kA -77.13 2.23 kA 0.99 56.71 1.05 1.06 TF033 33/0.433k TF033 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5005 t PL5005 59.92 MVA 1.05 kA 102.87 2.23 kA TF034 HV 33.00 0.00 0.00 1.00 58.98 MVA 1.03 kA -76.59 2.17 kA 0.98 56.00 1.03 1.04 TF034 33/0.433k TF034 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5028 t PL5028 58.98 MVA 1.03 kA 103.41 2.17 kA TF035 HV 33.00 0.00 0.00 1.00 58.06 MVA 1.02 kA -76.07 2.12 kA 0.97 55.29 1.02 1.02 TF035 33/0.433k TF035 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5043 t PL5043 58.06 MVA 1.02 kA 103.93 2.12 kA TF033 LV 0.43 0.00 0.00 0.95 21.41 MVA 28.54 kA -80.17 64.49 kA 28.54 21.41 28.54 28.82 TF033 33/0.433k TF033 HV 21.41 MVA 28.54 kA 99.83 64.49 kA TF034 LV 0.43 0.00 0.00 0.95 21.28 MVA 28.38 kA -79.95 63.84 kA 28.38 21.28 28.38 28.65

Page 137: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 15 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF034 33/0.433k TF034 HV 21.28 MVA 28.38 kA 100.05 63.84 kA TF035 LV 0.41 0.00 0.00 0.95 19.44 MVA 27.04 kA -79.73 60.57 kA 27.04 19.44 27.04 27.29 TF035 33/0.433k TF035 HV 19.44 MVA 27.04 kA 100.27 60.57 kA 10TX201 HV 33.00 0.00 0.00 1.00 56.28 MVA 0.98 kA -74.87 2.01 kA 0.94 53.90 0.98 0.99 Feeder REC037 t REC037 56.28 MVA 0.98 kA 105.13 2.01 kA 10TX201 33/0.43 Primary Cr 0.00 MVA 0.00 kA 0.00 0.00 kA Primary Crushing 0.41 0.00 0.00 0.95 19.70 MVA 27.41 kA -80.53 62.36 kA 27.41 19.70 27.41 27.68 10TX201 33/0.43 10TX201 HV 19.70 MVA 27.41 kA 99.47 62.36 kA L-DOL 30kW - 10 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 177. 0.00 MVA 0.00 kA 0.00 0.00 kA REC037 33.00 0.00 0.00 1.00 56.48 MVA 0.99 kA -75.32 2.04 kA 0.95 54.06 0.99 0.99 Feeder REC037 t 10TX201 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL5059 to REC03 PL5059 56.48 MVA 0.99 kA 104.68 2.04 kA Construction Camp 33.00 0.00 0.00 1.00 60.13 MVA 1.05 kA -74.89 2.15 kA 1.00 56.91 1.05 1.06 TF011 33/0.418k LV DB Cons 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU011 t RMU012/SUB 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t PL1075 60.13 MVA 1.05 kA 105.11 2.15 kA RMU012/SUB012 33.00 0.00 0.00 1.00 60.13 MVA 1.05 kA -74.88 2.15 kA 1.00 56.90 1.05 1.06 Feeder RMU011 t Constructi 60.13 MVA 1.05 kA 105.12 2.15 kA TF012 33/0.418k LV SUB012 0.00 MVA 0.00 kA 0.00 0.00 kA Gatehouse RMU 33.00 0.00 0.00 1.00 71.23 MVA 1.25 kA -82.24 2.91 kA 1.13 64.70 1.25 1.26 Gatehouse 33/0. Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU001 71.23 MVA 1.25 kA 97.76 2.91 kA Gatehouse TX LV 0.43 0.00 0.00 0.95 17.93 MVA 23.91 kA -85.20 60.06 kA 23.91 17.93 23.91 24.38 Gatehouse 33/0. Gatehouse 17.93 MVA 23.91 kA 94.80 60.06 kA Ops Office 33kV 33.00 0.00 0.00 1.00 59.69 MVA 1.04 kA -76.35 2.19 kA 0.99 56.55 1.04 1.05 Ops Office 33/0 Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4008 to O PL4008 59.69 MVA 1.04 kA 103.65 2.19 kA Ops Office 415V 0.41 0.00 0.00 0.95 4.12 MVA 5.73 kA -71.45 11.17 kA 5.73 4.12 5.73 5.76 Ops Office 33/0 Ops Office 4.12 MVA 5.73 kA 108.55 11.17 kA PL4017 33.00 0.00 0.00 1.00 59.72 MVA 1.04 kA -76.44 2.19 kA 0.99 56.57 1.04 1.05 Feeder PL4017 t RMU017 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4008 59.72 MVA 1.04 kA 103.56 2.19 kA PS Services 0.43 0.00 0.00 0.95 16.76 MVA 22.35 kA -76.68 47.35 kA 22.35 16.76 22.35 22.51

Page 138: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 16 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF005 11/0.433k PowerStati 16.76 MVA 22.35 kA 103.32 47.35 kA 11MCC202A 690V 0.69 0.00 0.00 0.95 40.50 MVA 33.89 kA -78.91 74.52 kA 33.74 40.32 33.89 34.17 Bustie 11MCC202 11MCC202B 20.25 MVA 16.94 kA 101.10 37.25 kA Feeder to OLC D 11TX202A L 20.25 MVA 16.95 kA 101.08 37.27 kA RC031-MC02 Reclai 0.41 0.00 0.00 0.95 19.68 MVA 27.39 kA -81.87 64.03 kA 27.39 19.68 27.39 27.71 RC031-TF01 11kV RC031 Recl 19.68 MVA 27.39 kA 98.13 64.03 kA 4kW Motor 0.00 MVA 0.00 kA 0.00 0.00 kA 11TX202B LV 0.69 0.00 0.00 0.95 41.01 MVA 34.32 kA -79.30 76.13 kA 34.12 40.78 34.32 34.62 Feeder to OLC D 11MCC202B 16.18 MVA 13.54 kA 104.68 30.03 kA 11TX202B 33/0.7 REC032 OLC 24.90 MVA 20.83 kA 98.12 46.21 kA 11TX202A LV 0.69 0.00 0.00 0.95 41.01 MVA 34.32 kA -79.30 76.14 kA 34.12 40.78 34.32 34.62 11TX202A 33/0.7 REC031 OLC 24.91 MVA 20.84 kA 98.10 46.23 kA Feeder to OLC D 11MCC202A 16.17 MVA 13.53 kA 104.70 30.02 kA Secondary & Terti 0.41 0.00 0.00 0.95 30.08 MVA 41.85 kA -84.80 103.94 kA 41.85 30.08 41.85 42.59 20TX205 11/0.43 20TX205 HV 30.08 MVA 41.85 kA 95.20 103.94 kA L-DOL 150kW Con 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 37kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 34kW 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 37kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 56kW 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL - 37kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL- 56k 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL -132kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 45kW 0.00 MVA 0.00 kA 0.00 0.00 kA LV DB Constructio 0.41 0.00 0.00 0.95 25.93 MVA 36.08 kA -79.97 81.14 kA 36.08 25.93 36.08 36.42 TF011 33/0.418k Constructi 25.93 MVA 36.08 kA 100.03 81.14 kA LV SUB012 0.41 0.00 0.00 0.95 25.93 MVA 36.08 kA -79.97 81.14 kA 36.08 25.93 36.08 36.42 TF012 33/0.418k RMU012/SUB 25.93 MVA 36.08 kA 100.03 81.14 kA

Page 139: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Max. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Automatic Neglection Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Max. Loading (Peak) 80.00 % Max. Loading (Interrupting) 80.00 % Max. Loading (Thermal) 80.00 % Fortescue SC-1 DIgSILENT Project: XMAS CREEK Metals Group 6 Generators in Service (No Load Flow) PowerFactory Maximum Short Circuit Currents 14.1.4 Date: 4/24/2013 Study Case: Study Case Annex: / 1 Overloaded Busbars/Terminals Nominal Thermal equivalent Current Peak Short-Circuit Current Name Type Voltage Nominal ( 1.0 s) Actual Loading Nominal Actual Loading [kV] [kA] [kA] [kA] [% ] [kA] [kA] [%] 30TX207B LV 415V 65kA 1s 0.43 65.00 (1s) 65.00 52.43 80.66 0.00 120.92 0.00 30TX207C LV 415V 65kA 1s 0.43 65.00 (1s) 65.00 53.01 81.55 0.00 122.40 0.00 Kiosk Substation Sub018 30kA 0.415V 0.41 30.00 (1s) 30.00 26.30 87.67 0.00 54.26 0.00 Secondary & Tertiray Crushing (20MCC2415V 65kA 1s 0.41 65.00 (1s) 65.00 56.99 87.67 0.00 134.33 0.00

Page 140: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Study Case: Study Case Annex: / 2 Overloaded Branches Thermal equivalent Current Name Type Terminal i Terminal j Nominal(1s) ( 1.0 s) Actual Loading [kA] [kA] [kA] [%] Feeder 20MCC206A to 12TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX203 HV 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 15TX204A HV 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX204B HV 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 20TX205 HV 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Master 20.. 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Follower .. 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 9.01 100.22 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 35TX208C HV 8.99 8.99 9.01 100.22 Feeder 20MCC206B to 20TX2 Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump D .. 8.99 8.99 8.74 97.20 Feeder 20MCC206B to Tails Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump E 3.. 8.99 8.99 8.74 97.20 Feeder HV901 to CV201-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Plant Output C.. 7.15 7.15 9.11 127.40 Feeder HV901 to CV401-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. CV401-EM01/EM02 7.15 7.15 9.11 127.40 Feeder HV901 to RC031 600 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. RC031 Reclaimer 7.15 7.15 9.11 127.40 Feeder HV901 to TF801 Tx Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF801 HV - Tra.. 7.15 7.15 9.11 127.40 Feeder HV901 to TF901 20m Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF901 HV 7.15 7.15 9.11 127.40 Feeder to SK703 Med Point Olex 6.35/11kV 50mm Lne HV901/Stockyar.. SK703-TF01 TX HV 7.15 7.15 9.11 127.40

Page 141: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Fortescue SC-1 DIgSILENT Project: XMAS CREEK Metals Group 6 Generators in Service (No Load Flow) PowerFactory Maximum Short Circuit Currents 14.1.4 Date: 4/24/2013 Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Max. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Automatic Neglection Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Grid: Christmas Creek System Stage: Christmas Creek Annex: / 1 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] HV901 Stockyard Subst 11.00 0.00 0.00 1.10 196.31 MVA 10.30 kA -81.17 24.32 kA 6.38 121.60 6.86 9.11 Alternate Feede HV902-11kV 83.15 MVA 4.36 kA 96.38 10.30 kA FE-04 - PS to H PowerStati 107.63 MVA 5.65 kA 100.61 13.34 kA Feeder HV901 to Plant Outp 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to CV401-EM01 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Train Load 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to RC031 Recl 0.04 MVA 0.00 kA 95.71 0.00 kA Feeder HV901 to TF801 HV - 1.45 MVA 0.08 kA 95.95 0.18 kA Feeder HV901 to TF901 HV 0.30 MVA 0.02 kA 103.43 0.04 kA Feeder to SK703 SK703-TF01 3.87 MVA 0.20 kA 102.63 0.48 kA HV902-11kV Stockyard Subst 11.00 0.00 0.00 1.10 196.26 MVA 10.30 kA -81.18 24.32 kA 6.38 121.58 6.86 9.11 Alternate Feede HV901 90.77 MVA 4.76 kA 100.36 11.25 kA OPF1 Incomer 1 OPF1 18.26 MVA 0.96 kA 110.99 2.26 kA Power Station F PowerStati 87.91 MVA 4.61 kA 94.73 10.89 kA MC901 MC901 415V 0.41 0.00 0.00 1.05 9.35 MVA 13.00 kA -83.87 31.91 kA 12.65 9.10 12.30 13.21 TF901 11/0.433k TF901 HV 9.08 MVA 12.63 kA 95.91 30.99 kA 19.5kW Lumped D 0.13 MVA 0.18 kA 112.78 0.44 kA L-DOL 15kW 0.15 MVA 0.20 kA 95.71 0.50 kA MCC902 Turkeys Nest 0.41 0.00 0.00 1.05 10.38 MVA 14.43 kA -67.49 26.62 kA 13.37 9.61 12.72 14.49 MCC902-P-01 Sub018 9.36 MVA 13.03 kA 112.49 24.03 kA 22kW DOL 0.14 MVA 0.20 kA 112.78 0.37 kA

Page 142: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 2 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] L-DOL 132kW 0.87 MVA 1.21 kA 112.78 2.22 kA OPF1 20MCC04 11.00 0.00 0.00 1.10 195.68 MVA 10.27 kA -81.11 24.21 kA 6.38 121.51 6.84 9.08 Feeder HV902 to 20MCC04 17.22 MVA 0.90 kA 110.88 2.13 kA OPF1 Incomer 1 HV902-11kV 177.86 MVA 9.34 kA 97.65 22.01 kA TF008 11/0.433k Sub018 1.05 MVA 0.05 kA 112.83 0.13 kA OPF2 SS 20MCC206A OPF2 11.00 0.00 0.00 1.10 194.40 MVA 10.20 kA -81.01 24.00 kA 6.36 121.22 6.78 9.01 FE-07 to OPF2-A PowerStati 0.00 MVA 0.00 kA 0.00 0.00 kA FE-08 to OPF2-B PowerStati 156.25 MVA 8.20 kA 96.30 19.29 kA Feeder 20MCC206 12TX203 HV 0.50 MVA 0.03 kA 112.58 0.06 kA Feeder 20MCC206 15TX204A H 1.51 MVA 0.08 kA 112.25 0.19 kA Feeder 20MCC206 12TX204B H 2.25 MVA 0.12 kA 112.02 0.28 kA Feeder 20MCC206 20TX205 HV 4.05 MVA 0.21 kA 111.52 0.50 kA Feeder 20MCC206 20TX206A H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 2.95 MVA 0.15 kA 111.79 0.36 kA Feeder 20MCC206 Desands 30 3.17 MVA 0.17 kA 111.76 0.39 kA Feeder 20MCC206 Desands 30 4.51 MVA 0.24 kA 107.04 0.56 kA Feeder 20MCC206 Jigging 35 7.10 MVA 0.37 kA 110.30 0.88 kA Feeder 20MCC206 Jigging 35 10.60 MVA 0.56 kA 109.72 1.31 kA Feeder 20MCC206 35TX208C H 2.41 MVA 0.13 kA 102.32 0.30 kA PowerStation Power Station B 11.00 0.00 0.00 1.10 197.71 MVA 10.38 kA -81.36 24.59 kA 6.39 121.75 6.90 9.17 FE-04 - PS to H HV901 12.46 MVA 0.65 kA 111.09 1.55 kA FE-07 to OPF2-A OPF2 SS 0.00 MVA 0.00 kA 0.00 0.00 kA FE-08 to OPF2-B OPF2 SS 38.80 MVA 2.04 kA 109.85 4.83 kA FE-09 PS to TF0 OHL East T 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PS to TF OHL West T 5.40 MVA 0.28 kA 109.27 0.67 kA Power Station F HV902-11kV 11.38 MVA 0.60 kA 105.93 1.42 kA TF005 11/0.433k PS Service 0.00 MVA 0.00 kA 0.00 0.00 kA Eathing Tx ZigZ 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 01 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 02 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 03 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 04 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 05 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 06 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 07 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 08 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 09 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 10 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 143: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 3 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Generator 11 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 12 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 13 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 14 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 15 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 16 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 17 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 18 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 19 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 20 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 21 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 22 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 23 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 24 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 25 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 26 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 27 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 28 0.00 MVA 0.00 kA 0.00 0.00 kA RMU001 Power StationRM 33.00 0.00 0.00 1.10 107.31 MVA 1.88 kA -82.51 4.53 kA 1.56 89.12 1.43 1.73 Feeder RMU001 t Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU010 Pow 4.69 MVA 0.08 kA 109.14 0.20 kA Feeder TF001 to PL10XX (Fu 0.84 MVA 0.01 kA 112.34 0.04 kA TF001 11/33kV 1 OHL West T 101.91 MVA 1.78 kA 96.84 4.30 kA RMU017 CCY1 33.00 0.00 0.00 1.10 80.44 MVA 1.41 kA -73.52 2.86 kA 1.28 73.21 1.13 1.42 CCY1-RMU017-P1 HV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P2 HV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P3 HV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P4 HV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4017 t PL4017 80.44 MVA 1.41 kA 106.48 2.86 kA SWB004 Switchroom Tels 0.43 0.00 0.00 1.05 2.61 MVA 3.48 kA -67.52 6.42 kA 3.48 2.61 3.46 3.50 Feeder TF004 to Telstra Hu 0.00 MVA 0.00 kA 0.00 0.00 kA TF004 100kvA 33 TF004 HV 2.61 MVA 3.48 kA 112.48 6.42 kA Sub018 Kiosk Substatio 0.41 0.00 0.00 1.05 18.78 MVA 26.13 kA -75.13 54.26 kA 25.24 18.14 23.64 26.30 MCC902-P-01 MCC902 0.96 MVA 1.34 kA 113.20 2.78 kA MCC902-P-02 EPCM Offic 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902-P-03 Laboratory 0.00 MVA 0.00 kA 0.00 0.00 kA TF008 11/0.433k OPF1 17.83 MVA 24.81 kA 104.42 51.51 kA

Page 144: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 4 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] THLoad Telstra Hut Loa 0.43 0.00 0.00 1.05 1.45 MVA 1.93 kA -38.53 2.84 kA 1.93 1.45 1.92 1.93 SB004 to Telstr Telstra Hu 1.45 MVA 1.93 kA 141.47 2.84 kA TLO MC801 415V MC801 0.41 0.00 0.00 1.05 10.13 MVA 14.09 kA -82.77 33.71 kA 12.22 8.78 11.74 14.28 Feeder TF801 to TF801 LV - 8.65 MVA 12.03 kA 97.49 28.79 kA 105.4kW Lumped 0.86 MVA 1.19 kA 95.71 2.85 kA L-DOL 75kW 0.62 MVA 0.87 kA 95.71 2.07 kA Telstra Hut Telstra Hut DB 0.43 0.00 0.00 1.05 2.60 MVA 3.47 kA -67.38 6.39 kA 3.47 2.60 3.45 3.49 Feeder TF004 to SWB004 2.60 MVA 3.47 kA 112.62 6.39 kA SB004 to Telstr THLoad 0.00 MVA 0.00 kA 0.00 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.10 195.17 MVA 10.24 kA -81.02 24.11 kA 6.38 121.54 6.84 9.06 Feeder HV901 to HV901 195.17 MVA 10.24 kA 98.98 24.11 kA TF801 HV - Train 11.00 0.00 0.00 1.10 169.08 MVA 8.87 kA -68.04 16.84 kA 6.46 123.14 6.32 7.93 Feeder HV901 to HV901 167.69 MVA 8.80 kA 112.10 16.70 kA TF801 - Train L TF801 LV - 1.45 MVA 0.08 kA 95.83 0.14 kA TF801 LV - Train 0.41 0.00 0.00 1.05 10.49 MVA 14.59 kA -83.42 35.39 kA 12.75 9.16 12.23 14.81 TF801 - Train L TF801 HV - 9.02 MVA 12.55 kA 96.70 30.43 kA Feeder TF801 to TLO MC801 1.47 MVA 2.05 kA 95.85 4.96 kA Train Loadout Con 11.00 0.00 0.00 1.10 185.50 MVA 9.74 kA -75.35 20.66 kA 6.47 123.35 6.66 8.62 Feeder HV901 to HV901 185.50 MVA 9.74 kA 104.65 20.66 kA Reclaimer Conveyo 11.00 0.00 0.00 1.10 194.21 MVA 10.19 kA -79.96 23.50 kA 6.41 122.04 6.82 9.01 Feeder HV901 to HV901 194.21 MVA 10.19 kA 100.04 23.50 kA Plant Output Conv 11.00 0.00 0.00 1.10 185.50 MVA 9.74 kA -75.35 20.66 kA 6.47 123.35 6.66 8.62 Feeder HV901 to HV901 185.50 MVA 9.74 kA 104.65 20.66 kA CV401-EM01/EM02 11.00 0.00 0.00 1.10 145.34 MVA 7.63 kA -59.00 12.96 kA 6.19 117.84 5.78 6.93 Feeder HV901 to HV901 145.34 MVA 7.63 kA 121.00 12.96 kA TF901 HV 11.00 0.00 0.00 1.10 195.27 MVA 10.25 kA -80.56 23.91 kA 6.39 121.82 6.84 9.06 Feeder HV901 to HV901 194.97 MVA 10.23 kA 99.43 23.87 kA TF901 11/0.433k MC901 0.30 MVA 0.02 kA 103.43 0.04 kA 20MCC04 11.00 0.00 0.00 1.10 192.98 MVA 10.13 kA -80.80 23.72 kA 6.36 121.19 6.77 8.96 10TX01 11/0.433 10MCC01 Pr 1.12 MVA 0.06 kA 112.40 0.14 kA Feeder HV902 to OPF1 176.13 MVA 9.24 kA 98.07 21.65 kA 15TX02A 11/0.43 15MCC02A S 1.31 MVA 0.07 kA 112.32 0.16 kA

Page 145: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 5 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 15Tx02B 11/0.43 15MCC02B S 2.44 MVA 0.13 kA 106.09 0.30 kA 20Tx03 3500kVA 20MCC03 Se 5.31 MVA 0.28 kA 111.73 0.65 kA 20TX04A 11/3.3k Desands Ar 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04B 11/1.90 20TX04B De 20TX04B St 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04C 11/1.90 20TX04C De 20TX04C St 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX05A 11/0.43 30MCC05A 2.10 MVA 0.11 kA 112.13 0.26 kA 30TX05B 11/0.43 30MCC05B 4.97 MVA 0.26 kA 111.04 0.61 kA SK703-TF01 TX HV 11.00 0.00 0.00 1.10 167.18 MVA 8.77 kA -67.27 16.48 kA 6.44 122.67 6.26 7.84 SK703-TF01 11/0 SK703-TF01 3.88 MVA 0.20 kA 102.30 0.38 kA Feeder to SK703 HV901 163.36 MVA 8.57 kA 112.98 16.10 kA SK703-TF01 Stacke 0.43 0.00 0.00 1.05 27.38 MVA 36.51 kA -80.97 84.88 kA 32.31 24.23 29.10 33.98 SK703-TF01 11/0 SK703-TF01 23.11 MVA 30.81 kA 98.23 71.62 kA L-DOL 250kW 2.28 MVA 3.03 kA 95.71 7.05 kA 288.3kW Lumped 2.06 MVA 2.75 kA 111.80 6.38 kA RC031 Reclaimer 11.00 0.00 0.00 1.10 163.29 MVA 8.57 kA -65.64 15.73 kA 6.43 122.57 6.20 7.69 Feeder HV901 to HV901 163.25 MVA 8.57 kA 114.36 15.73 kA RC031-TF01 11kV RC031-MC02 0.04 MVA 0.00 kA 95.71 0.00 kA OHL West TF001 LV 11.00 0.00 0.00 1.10 197.44 MVA 10.36 kA -81.34 24.55 kA 6.39 121.73 6.90 9.16 Feeder PS to TF PowerStati 192.14 MVA 10.08 kA 98.36 23.89 kA TF001 11/33kV 1 RMU001 5.40 MVA 0.28 kA 109.27 0.67 kA OHL East TF012 LV 11.00 0.00 0.00 1.10 71.79 MVA 3.77 kA -83.29 9.19 kA 3.62 68.96 3.12 3.83 FE-09 PS to TF0 PowerStati 0.00 MVA 0.00 kA 0.00 0.00 kA TF012 11/33kV 1 RMU010 Pow 71.79 MVA 3.77 kA 96.71 9.19 kA RMU010 Power Stat 33.00 0.00 0.00 1.10 107.30 MVA 1.88 kA -82.51 4.53 kA 1.56 89.11 1.43 1.73 TF012 11/33kV 1 OHL East T 0.00 MVA 0.00 kA 0.00 0.00 kA PL4001-P1 U/G 1 PL4001 REC 4.69 MVA 0.08 kA 109.14 0.20 kA Feeder RMU001 t RMU001 102.71 MVA 1.80 kA 96.97 4.33 kA PL4001 REC001 33.00 0.00 0.00 1.10 107.18 MVA 1.88 kA -82.44 4.51 kA 1.56 89.05 1.43 1.73 PL4001-P1 U/G 1 RMU010 Pow 102.59 MVA 1.79 kA 97.04 4.32 kA OHL PL4001 to P PL4003 33k 4.69 MVA 0.08 kA 109.14 0.20 kA PL4003 33kV 33.00 0.00 0.00 1.10 101.66 MVA 1.78 kA -80.66 4.13 kA 1.50 85.78 1.37 1.64 OHL PL4001 to P PL4001 REC 97.03 MVA 1.70 kA 98.87 3.94 kA TF042 33/0.418k PL4426 Fue 0.88 MVA 0.02 kA 107.53 0.04 kA Feeder RMU010 t PL4004 OLC 3.82 MVA 0.07 kA 109.44 0.16 kA Tx HV Fuel Unload 33.00 0.00 0.00 1.10 97.64 MVA 1.71 kA -79.51 3.88 kA 1.46 83.68 1.33 1.58 Fuel Unload 33/ Tx LV Fuel 0.84 MVA 0.01 kA 112.33 0.03 kA Feeder from OHL PL10XX (Fu 96.81 MVA 1.69 kA 100.38 3.84 kA

Page 146: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 6 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Tx LV Fuel Unload 0.41 0.00 0.00 1.05 5.54 MVA 7.71 kA -70.81 14.98 kA 6.89 4.96 6.41 7.75 Fuel Unload 33/ Tx HV Fuel 4.67 MVA 6.50 kA 108.49 12.64 kA 150mm Cu XLPE 4 Fuel Unloa 0.87 MVA 1.21 kA 112.92 2.35 kA PL1075 33.00 0.00 0.00 1.10 90.03 MVA 1.58 kA -77.24 3.42 kA 1.38 79.00 1.25 1.46 Feeder PL10062 PL10062 90.03 MVA 1.58 kA 102.76 3.42 kA Feeder PL1075 t PL1081 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t Constructi 0.00 MVA 0.00 kA 0.00 0.00 kA PL10062 33.00 0.00 0.00 1.10 93.46 MVA 1.64 kA -78.26 3.62 kA 1.42 81.16 1.29 1.51 Feeder PL10062 PL1075 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10XX (Fu 93.46 MVA 1.64 kA 101.74 3.62 kA Feeder PL10062 TF004 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL1081 33.00 0.00 0.00 1.10 86.03 MVA 1.51 kA -76.06 3.20 kA 1.35 77.00 1.21 1.52 Feeder PL1075 t PL1075 86.03 MVA 1.51 kA 103.94 3.20 kA Feeder PL1081 t Kandama Vi 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Harridan Hill Tow 33.00 0.00 0.00 1.10 83.74 MVA 1.47 kA -75.38 3.08 kA 1.33 76.22 1.19 1.48 Harridan Hill P Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H PL1081 83.74 MVA 1.47 kA 104.62 3.08 kA REC031 OLC 33.00 0.00 0.00 1.10 86.31 MVA 1.51 kA -75.76 3.19 kA 1.34 76.39 1.20 1.40 Feeder PL4004 t PL4004 OLC 85.00 MVA 1.49 kA 104.34 3.14 kA 11TX202A 33/0.7 11TX202A L 1.32 MVA 0.02 kA 97.97 0.05 kA HV TF017-1 33.00 0.00 0.00 1.10 80.18 MVA 1.40 kA -73.38 2.85 kA 1.28 73.02 1.13 1.41 CCY1-RMU017-P1 RMU017 80.18 MVA 1.40 kA 106.62 2.85 kA TF017-1 33/0.43 LV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-2 33.00 0.00 0.00 1.10 80.25 MVA 1.40 kA -73.41 2.85 kA 1.28 73.07 1.13 1.41 CCY1-RMU017-P2 RMU017 80.25 MVA 1.40 kA 106.59 2.85 kA TF017-2 33/0.43 LV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-3 33.00 0.00 0.00 1.10 80.28 MVA 1.40 kA -73.43 2.85 kA 1.28 73.10 1.13 1.41 CCY1-RMU017-P3 RMU017 80.28 MVA 1.40 kA 106.57 2.85 kA TF017-3 33/0.43 LV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-4 33.00 0.00 0.00 1.10 80.17 MVA 1.40 kA -73.37 2.85 kA 1.28 73.02 1.13 1.41 CCY1-RMU017-P4 RMU017 80.17 MVA 1.40 kA 106.63 2.85 kA TF017-4 33/0.43 LV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA LV TF017-1 Admin 0.43 0.00 0.00 1.05 13.93 MVA 18.57 kA -82.14 43.88 kA 18.57 13.93 17.77 18.80 TF017-1 33/0.43 HV TF017-1 13.93 MVA 18.57 kA 97.86 43.88 kA

Page 147: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 7 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] LV TF017-2 Ancill 0.43 0.00 0.00 1.05 13.93 MVA 18.58 kA -82.15 43.89 kA 18.58 13.93 17.77 18.81 TF017-2 33/0.43 HV TF017-2 13.93 MVA 18.58 kA 97.85 43.89 kA LV TF017-3 HV W/S 0.43 0.00 0.00 1.05 20.03 MVA 26.71 kA -82.94 64.22 kA 26.71 20.03 25.08 27.08 TF017-3 33/0.43 HV TF017-3 20.03 MVA 26.71 kA 97.06 64.22 kA LV TF017-4 Gulf W 0.43 0.00 0.00 1.05 13.93 MVA 18.57 kA -82.14 43.88 kA 18.57 13.93 17.77 18.80 TF017-4 33/0.43 HV TF017-4 13.93 MVA 18.57 kA 97.86 43.88 kA Kandama Village R 33.00 0.00 0.00 1.10 84.44 MVA 1.48 kA -75.59 3.12 kA 1.33 75.89 1.19 1.49 Feeder PL1081 t PL1081 84.44 MVA 1.48 kA 104.41 3.12 kA 08TF002 33/11kV RMU-05 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-05 11.00 0.00 0.00 1.10 43.53 MVA 2.28 kA -78.99 5.10 kA 2.27 43.16 2.01 2.31 08TF002 33/11kV Kandama Vi 43.53 MVA 2.28 kA 101.01 5.10 kA Connectin RMU-0 RMU-06 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-04 11.00 0.00 0.00 1.10 43.35 MVA 2.28 kA -78.88 5.07 kA 2.26 42.98 2.00 2.30 Tx-004 11/0.415 Waste Wate 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder from Tx0 RMU-06 43.35 MVA 2.28 kA 101.12 5.07 kA Feeder RMU-04 t RMU-03 0.00 MVA 0.00 kA 0.00 0.00 kA Waste Water Treat 0.41 0.00 0.00 1.05 13.54 MVA 18.84 kA -81.24 43.72 kA 18.84 13.54 18.03 19.05 Tx-004 11/0.415 RMU-04 13.54 MVA 18.84 kA 98.76 43.72 kA RMU-06 11.00 0.00 0.00 1.10 43.52 MVA 2.28 kA -78.99 5.10 kA 2.26 43.15 2.01 2.31 Feeder from Tx0 RMU-04 0.00 MVA 0.00 kA 0.00 0.00 kA Connectin RMU-0 RMU-05 43.52 MVA 2.28 kA 101.01 5.10 kA RMU-03 11.00 0.00 0.00 1.10 43.16 MVA 2.27 kA -78.64 5.02 kA 2.25 42.80 2.00 2.29 Feeder RMU-04 t RMU-04 43.16 MVA 2.27 kA 101.36 5.02 kA Feeder RMU-03 t RMU-02 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-003 11/0.415 TX-003 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-02 11.00 0.00 0.00 1.10 42.98 MVA 2.26 kA -78.40 4.98 kA 2.24 42.62 1.99 2.28 Feeder RMU-03 t RMU-03 42.98 MVA 2.26 kA 101.60 4.98 kA Feeder RMU-02 t RMU-01 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-002 11/0.415 TX-002 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-01 11.00 0.00 0.00 1.10 42.80 MVA 2.25 kA -78.16 4.93 kA 2.23 42.50 1.98 2.27 Feeder RMU-02 t RMU-02 42.80 MVA 2.25 kA 101.84 4.93 kA Tx-001 11/0.415 TX-001 LV 0.00 MVA 0.00 kA 0.00 0.00 kA TX-003 LV 0.41 0.00 0.00 1.05 13.52 MVA 18.82 kA -81.16 43.59 kA 18.82 13.52 18.01 19.02 Tx-003 11/0.415 RMU-03 13.52 MVA 18.82 kA 98.84 43.59 kA

Page 148: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 8 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TX-002 LV 0.41 0.00 0.00 1.05 13.51 MVA 18.79 kA -81.08 43.46 kA 18.79 13.51 17.99 19.00 Tx-002 11/0.415 RMU-02 13.51 MVA 18.79 kA 98.92 43.46 kA TX-001 LV 0.41 0.00 0.00 1.05 13.49 MVA 18.77 kA -81.00 43.33 kA 18.77 13.49 17.97 18.97 Tx-001 11/0.415 RMU-01 13.49 MVA 18.77 kA 99.00 43.33 kA Harridan Hill Tow 0.41 0.00 0.00 1.05 2.39 MVA 3.33 kA -67.47 6.13 kA 3.33 2.39 3.30 3.34 Harridan Hill P Harridan H 2.39 MVA 3.33 kA 112.53 6.13 kA 10MCC01 Primary C 0.43 0.00 0.00 1.05 38.76 MVA 51.68 kA -83.13 125.39 kA 50.71 38.03 45.68 52.44 10TX01 11/0.433 20MCC04 37.70 MVA 50.27 kA 96.41 121.98 kA L-DOL 45kW 0.32 MVA 0.43 kA 112.78 1.04 kA 108.5kW DOL 0.78 MVA 1.03 kA 112.78 2.51 kA 15MCC02A Screenin 0.43 0.00 0.00 1.05 37.84 MVA 50.46 kA -83.06 122.32 kA 49.34 37.00 44.48 51.20 15TX02A 11/0.43 20MCC04 36.61 MVA 48.81 kA 96.39 118.33 kA DOL Wet Sizing 0.64 MVA 0.86 kA 112.78 2.08 kA 90kW DOL- 0.64 MVA 0.86 kA 112.78 2.08 kA 15MCC02B Screenin 0.43 0.00 0.00 1.05 38.98 MVA 51.98 kA -82.96 125.85 kA 49.63 37.22 44.48 52.74 15Tx02B 11/0.43 20MCC04 36.56 MVA 48.75 kA 96.39 118.04 kA L-DOL-90kW 0.89 MVA 1.19 kA 95.71 2.89 kA 222kW DOL 1.59 MVA 2.11 kA 112.78 5.12 kA 20MCC03 Secondary 0.41 0.00 0.00 1.05 46.06 MVA 64.08 kA -81.69 152.50 kA 59.98 43.12 51.42 64.92 20Tx03 3500kVA 20MCC04 41.18 MVA 57.30 kA 96.50 136.35 kA Feeder Area 15 Area 20 MC 4.48 MVA 6.23 kA 113.24 14.83 kA L-DOL 90kW 0.59 MVA 0.82 kA 112.78 1.96 kA Area 20 MCC03 20C 0.41 0.00 0.00 1.05 28.98 MVA 40.32 kA -72.81 80.80 kA 35.43 25.46 31.35 37.02 Feeder Area 15 20MCC03 Se 24.13 MVA 33.57 kA 106.06 67.28 kA L-DOL Lube 2 Co 0.98 MVA 1.37 kA 112.78 2.74 kA L-DOL Dust Extr 0.87 MVA 1.21 kA 112.78 2.42 kA DOL 74kW 0.49 MVA 0.68 kA 112.78 1.35 kA DOL 74kW(1) 0.49 MVA 0.68 kA 112.78 1.35 kA L-DOL Lube 1 Co 0.98 MVA 1.37 kA 112.78 2.74 kA DOL 163kW 1.07 MVA 1.49 kA 112.78 2.98 kA Desands Area 15/2 3.30 0.00 0.00 1.10 40.02 MVA 7.00 kA -83.57 17.09 kA 7.00 40.02 6.35 7.11 20TX04A 11/3.3k 20MCC04 40.02 MVA 7.00 kA 96.43 17.09 kA PL4426 Fuel Stora 0.42 0.00 0.00 1.05 5.68 MVA 7.85 kA -71.74 15.46 kA 6.78 4.91 6.47 7.89 TF042 33/0.418k PL4003 33k 4.75 MVA 6.57 kA 108.45 12.94 kA L-DOL Loading P 0.30 MVA 0.42 kA 95.71 0.83 kA 94kW Motor Lump 0.63 MVA 0.88 kA 112.78 1.72 kA

Page 149: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 9 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 20TX04B Delta LV 1.90 0.00 0.00 1.10 24.50 MVA 7.43 kA -83.85 18.20 kA 7.43 24.50 6.98 7.54 20TX04B 11/1.90 20MCC04 20TX04B St 24.50 MVA 7.43 kA 96.15 18.20 kA 20TX04B Star LV 1.90 0.00 0.00 1.10 24.50 MVA 7.43 kA -83.85 18.20 kA 7.43 24.50 6.98 7.54 20TX04B 11/1.90 20MCC04 20TX04B De 24.50 MVA 7.43 kA 96.15 18.20 kA 20TX04C Delta LV 1.90 0.00 0.00 1.10 24.50 MVA 7.43 kA -83.85 18.20 kA 7.43 24.50 6.98 7.54 20TX04C 11/1.90 20MCC04 20TX04C St 24.50 MVA 7.43 kA 96.15 18.20 kA 20TX04C Star LV 1.90 0.00 0.00 1.10 24.50 MVA 7.43 kA -83.85 18.20 kA 7.43 24.50 6.98 7.54 20TX04C 11/1.90 20MCC04 20TX04C De 24.50 MVA 7.43 kA 96.15 18.20 kA 30MCC05A 0.43 0.00 0.00 1.05 42.26 MVA 56.34 kA -82.76 136.02 kA 54.62 40.96 48.52 57.15 30TX05A 11/0.43 20MCC04 40.26 MVA 53.68 kA 96.45 129.58 kA L-DOL 110kW 0.79 MVA 1.05 kA 112.78 2.53 kA DOL 181kW 1.29 MVA 1.72 kA 112.78 4.16 kA 30MCC05B 0.43 0.00 0.00 1.05 41.54 MVA 55.39 kA -81.59 131.63 kA 51.50 38.62 44.48 56.11 30TX05B 11/0.43 20MCC04 36.47 MVA 48.62 kA 96.36 115.54 kA L-DOL 150kW 1.07 MVA 1.43 kA 112.78 3.40 kA DOL 587kW 4.19 MVA 5.59 kA 112.78 13.29 kA 12TX203 HV 11.00 0.00 0.00 1.10 176.62 MVA 9.27 kA -74.67 19.42 kA 6.37 121.36 6.40 8.23 Feeder 20MCC206 OPF2 SS 176.13 MVA 9.24 kA 105.31 19.37 kA 12TX203 11/0.43 Reclaim Tu 0.50 MVA 0.03 kA 112.57 0.06 kA Reclaim Tunnel Ar 0.43 0.00 0.00 1.05 31.44 MVA 41.92 kA -82.30 99.71 kA 41.45 31.09 38.11 42.47 12TX203 11/0.43 12TX203 HV 30.97 MVA 41.30 kA 97.47 98.22 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 22kW Conv 0.16 MVA 0.22 kA 112.78 0.52 kA DOL 44kW 0.32 MVA 0.43 kA 112.78 1.02 kA 15TX204A HV 11.00 0.00 0.00 1.10 185.12 MVA 9.72 kA -77.58 21.42 kA 6.38 121.60 6.58 8.59 Feeder 20MCC206 OPF2 SS 183.63 MVA 9.64 kA 102.34 21.24 kA 15TX204A 11/0.4 15TX204A S 1.51 MVA 0.08 kA 112.23 0.17 kA 15TX204A Scrubber 0.43 0.00 0.00 1.05 36.64 MVA 48.85 kA -82.33 116.67 kA 47.56 35.67 42.89 49.50 15TX204A 11/0.4 15TX204A H 35.20 MVA 46.94 kA 97.04 112.10 kA L-DOL 90kW(1) 0.64 MVA 0.86 kA 112.78 2.05 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 193kW 0.84 MVA 1.13 kA 112.78 2.69 kA 12TX204B HV 11.00 0.00 0.00 1.10 184.84 MVA 9.70 kA -77.47 21.34 kA 6.38 121.58 6.57 8.58 Feeder 20MCC206 OPF2 SS 182.62 MVA 9.59 kA 102.41 21.08 kA 12TX204B 11/0.4 12TX204B S 2.25 MVA 0.12 kA 111.99 0.26 kA

Page 150: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 10 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 12TX204B Scrubber 0.43 0.00 0.00 1.05 38.26 MVA 51.02 kA -81.99 121.25 kA 49.16 36.87 43.91 51.67 12TX204B 11/0.4 12TX204B H 36.09 MVA 48.12 kA 97.09 114.36 kA L-DOL- 90kW 0.64 MVA 0.86 kA 112.78 2.04 kA DOL Lumped 225. 1.61 MVA 2.15 kA 112.78 5.11 kA 20TX205 HV 11.00 0.00 0.00 1.10 193.31 MVA 10.15 kA -80.59 23.67 kA 6.37 121.29 6.75 8.96 Feeder 20MCC206 OPF2 SS 189.35 MVA 9.94 kA 99.16 23.18 kA 20TX205 11/0.43 Secondary 4.05 MVA 0.21 kA 111.51 0.50 kA 20TX206A HV 11.00 0.00 0.00 1.10 193.34 MVA 10.15 kA -80.67 23.71 kA 6.37 121.27 6.75 8.96 Feeder 20MCC206 OPF2 SS 193.34 MVA 10.15 kA 99.33 23.71 kA 20TX206A 11/3.3 20TX206A L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206A LV 3.30 0.00 0.00 1.10 49.21 MVA 8.61 kA -83.37 20.94 kA 8.61 49.21 7.63 8.74 20TX206A 11/3.3 20TX206A H 49.21 MVA 8.61 kA 96.63 20.94 kA Feeder 20TX206A 20MCC206B 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master 20TX2 11.00 0.00 0.00 1.10 193.25 MVA 10.14 kA -80.57 23.66 kA 6.37 121.32 6.75 8.96 Feeder 20MCC206 OPF2 SS 193.25 MVA 10.14 kA 99.43 23.66 kA 20TX206B 11/1.9 20TX206B L 20TX206B L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206B LV Delta 1.90 0.00 0.00 1.10 22.66 MVA 6.87 kA -83.85 16.83 kA 6.87 22.66 6.48 6.98 20TX206B 11/1.9 HPGR Maste 20TX206B L 22.66 MVA 6.87 kA 96.15 16.83 kA 20TX206B LV Star 1.90 0.00 0.00 1.10 22.66 MVA 6.87 kA -83.85 16.83 kA 6.87 22.66 6.48 6.98 20TX206B 11/1.9 HPGR Maste 20TX206B L 22.66 MVA 6.87 kA 96.15 16.83 kA HPGR Follower 20T 11.00 0.00 0.00 1.10 193.25 MVA 10.14 kA -80.57 23.66 kA 6.37 121.32 6.75 8.96 Feeder 20MCC206 OPF2 SS 193.25 MVA 10.14 kA 99.43 23.66 kA 20TX206C 1kv/2x 20TX206C L 20TX206C L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206C LV Delta 1.90 0.00 0.00 1.10 22.66 MVA 6.87 kA -83.85 16.83 kA 6.87 22.66 6.48 6.98 20TX206C 1kv/2x HPGR Follo 20TX206C L 22.66 MVA 6.87 kA 96.15 16.83 kA 20TX206C LV Star 1.90 0.00 0.00 1.10 22.66 MVA 6.87 kA -83.85 16.83 kA 6.87 22.66 6.48 6.98 20TX206C 1kv/2x HPGR Follo 20TX206C L 22.66 MVA 6.87 kA 96.15 16.83 kA Desands 30TX207A 11.00 0.00 0.00 1.10 176.46 MVA 9.26 kA -74.56 19.36 kA 6.36 121.19 6.39 8.22 Feeder 20MCC206 OPF2 SS 173.52 MVA 9.11 kA 105.33 19.03 kA 30TX207A 11/0.4 30TX207A L 2.95 MVA 0.16 kA 111.70 0.32 kA 30TX207A LV 0.41 0.00 0.00 1.05 34.50 MVA 47.99 kA -81.09 112.16 kA 45.68 32.83 40.57 48.55 30TX207A 11/0.4 Desands 30 31.82 MVA 44.27 kA 97.71 103.46 kA L-DOL 110kW 0.72 MVA 1.00 kA 112.78 2.35 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 151: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 11 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 310. 2.04 MVA 2.84 kA 112.78 6.63 kA Desands 30TX207B 11.00 0.00 0.00 1.10 176.51 MVA 9.26 kA -74.58 19.36 kA 6.36 121.19 6.39 8.22 30TX207B 11/0.4 30TX207B L 3.18 MVA 0.17 kA 111.66 0.35 kA Feeder 20MCC206 OPF2 SS 173.35 MVA 9.10 kA 105.31 19.02 kA 30TX207B LV 0.43 0.00 0.00 1.05 38.87 MVA 51.83 kA -80.99 120.92 kA 49.25 36.94 43.56 52.43 30TX207B 11/0.4 Desands 30 35.74 MVA 47.65 kA 97.77 111.16 kA L-DOL 110kW 0.79 MVA 1.05 kA 112.78 2.44 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 343. 2.45 MVA 3.27 kA 112.78 7.63 kA Desands 30TX207C 11.00 0.00 0.00 1.10 176.74 MVA 9.28 kA -74.67 19.43 kA 6.36 121.16 6.39 8.23 Feeder 20MCC206 OPF2 SS 172.22 MVA 9.04 kA 105.29 18.93 kA 30TX207C 11/0.4 30TX207C L 4.52 MVA 0.24 kA 106.89 0.50 kA 30TX207C LV 0.43 0.00 0.00 1.05 39.30 MVA 52.40 kA -81.03 122.40 kA 48.23 36.17 42.33 53.01 30TX207C 11/0.4 Desands 30 34.59 MVA 46.12 kA 97.72 107.73 kA L-DOL 120kW 1.33 MVA 1.77 kA 95.71 4.13 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 489k 3.49 MVA 4.66 kA 112.78 10.88 kA Jigging 35TX208A 11.00 0.00 0.00 1.10 184.06 MVA 9.66 kA -77.13 21.10 kA 6.38 121.56 6.54 8.54 Feeder 20MCC206 OPF2 SS 177.00 MVA 9.29 kA 102.57 20.29 kA 35TX208A 11/0.4 Jigging 35 7.12 MVA 0.37 kA 110.16 0.82 kA Jigging 35TX208A 0.43 0.00 0.00 1.05 42.50 MVA 56.67 kA -79.97 130.88 kA 51.09 38.31 42.60 51.85 35TX208A 11/0.4 Jigging 35 34.75 MVA 46.33 kA 97.12 107.01 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL -110kW 0.79 MVA 1.05 kA 112.78 2.42 kA Lumped DOL 1009 7.21 MVA 9.61 kA 112.78 22.20 kA Jigging 35TX208B 11.00 0.00 0.00 1.10 184.53 MVA 9.69 kA -77.26 21.19 kA 6.38 121.61 6.54 8.56 Feeder 20MCC206 OPF2 SS 173.97 MVA 9.13 kA 102.33 19.98 kA 35TX208B 11/0.4 Jigging 35 10.64 MVA 0.56 kA 109.52 1.22 kA Jigging 35TX208B 0.43 0.00 0.00 1.05 52.03 MVA 69.38 kA -79.03 157.95 kA 61.12 45.84 48.52 62.08 35TX208B 11/0.4 Jigging 35 39.89 MVA 53.18 kA 97.30 121.07 kA L-DOL - 150kW 1.07 MVA 1.43 kA 112.78 3.25 kA Lumped-DOL 1599 11.42 MVA 15.23 kA 112.78 34.68 kA 35TX208C HV 11.00 0.00 0.00 1.10 183.37 MVA 9.62 kA -76.98 20.99 kA 6.38 121.56 6.54 8.52 Feeder 20MCC206 OPF2 SS 180.96 MVA 9.50 kA 103.03 20.72 kA 35TX208C 11/0.4 35TX208C L 2.41 MVA 0.13 kA 102.27 0.28 kA 35TX208C LV 0.43 0.00 0.00 1.05 29.86 MVA 39.82 kA -82.64 95.59 kA 37.35 28.01 34.06 40.37

Page 152: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 12 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 35TX208C 11/0.4 35TX208C H 27.40 MVA 36.53 kA 96.87 87.70 kA L-DOL 150kW 1.47 MVA 1.96 kA 95.71 4.70 kA Lumped DOL - 14 1.04 MVA 1.38 kA 112.78 3.32 kA 20MCC206B 3.30 0.00 0.00 1.10 49.21 MVA 8.61 kA -83.36 20.93 kA 8.61 49.21 7.63 8.74 Feeder 20TX206A 20TX206A L 49.21 MVA 8.61 kA 96.64 20.93 kA Feed to Cone Cr Cone Crush 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master VSD 2 0.69 0.00 0.00 1.05 15.99 MVA 13.38 kA -76.39 28.32 kA 13.38 15.99 12.84 13.47 20TX207D 3.3kV/ Tails Pump HPGR Maste 15.99 MVA 13.38 kA 103.61 28.32 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master Star 0.69 0.00 0.00 1.05 15.99 MVA 13.38 kA -76.39 28.32 kA 13.38 15.99 12.84 13.47 20TX207D 3.3kV/ Tails Pump HPGR Maste 15.99 MVA 13.38 kA 103.61 28.32 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump D 3.3 3.30 0.00 0.00 1.10 37.02 MVA 6.48 kA -66.60 11.85 kA 6.48 37.02 5.96 6.50 20TX207D 3.3kV/ HPGR Maste HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 37.02 MVA 6.48 kA 113.40 11.85 kA HPGR Follower Del 0.69 0.00 0.00 1.05 15.97 MVA 13.36 kA -76.32 28.26 kA 13.36 15.97 12.83 13.46 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.97 MVA 13.36 kA 103.68 28.26 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Follower Sta 0.69 0.00 0.00 1.05 15.97 MVA 13.36 kA -76.32 28.26 kA 13.36 15.97 12.83 13.46 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.97 MVA 13.36 kA 103.68 28.26 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump E 3.3k 3.30 0.00 0.00 1.10 36.92 MVA 6.46 kA -66.48 11.80 kA 6.46 36.92 5.95 6.49 20TX207E 3.3kV/ HPGR Follo HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 36.92 MVA 6.46 kA 113.52 11.80 kA 11MCC202B 690V 0.69 0.00 0.00 1.05 53.96 MVA 45.15 kA -77.54 98.18 kA 43.47 51.96 37.63 45.51 11TX202C 700/43 11MCC202C 2.12 MVA 1.78 kA 109.77 3.86 kA Bustie 11MCC202 11MCC202A 25.93 MVA 21.70 kA 102.16 47.18 kA Feeder to OLC D 11TX202B L 25.92 MVA 21.69 kA 102.17 47.16 kA REC032 OLC 33.00 0.00 0.00 1.10 86.28 MVA 1.51 kA -75.75 3.19 kA 1.34 76.37 1.20 1.40 Feeder PL4005 t PL4005 OLC 84.96 MVA 1.49 kA 104.35 3.14 kA 11TX202B 33/0.7 11TX202B L 1.33 MVA 0.02 kA 97.69 0.05 kA 11MCC202C OLC MCC 0.41 0.00 0.00 1.05 11.50 MVA 16.00 kA -79.78 36.84 kA 13.93 10.01 12.37 14.75 11TX202C 700/43 11MCC202B 9.15 MVA 12.73 kA 96.91 29.30 kA L-DOL - 150kW 0.98 MVA 1.37 kA 112.78 3.15 kA

Page 153: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 13 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 219. 1.44 MVA 2.01 kA 112.78 4.62 kA EPCM Office 0.41 0.00 0.00 1.05 9.33 MVA 12.98 kA -68.29 24.22 kA 12.78 9.19 12.36 13.04 MCC902-P-02 Sub018 9.33 MVA 12.98 kA 111.71 24.22 kA Laboratory 0.41 0.00 0.00 1.05 9.33 MVA 12.98 kA -68.29 24.22 kA 12.78 9.19 12.36 13.04 MCC902-P-03 Sub018 9.33 MVA 12.98 kA 111.71 24.22 kA Cone Crushers 3.3 3.30 0.00 0.00 1.10 47.87 MVA 8.38 kA -80.65 19.27 kA 8.38 47.87 7.46 8.46 Feed to Cone Cr 20MCC206B 47.87 MVA 8.38 kA 99.35 19.27 kA HPGR Main Motor 2 0.69 0.00 0.00 1.05 15.69 MVA 13.13 kA -75.23 27.24 kA 13.13 15.69 12.61 13.21 Feeder HPGR Mas HPGR Maste 15.69 MVA 13.13 kA 104.77 27.24 kA HPGR Main Motor 2 0.69 0.00 0.00 1.05 15.69 MVA 13.13 kA -75.23 27.24 kA 13.13 15.69 12.61 13.21 Feeder HPGR Mas HPGR Maste 15.69 MVA 13.13 kA 104.77 27.24 kA HPGR Follower Mot 0.69 0.00 0.00 1.05 15.67 MVA 13.11 kA -75.17 27.18 kA 13.11 15.67 12.60 13.20 Feeder HPGR Fol HPGR Follo 15.67 MVA 13.11 kA 104.83 27.18 kA HPGR Follower Mot 0.69 0.00 0.00 1.05 15.67 MVA 13.11 kA -75.17 27.18 kA 13.11 15.67 12.60 13.20 Feeder HPGR Fol HPGR Follo 15.67 MVA 13.11 kA 104.83 27.18 kA PL10XX (Fuel Unlo 33.00 0.00 0.00 1.10 97.66 MVA 1.71 kA -79.52 3.88 kA 1.46 83.69 1.33 1.58 Feeder TF001 to RMU001 96.84 MVA 1.69 kA 100.38 3.84 kA Feeder from OHL Tx HV Fuel 0.84 MVA 0.01 kA 112.33 0.03 kA Feeder TF001 to PL10062 0.00 MVA 0.00 kA 0.00 0.00 kA Fuel Unload RCDOS 0.41 0.00 0.00 1.05 3.80 MVA 5.29 kA -58.65 9.13 kA 4.14 2.98 3.96 4.79 150mm Cu XLPE 4 Tx LV Fuel 2.87 MVA 3.99 kA 125.99 6.88 kA L-DOL 30kW(1) 0.30 MVA 0.42 kA 95.71 0.72 kA 120kW Lumped 0.68 MVA 0.95 kA 112.78 1.64 kA TF004 HV 33.00 0.00 0.00 1.10 93.44 MVA 1.63 kA -78.25 3.62 kA 1.42 81.14 1.29 1.51 TF004 100kvA 33 SWB004 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL10062 PL10062 93.44 MVA 1.63 kA 101.75 3.62 kA PL4004 OLC A 33.00 0.00 0.00 1.10 86.74 MVA 1.52 kA -76.08 3.23 kA 1.34 76.67 1.20 1.40 Feeder RMU010 t PL4003 33k 82.91 MVA 1.45 kA 103.67 3.08 kA Feeder PL4004 t REC031 OLC 1.13 MVA 0.02 kA 109.61 0.04 kA OHL PL4004 to P PL4005 OLC 2.72 MVA 0.05 kA 109.17 0.10 kA PL4005 OLC B 33.00 0.00 0.00 1.10 86.71 MVA 1.52 kA -76.07 3.22 kA 1.34 76.64 1.20 1.40 Feeder PL4005 t REC032 OLC 1.14 MVA 0.02 kA 109.13 0.04 kA OHL PL4004 to P PL4004 OLC 83.98 MVA 1.47 kA 103.77 3.12 kA OHL PL4005 to P PL4007 1.59 MVA 0.03 kA 108.84 0.06 kA

Page 154: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 14 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] PL5059 33.00 0.00 0.00 1.10 78.89 MVA 1.38 kA -73.79 2.82 kA 1.27 72.43 1.11 1.39 OHL PL5043 to P PL5043 77.30 MVA 1.35 kA 106.15 2.76 kA PL5059 to REC03 REC037 1.59 MVA 0.03 kA 108.80 0.06 kA PL5043 33.00 0.00 0.00 1.10 80.35 MVA 1.41 kA -74.21 2.89 kA 1.28 72.96 1.13 1.41 OHL PL5028 to P PL5028 78.76 MVA 1.38 kA 105.72 2.84 kA Feeder PL5043 t TF035 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5043 to P PL5059 1.59 MVA 0.03 kA 108.81 0.06 kA PL5028 33.00 0.00 0.00 1.10 81.86 MVA 1.43 kA -74.65 2.97 kA 1.30 74.10 1.15 1.44 OHL PL5005 to P PL5005 80.27 MVA 1.40 kA 105.28 2.91 kA Feeder PL5028 t TF034 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5028 to P PL5043 1.59 MVA 0.03 kA 108.82 0.06 kA PL5005 33.00 0.00 0.00 1.10 83.42 MVA 1.46 kA -75.11 3.05 kA 1.31 75.12 1.16 1.35 OHL PL5005 to P PL5028 1.59 MVA 0.03 kA 108.82 0.06 kA OHL PL4007 to P PL4007 81.83 MVA 1.43 kA 104.82 2.99 kA Feeder PL5005 t TF033 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL4007 33.00 0.00 0.00 1.10 85.03 MVA 1.49 kA -75.58 3.13 kA 1.32 75.48 1.18 1.38 OHL PL4005 to P PL4005 OLC 83.44 MVA 1.46 kA 104.34 3.08 kA OHL PL4007 to P PL4008 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4007 to P PL5005 1.59 MVA 0.03 kA 108.83 0.06 kA PL4008 33.00 0.00 0.00 1.10 82.83 MVA 1.45 kA -74.18 2.98 kA 1.31 74.94 1.16 1.46 OHL PL4007 to P PL4007 82.83 MVA 1.45 kA 105.82 2.98 kA OHL PL4008 to O Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4017 0.00 MVA 0.00 kA 0.00 0.00 kA TF033 HV 33.00 0.00 0.00 1.10 83.06 MVA 1.45 kA -74.84 3.02 kA 1.31 74.89 1.16 1.35 TF033 33/0.433k TF033 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5005 t PL5005 83.06 MVA 1.45 kA 105.16 3.02 kA TF034 HV 33.00 0.00 0.00 1.10 81.51 MVA 1.43 kA -74.39 2.94 kA 1.29 73.86 1.14 1.44 TF034 33/0.433k TF034 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5028 t PL5028 81.51 MVA 1.43 kA 105.61 2.94 kA TF035 HV 33.00 0.00 0.00 1.10 80.02 MVA 1.40 kA -73.96 2.87 kA 1.27 72.73 1.13 1.41 TF035 33/0.433k TF035 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5043 t PL5043 80.02 MVA 1.40 kA 106.04 2.87 kA TF033 LV 0.43 0.00 0.00 1.05 25.67 MVA 34.23 kA -79.69 77.12 kA 34.19 25.64 31.61 34.55 TF033 33/0.433k TF033 HV 25.67 MVA 34.23 kA 100.31 77.12 kA TF034 LV 0.43 0.00 0.00 1.05 25.52 MVA 34.03 kA -79.51 76.40 kA 33.98 25.49 31.43 34.35

Page 155: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 15 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF034 33/0.433k TF034 HV 25.52 MVA 34.03 kA 100.49 76.40 kA TF035 LV 0.41 0.00 0.00 1.05 23.30 MVA 32.42 kA -79.34 72.56 kA 32.38 23.27 29.96 32.72 TF035 33/0.433k TF035 HV 23.30 MVA 32.42 kA 100.66 72.56 kA 10TX201 HV 33.00 0.00 0.00 1.10 77.18 MVA 1.35 kA -72.98 2.72 kA 1.25 71.52 1.09 1.36 Feeder REC037 t REC037 75.58 MVA 1.32 kA 106.98 2.67 kA 10TX201 33/0.43 Primary Cr 1.59 MVA 0.03 kA 108.78 0.06 kA Primary Crushing 0.41 0.00 0.00 1.05 24.93 MVA 34.69 kA -79.76 78.57 kA 33.24 23.89 30.37 35.03 10TX201 33/0.43 10TX201 HV 23.50 MVA 32.70 kA 99.68 74.05 kA L-DOL 30kW - 10 0.30 MVA 0.42 kA 95.71 0.95 kA Lumped DOL 177. 1.16 MVA 1.62 kA 112.78 3.67 kA REC037 33.00 0.00 0.00 1.10 77.49 MVA 1.36 kA -73.39 2.75 kA 1.25 71.69 1.10 1.36 Feeder REC037 t 10TX201 HV 1.59 MVA 0.03 kA 108.79 0.06 kA PL5059 to REC03 PL5059 75.90 MVA 1.33 kA 106.57 2.70 kA Construction Camp 33.00 0.00 0.00 1.10 81.93 MVA 1.43 kA -72.26 2.86 kA 1.32 75.24 1.17 1.44 TF011 33/0.418k LV DB Cons 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU011 t RMU012/SUB 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t PL1075 81.93 MVA 1.43 kA 107.74 2.86 kA RMU012/SUB012 33.00 0.00 0.00 1.10 81.93 MVA 1.43 kA -72.25 2.86 kA 1.32 75.23 1.17 1.44 Feeder RMU011 t Constructi 81.93 MVA 1.43 kA 107.75 2.86 kA TF012 33/0.418k LV SUB012 0.00 MVA 0.00 kA 0.00 0.00 kA Gatehouse RMU 33.00 0.00 0.00 1.10 101.18 MVA 1.77 kA -78.69 3.96 kA 1.51 86.05 1.37 1.63 Gatehouse 33/0. Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU001 101.18 MVA 1.77 kA 101.31 3.96 kA Gatehouse TX LV 0.43 0.00 0.00 1.05 21.10 MVA 28.13 kA -84.62 70.18 kA 28.13 21.10 26.43 28.65 Gatehouse 33/0. Gatehouse 21.10 MVA 28.13 kA 95.38 70.18 kA Ops Office 33kV 33.00 0.00 0.00 1.10 82.61 MVA 1.45 kA -74.05 2.97 kA 1.31 74.79 1.16 1.45 Ops Office 33/0 Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4008 to O PL4008 82.61 MVA 1.45 kA 105.95 2.97 kA Ops Office 415V 0.41 0.00 0.00 1.05 4.63 MVA 6.44 kA -71.23 12.52 kA 6.44 4.63 6.34 6.47 Ops Office 33/0 Ops Office 4.63 MVA 6.44 kA 108.77 12.52 kA PL4017 33.00 0.00 0.00 1.10 82.67 MVA 1.45 kA -74.14 2.97 kA 1.31 74.82 1.16 1.46 Feeder PL4017 t RMU017 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4008 82.67 MVA 1.45 kA 105.86 2.97 kA PS Services 0.43 0.00 0.00 1.05 19.44 MVA 25.93 kA -75.59 54.16 kA 25.93 19.44 24.70 26.10

Page 156: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 16 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF005 11/0.433k PowerStati 19.44 MVA 25.93 kA 104.41 54.16 kA 11MCC202A 690V 0.69 0.00 0.00 1.05 53.96 MVA 45.15 kA -77.54 98.18 kA 43.47 51.96 37.63 45.51 Bustie 11MCC202 11MCC202B 28.03 MVA 23.45 kA 102.75 51.00 kA Feeder to OLC D 11TX202A L 25.93 MVA 21.70 kA 102.16 47.18 kA RC031-MC02 Reclai 0.41 0.00 0.00 1.05 23.16 MVA 32.22 kA -81.57 75.31 kA 32.16 23.12 30.31 32.60 RC031-TF01 11kV RC031 Recl 23.13 MVA 32.17 kA 98.43 75.20 kA 4kW Motor 0.04 MVA 0.05 kA 95.71 0.12 kA 11TX202B LV 0.69 0.00 0.00 1.05 54.48 MVA 45.58 kA -77.82 99.75 kA 44.02 52.61 38.10 45.96 Feeder to OLC D 11MCC202B 22.56 MVA 18.87 kA 105.27 41.30 kA 11TX202B 33/0.7 REC032 OLC 31.98 MVA 26.76 kA 100.00 58.55 kA 11TX202A LV 0.69 0.00 0.00 1.05 54.48 MVA 45.58 kA -77.83 99.76 kA 44.02 52.61 38.10 45.96 11TX202A 33/0.7 REC031 OLC 31.99 MVA 26.76 kA 99.98 58.57 kA Feeder to OLC D 11MCC202A 22.55 MVA 18.87 kA 105.28 41.29 kA Secondary & Terti 0.41 0.00 0.00 1.05 40.42 MVA 56.24 kA -82.00 134.33 kA 52.70 37.88 46.26 56.99 20TX205 11/0.43 20TX205 HV 36.73 MVA 51.10 kA 96.47 122.06 kA L-DOL 150kW Con 0.98 MVA 1.37 kA 112.78 3.27 kA L-DOL 37kW 0.24 MVA 0.34 kA 112.78 0.81 kA Lumped DOL 34kW 0.22 MVA 0.31 kA 112.78 0.74 kA L-DOL 37kW 0.24 MVA 0.34 kA 112.78 0.81 kA Lumped DOL 56kW 0.37 MVA 0.51 kA 112.78 1.22 kA L-DOL - 37kW 0.24 MVA 0.34 kA 112.78 0.81 kA Lumped DOL- 56k 0.37 MVA 0.51 kA 112.78 1.22 kA L-DOL -132kW 0.87 MVA 1.21 kA 112.78 2.88 kA Lumped DOL 45kW 0.30 MVA 0.41 kA 112.78 0.98 kA LV DB Constructio 0.41 0.00 0.00 1.05 31.51 MVA 43.83 kA -79.40 98.36 kA 43.73 31.44 40.00 44.24 TF011 33/0.418k Constructi 31.51 MVA 43.83 kA 100.60 98.36 kA LV SUB012 0.41 0.00 0.00 1.05 31.51 MVA 43.83 kA -79.40 98.35 kA 43.73 31.43 40.00 44.24 TF012 33/0.418k RMU012/SUB 31.51 MVA 43.83 kA 100.60 98.35 kA

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100

D.2 SC-2

Page 158: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Min. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Automatic Neglection Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Max. Loading (Peak) 80.00 % Max. Loading (Interrupting) 80.00 % Max. Loading (Thermal) 80.00 % Fortescue SC-2 DIgSILENT Project: XMAS CREEK Metals Group 20 Generators in Service (No Load Flow) PowerFactory Minimum Short Circuit Currents 14.1.4 Date: 4/24/2013 Study Case: Study Case Annex: / 1 Overloaded Busbars/Terminals Nominal Thermal equivalent Current Peak Short-Circuit Current Name Type Voltage Nominal ( 1.0 s) Actual Loading Nominal Actual Loading [kV] [kA] [kA] [kA] [% ] [kA] [kA] [%] Secondary & Tertiray Crushing (20MCC2415V 65kA 1s 0.41 65.00 (1s) 65.00 53.49 82.30 0.00 129.80 0.00

Page 159: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Study Case: Study Case Annex: / 2 Overloaded Branches Thermal equivalent Current Name Type Terminal i Terminal j Nominal(1s) ( 1.0 s) Actual Loading [kA] [kA] [kA] [%] Feeder 20MCC206A to 12TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX203 HV 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 15TX204A HV 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX204B HV 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 20TX205 HV 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 120mm Lne OPF2 SS/20MCC2.. 20TX206A HV 17.10 17.10 20.70 121.04 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Master 20.. 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Follower .. 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 20.70 230.24 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 35TX208C HV 8.99 8.99 20.70 230.24 Feeder 20MCC206B to 20TX2 Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump D .. 8.99 8.99 9.22 102.59 Feeder 20MCC206B to Tails Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump E 3.. 8.99 8.99 9.22 102.59 Feeder HV901 to CV201-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Plant Output C.. 7.15 7.15 20.93 292.75 Feeder HV901 to CV401-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. CV401-EM01/EM02 7.15 7.15 20.93 292.75 Feeder HV901 to CV601-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Reclaimer Conv.. 14.30 14.30 20.93 146.37 Feeder HV901 to CV801-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Train Loadout .. 14.30 14.30 20.93 146.37 Feeder HV901 to RC031 600 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. RC031 Reclaimer 7.15 7.15 20.93 292.75 Feeder HV901 to TF801 Tx Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF801 HV - Tra.. 7.15 7.15 20.93 292.75 Feeder HV901 to TF901 20m Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF901 HV 7.15 7.15 20.93 292.75 Feeder to SK703 Med Point Olex 6.35/11kV 50mm Lne HV901/Stockyar.. SK703-TF01 TX HV 7.15 7.15 20.93 292.75

Page 160: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Fortescue SC-2 DIgSILENT Project: XMAS CREEK Metals Group 20 Generators in Service (No Load Flow) PowerFactory Minimum Short Circuit Currents 14.1.4 Date: 4/24/2013 Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Min. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Automatic Neglection Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Grid: Christmas Creek System Stage: Christmas Creek Annex: / 1 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] HV901 Stockyard Subst 11.00 0.00 0.00 1.00 390.81 MVA 20.51 kA -86.14 51.78 kA 15.02 286.16 20.51 20.93 Alternate Feede HV902-11kV 155.78 MVA 8.18 kA 88.97 20.64 kA FE-04 - PS to H PowerStati 235.97 MVA 12.39 kA 97.08 31.26 kA Feeder HV901 to Plant Outp 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to CV401-EM01 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Train Load 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to RC031 Recl 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to TF801 HV - 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to TF901 HV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder to SK703 SK703-TF01 0.00 MVA 0.00 kA 0.00 0.00 kA HV902-11kV Stockyard Subst 11.00 0.00 0.00 1.00 390.34 MVA 20.49 kA -86.15 51.72 kA 15.01 286.03 20.49 20.91 Alternate Feede HV901 191.50 MVA 10.05 kA 97.07 25.37 kA OPF1 Incomer 1 OPF1 0.00 MVA 0.00 kA 0.00 0.00 kA Power Station F PowerStati 199.44 MVA 10.47 kA 90.76 26.43 kA MC901 MC901 415V 0.41 0.00 0.00 0.95 8.46 MVA 11.76 kA -84.29 29.03 kA 11.76 8.46 11.76 11.96 TF901 11/0.433k TF901 HV 8.46 MVA 11.76 kA 95.71 29.03 kA 19.5kW Lumped D 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 15kW 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902 Turkeys Nest 0.41 0.00 0.00 0.95 8.47 MVA 11.79 kA -63.49 20.66 kA 11.79 8.47 11.79 11.83 MCC902-P-01 Sub018 8.47 MVA 11.79 kA 116.51 20.66 kA 22kW DOL 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 161: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 2 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] L-DOL 132kW 0.00 MVA 0.00 kA 0.00 0.00 kA OPF1 20MCC04 11.00 0.00 0.00 1.00 387.25 MVA 20.33 kA -85.90 51.04 kA 14.97 285.23 20.33 20.72 Feeder HV902 to 20MCC04 0.00 MVA 0.00 kA 0.00 0.00 kA OPF1 Incomer 1 HV902-11kV 387.25 MVA 20.33 kA 94.10 51.04 kA TF008 11/0.433k Sub018 0.00 MVA 0.00 kA 0.00 0.00 kA OPF2 SS 20MCC206A OPF2 11.00 0.00 0.00 1.00 386.45 MVA 20.28 kA -86.14 51.21 kA 14.96 284.97 20.28 20.70 FE-07 to OPF2-A PowerStati 193.22 MVA 10.14 kA 93.86 25.60 kA FE-08 to OPF2-B PowerStati 193.22 MVA 10.14 kA 93.86 25.60 kA Feeder 20MCC206 12TX203 HV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 15TX204A H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 12TX204B H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20TX205 HV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20TX206A H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 35TX208C H 0.00 MVA 0.00 kA 0.00 0.00 kA PowerStation Power Station B 11.00 0.00 0.00 1.00 398.49 MVA 20.92 kA -86.88 53.67 kA 15.12 288.01 20.92 21.42 FE-04 - PS to H HV901 0.00 MVA 0.00 kA 0.00 0.00 kA FE-07 to OPF2-A OPF2 SS 0.00 MVA 0.00 kA 0.00 0.00 kA FE-08 to OPF2-B OPF2 SS 0.00 MVA 0.00 kA 0.00 0.00 kA FE-09 PS to TF0 OHL East T 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PS to TF OHL West T 0.00 MVA 0.00 kA 0.00 0.00 kA Power Station F HV902-11kV 0.00 MVA 0.00 kA 0.00 0.00 kA TF005 11/0.433k PS Service 0.00 MVA 0.00 kA 0.00 0.00 kA Eathing Tx ZigZ 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 01 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 02 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 03 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 04 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 05 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 06 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 07 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 08 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 09 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 10 19.92 MVA 1.05 kA -86.88 2.68 kA

Page 162: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 3 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Generator 11 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 12 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 13 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 14 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 15 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 16 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 17 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 18 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 19 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 20 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 21 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 22 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 23 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 24 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 25 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 26 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 27 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 28 0.00 MVA 0.00 kA 0.00 0.00 kA RMU001 Power StationRM 33.00 0.00 0.00 1.00 198.07 MVA 3.47 kA -85.86 8.77 kA 3.28 187.51 3.47 3.54 Feeder RMU001 t Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU010 Pow 99.06 MVA 1.73 kA 94.15 4.39 kA Feeder TF001 to PL10XX (Fu 0.00 MVA 0.00 kA 0.00 0.00 kA TF001 11/33kV 1 OHL West T 99.01 MVA 1.73 kA 94.13 4.39 kA RMU017 CCY1 33.00 0.00 0.00 1.00 111.13 MVA 1.94 kA -65.87 3.50 kA 1.94 111.13 1.94 1.95 CCY1-RMU017-P1 HV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P2 HV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P3 HV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P4 HV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4017 t PL4017 111.13 MVA 1.94 kA 114.13 3.50 kA SWB004 Switchroom Tels 0.43 0.00 0.00 0.95 2.39 MVA 3.19 kA -67.33 5.87 kA 3.19 2.39 3.19 3.20 Feeder TF004 to Telstra Hu 0.00 MVA 0.00 kA 0.00 0.00 kA TF004 100kvA 33 TF004 HV 2.39 MVA 3.19 kA 112.67 5.87 kA Sub018 Kiosk Substatio 0.41 0.00 0.00 0.95 17.11 MVA 23.80 kA -75.48 49.47 kA 23.80 17.11 23.80 23.96 MCC902-P-01 MCC902 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902-P-02 EPCM Offic 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902-P-03 Laboratory 0.00 MVA 0.00 kA 0.00 0.00 kA TF008 11/0.433k OPF1 17.11 MVA 23.80 kA 104.52 49.47 kA

Page 163: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 4 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] THLoad Telstra Hut Loa 0.43 0.00 0.00 0.95 1.16 MVA 1.55 kA -33.21 2.26 kA 1.55 1.16 1.55 1.55 SB004 to Telstr Telstra Hu 1.16 MVA 1.55 kA 146.79 2.26 kA TLO MC801 415V MC801 0.41 0.00 0.00 0.95 8.04 MVA 11.18 kA -82.18 26.39 kA 11.18 8.04 11.18 11.32 Feeder TF801 to TF801 LV - 8.04 MVA 11.18 kA 97.82 26.39 kA 105.4kW Lumped 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 75kW 0.00 MVA 0.00 kA 0.00 0.00 kA Telstra Hut Telstra Hut DB 0.43 0.00 0.00 0.95 2.38 MVA 3.18 kA -67.14 5.83 kA 3.18 2.38 3.18 3.19 Feeder TF004 to SWB004 2.38 MVA 3.18 kA 112.86 5.83 kA SB004 to Telstr THLoad 0.00 MVA 0.00 kA 0.00 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 386.04 MVA 20.26 kA -85.62 50.57 kA 14.96 284.94 20.26 20.64 Feeder HV901 to HV901 386.04 MVA 20.26 kA 94.38 50.57 kA TF801 HV - Train 11.00 0.00 0.00 1.00 264.95 MVA 13.91 kA -53.99 22.16 kA 12.57 239.54 13.91 13.94 Feeder HV901 to HV901 264.95 MVA 13.91 kA 126.01 22.16 kA TF801 - Train L TF801 LV - 0.00 MVA 0.00 kA 0.00 0.00 kA TF801 LV - Train 0.41 0.00 0.00 0.95 8.40 MVA 11.69 kA -83.24 28.19 kA 11.69 8.40 11.69 11.85 TF801 - Train L TF801 HV - 8.40 MVA 11.69 kA 96.76 28.19 kA Feeder TF801 to TLO MC801 0.00 MVA 0.00 kA 0.00 0.00 kA Train Loadout Con 11.00 0.00 0.00 1.00 341.78 MVA 17.94 kA -70.20 33.97 kA 14.45 275.23 17.94 18.02 Feeder HV901 to HV901 341.78 MVA 17.94 kA 109.80 33.97 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 382.46 MVA 20.07 kA -82.62 46.99 kA 14.94 284.64 20.07 20.31 Feeder HV901 to HV901 382.46 MVA 20.07 kA 97.38 46.99 kA Plant Output Conv 11.00 0.00 0.00 1.00 341.78 MVA 17.94 kA -70.20 33.97 kA 14.45 275.23 17.94 18.02 Feeder HV901 to HV901 341.78 MVA 17.94 kA 109.80 33.97 kA CV401-EM01/EM02 11.00 0.00 0.00 1.00 186.45 MVA 9.79 kA -40.78 14.52 kA 9.52 181.33 9.79 9.80 Feeder HV901 to HV901 186.45 MVA 9.79 kA 139.22 14.52 kA TF901 HV 11.00 0.00 0.00 1.00 386.77 MVA 20.30 kA -84.36 49.28 kA 14.98 285.41 20.30 20.60 Feeder HV901 to HV901 386.77 MVA 20.30 kA 95.64 49.28 kA TF901 11/0.433k MC901 0.00 MVA 0.00 kA 0.00 0.00 kA 20MCC04 11.00 0.00 0.00 1.00 373.56 MVA 19.61 kA -84.71 47.99 kA 14.77 281.43 19.61 19.92 10TX01 11/0.433 10MCC01 Pr 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV902 to OPF1 373.56 MVA 19.61 kA 95.29 47.99 kA 15TX02A 11/0.43 15MCC02A S 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 164: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 5 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 15Tx02B 11/0.43 15MCC02B S 0.00 MVA 0.00 kA 0.00 0.00 kA 20Tx03 3500kVA 20MCC03 Se 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04A 11/3.3k Desands Ar 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04B 11/1.90 20TX04B De 20TX04B St 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04C 11/1.90 20TX04C De 20TX04C St 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX05A 11/0.43 30MCC05A 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX05B 11/0.43 30MCC05B 0.00 MVA 0.00 kA 0.00 0.00 kA SK703-TF01 TX HV 11.00 0.00 0.00 1.00 253.97 MVA 13.33 kA -52.01 20.94 kA 12.21 232.57 13.33 13.36 SK703-TF01 11/0 SK703-TF01 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder to SK703 HV901 253.97 MVA 13.33 kA 127.99 20.94 kA SK703-TF01 Stacke 0.43 0.00 0.00 0.95 22.43 MVA 29.91 kA -81.44 69.47 kA 29.91 22.43 29.91 30.25 SK703-TF01 11/0 SK703-TF01 22.43 MVA 29.91 kA 98.56 69.47 kA L-DOL 250kW 0.00 MVA 0.00 kA 0.00 0.00 kA 288.3kW Lumped 0.00 MVA 0.00 kA 0.00 0.00 kA RC031 Reclaimer 11.00 0.00 0.00 1.00 243.61 MVA 12.79 kA -50.18 19.85 kA 11.84 225.61 12.79 12.81 Feeder HV901 to HV901 243.61 MVA 12.79 kA 129.82 19.85 kA RC031-TF01 11kV RC031-MC02 0.00 MVA 0.00 kA 0.00 0.00 kA OHL West TF001 LV 11.00 0.00 0.00 1.00 397.25 MVA 20.85 kA -86.81 53.41 kA 15.10 287.72 20.85 21.34 Feeder PS to TF PowerStati 396.94 MVA 20.83 kA 93.21 53.37 kA TF001 11/33kV 1 RMU001 0.33 MVA 0.02 kA 72.03 0.04 kA OHL East TF012 LV 11.00 0.00 0.00 1.00 397.79 MVA 20.88 kA -86.80 53.47 kA 15.11 287.85 20.88 21.37 FE-09 PS to TF0 PowerStati 397.61 MVA 20.87 kA 93.22 53.44 kA TF012 11/33kV 1 RMU010 Pow 0.23 MVA 0.01 kA 53.76 0.03 kA RMU010 Power Stat 33.00 0.00 0.00 1.00 198.07 MVA 3.47 kA -85.86 8.77 kA 3.28 187.51 3.47 3.54 TF012 11/33kV 1 OHL East T 99.08 MVA 1.73 kA 94.14 4.39 kA PL4001-P1 U/G 1 PL4001 REC 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU001 98.99 MVA 1.73 kA 94.14 4.39 kA PL4001 REC001 33.00 0.00 0.00 1.00 197.59 MVA 3.46 kA -85.65 8.71 kA 3.27 187.15 3.46 3.53 PL4001-P1 U/G 1 RMU010 Pow 197.59 MVA 3.46 kA 94.35 8.71 kA OHL PL4001 to P PL4003 33k 0.00 MVA 0.00 kA 0.00 0.00 kA PL4003 33kV 33.00 0.00 0.00 1.00 176.00 MVA 3.08 kA -80.66 6.99 kA 2.98 170.14 3.08 3.11 OHL PL4001 to P PL4001 REC 176.00 MVA 3.08 kA 99.34 6.99 kA TF042 33/0.418k PL4426 Fue 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU010 t PL4004 OLC 0.00 MVA 0.00 kA 0.00 0.00 kA Tx HV Fuel Unload 33.00 0.00 0.00 1.00 163.95 MVA 2.87 kA -78.08 6.21 kA 2.80 160.13 2.87 2.89 Fuel Unload 33/ Tx LV Fuel 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder from OHL PL10XX (Fu 163.95 MVA 2.87 kA 101.92 6.21 kA

Page 165: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 6 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Tx LV Fuel Unload 0.41 0.00 0.00 0.95 4.34 MVA 6.04 kA -71.25 11.73 kA 6.04 4.34 6.04 6.07 Fuel Unload 33/ Tx HV Fuel 4.34 MVA 6.04 kA 108.75 11.73 kA 150mm Cu XLPE 4 Fuel Unloa 0.00 MVA 0.00 kA 0.00 0.00 kA PL1075 33.00 0.00 0.00 1.00 140.61 MVA 2.46 kA -73.12 4.90 kA 2.44 139.71 2.46 2.47 Feeder PL10062 PL10062 140.61 MVA 2.46 kA 106.88 4.90 kA Feeder PL1075 t PL1081 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t Constructi 0.00 MVA 0.00 kA 0.00 0.00 kA PL10062 33.00 0.00 0.00 1.00 150.78 MVA 2.64 kA -75.25 5.44 kA 2.60 148.77 2.64 2.65 Feeder PL10062 PL1075 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10XX (Fu 150.78 MVA 2.64 kA 104.75 5.44 kA Feeder PL10062 TF004 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL1081 33.00 0.00 0.00 1.00 129.41 MVA 2.26 kA -70.82 4.35 kA 2.26 129.41 2.26 2.28 Feeder PL1075 t PL1075 129.41 MVA 2.26 kA 109.18 4.35 kA Feeder PL1081 t Kandama Vi 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Harridan Hill Tow 33.00 0.00 0.00 1.00 123.30 MVA 2.16 kA -69.59 4.08 kA 2.16 123.30 2.16 2.17 Harridan Hill P Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H PL1081 123.30 MVA 2.16 kA 110.41 4.08 kA REC031 OLC 33.00 0.00 0.00 1.00 126.01 MVA 2.20 kA -69.72 4.17 kA 2.20 126.01 2.20 2.21 Feeder PL4004 t PL4004 OLC 125.72 MVA 2.20 kA 110.48 4.16 kA 11TX202A 33/0.7 11TX202A L 0.54 MVA 0.01 kA 53.24 0.02 kA HV TF017-1 33.00 0.00 0.00 1.00 110.48 MVA 1.93 kA -65.63 3.47 kA 1.93 110.48 1.93 1.94 CCY1-RMU017-P1 RMU017 110.48 MVA 1.93 kA 114.37 3.47 kA TF017-1 33/0.43 LV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-2 33.00 0.00 0.00 1.00 110.65 MVA 1.94 kA -65.69 3.47 kA 1.94 110.65 1.94 1.94 CCY1-RMU017-P2 RMU017 110.65 MVA 1.94 kA 114.31 3.47 kA TF017-2 33/0.43 LV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-3 33.00 0.00 0.00 1.00 110.75 MVA 1.94 kA -65.73 3.48 kA 1.94 110.75 1.94 1.94 CCY1-RMU017-P3 RMU017 110.75 MVA 1.94 kA 114.27 3.48 kA TF017-3 33/0.43 LV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-4 33.00 0.00 0.00 1.00 110.47 MVA 1.93 kA -65.62 3.47 kA 1.93 110.47 1.93 1.94 CCY1-RMU017-P4 RMU017 110.47 MVA 1.93 kA 114.38 3.47 kA TF017-4 33/0.43 LV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA LV TF017-1 Admin 0.43 0.00 0.00 0.95 13.47 MVA 17.97 kA -81.75 42.01 kA 17.97 13.47 17.97 18.18 TF017-1 33/0.43 HV TF017-1 13.47 MVA 17.97 kA 98.25 42.01 kA

Page 166: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 7 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] LV TF017-2 Ancill 0.43 0.00 0.00 0.95 13.48 MVA 17.97 kA -81.76 42.02 kA 17.97 13.48 17.97 18.18 TF017-2 33/0.43 HV TF017-2 13.48 MVA 17.97 kA 98.24 42.02 kA LV TF017-3 HV W/S 0.43 0.00 0.00 0.95 19.99 MVA 26.65 kA -82.45 63.20 kA 26.65 19.99 26.65 26.99 TF017-3 33/0.43 HV TF017-3 19.99 MVA 26.65 kA 97.55 63.20 kA LV TF017-4 Gulf W 0.43 0.00 0.00 0.95 13.47 MVA 17.97 kA -81.75 42.01 kA 17.97 13.47 17.97 18.18 TF017-4 33/0.43 HV TF017-4 13.47 MVA 17.97 kA 98.25 42.01 kA Kandama Village R 33.00 0.00 0.00 1.00 125.14 MVA 2.19 kA -69.96 4.16 kA 2.19 125.14 2.19 2.20 Feeder PL1081 t PL1081 125.14 MVA 2.19 kA 110.04 4.16 kA 08TF002 33/11kV RMU-05 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-05 11.00 0.00 0.00 1.00 50.78 MVA 2.67 kA -77.46 5.73 kA 2.67 50.78 2.67 2.69 08TF002 33/11kV Kandama Vi 50.78 MVA 2.67 kA 102.54 5.73 kA Connectin RMU-0 RMU-06 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-04 11.00 0.00 0.00 1.00 50.50 MVA 2.65 kA -77.28 5.68 kA 2.65 50.50 2.65 2.67 Tx-004 11/0.415 Waste Wate 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder from Tx0 RMU-06 50.50 MVA 2.65 kA 102.72 5.68 kA Feeder RMU-04 t RMU-03 0.00 MVA 0.00 kA 0.00 0.00 kA Waste Water Treat 0.41 0.00 0.00 0.95 13.21 MVA 18.37 kA -80.98 42.29 kA 18.37 13.21 18.37 18.57 Tx-004 11/0.415 RMU-04 13.21 MVA 18.37 kA 99.02 42.29 kA RMU-06 11.00 0.00 0.00 1.00 50.78 MVA 2.67 kA -77.46 5.73 kA 2.67 50.78 2.67 2.69 Feeder from Tx0 RMU-04 0.00 MVA 0.00 kA 0.00 0.00 kA Connectin RMU-0 RMU-05 50.78 MVA 2.67 kA 102.54 5.73 kA RMU-03 11.00 0.00 0.00 1.00 50.20 MVA 2.63 kA -76.88 5.60 kA 2.63 50.20 2.63 2.65 Feeder RMU-04 t RMU-04 50.20 MVA 2.63 kA 103.12 5.60 kA Feeder RMU-03 t RMU-02 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-003 11/0.415 TX-003 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-02 11.00 0.00 0.00 1.00 49.90 MVA 2.62 kA -76.48 5.53 kA 2.62 49.90 2.62 2.64 Feeder RMU-03 t RMU-03 49.90 MVA 2.62 kA 103.52 5.53 kA Feeder RMU-02 t RMU-01 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-002 11/0.415 TX-002 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-01 11.00 0.00 0.00 1.00 49.60 MVA 2.60 kA -76.09 5.46 kA 2.60 49.60 2.60 2.62 Feeder RMU-02 t RMU-02 49.60 MVA 2.60 kA 103.91 5.46 kA Tx-001 11/0.415 TX-001 LV 0.00 MVA 0.00 kA 0.00 0.00 kA TX-003 LV 0.41 0.00 0.00 0.95 13.19 MVA 18.35 kA -80.87 42.13 kA 18.35 13.19 18.35 18.54 Tx-003 11/0.415 RMU-03 13.19 MVA 18.35 kA 99.13 42.13 kA

Page 167: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 8 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TX-002 LV 0.41 0.00 0.00 0.95 13.17 MVA 18.32 kA -80.75 41.97 kA 18.32 13.17 18.32 18.51 Tx-002 11/0.415 RMU-02 13.17 MVA 18.32 kA 99.25 41.97 kA TX-001 LV 0.41 0.00 0.00 0.95 13.15 MVA 18.29 kA -80.64 41.81 kA 18.29 13.15 18.29 18.48 Tx-001 11/0.415 RMU-01 13.15 MVA 18.29 kA 99.36 41.81 kA Harridan Hill Tow 0.41 0.00 0.00 0.95 2.19 MVA 3.05 kA -67.25 5.59 kA 3.05 2.19 3.05 3.06 Harridan Hill P Harridan H 2.19 MVA 3.05 kA 112.75 5.59 kA 10MCC01 Primary C 0.43 0.00 0.00 0.95 38.30 MVA 51.07 kA -84.34 125.99 kA 51.07 38.30 51.07 51.93 10TX01 11/0.433 20MCC04 38.30 MVA 51.07 kA 95.66 125.99 kA L-DOL 45kW 0.00 MVA 0.00 kA 0.00 0.00 kA 108.5kW DOL 0.00 MVA 0.00 kA 0.00 0.00 kA 15MCC02A Screenin 0.43 0.00 0.00 0.95 37.07 MVA 49.42 kA -84.33 121.92 kA 49.42 37.07 49.42 50.25 15TX02A 11/0.43 20MCC04 37.07 MVA 49.42 kA 95.67 121.92 kA DOL Wet Sizing 0.00 MVA 0.00 kA 0.00 0.00 kA 90kW DOL- 0.00 MVA 0.00 kA 0.00 0.00 kA 15MCC02B Screenin 0.43 0.00 0.00 0.95 37.07 MVA 49.42 kA -84.33 121.92 kA 49.42 37.07 49.42 50.25 15Tx02B 11/0.43 20MCC04 37.07 MVA 49.42 kA 95.67 121.92 kA L-DOL-90kW 0.00 MVA 0.00 kA 0.00 0.00 kA 222kW DOL 0.00 MVA 0.00 kA 0.00 0.00 kA 20MCC03 Secondary 0.41 0.00 0.00 0.95 43.10 MVA 59.97 kA -84.35 147.90 kA 59.97 43.10 59.97 60.97 20Tx03 3500kVA 20MCC04 43.10 MVA 59.97 kA 95.65 147.90 kA Feeder Area 15 Area 20 MC 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 90kW 0.00 MVA 0.00 kA 0.00 0.00 kA Area 20 MCC03 20C 0.41 0.00 0.00 0.95 23.08 MVA 32.11 kA -70.39 61.55 kA 32.11 23.08 32.11 32.27 Feeder Area 15 20MCC03 Se 23.08 MVA 32.11 kA 109.61 61.55 kA L-DOL Lube 2 Co 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL Dust Extr 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 74kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 74kW(1) 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL Lube 1 Co 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 163kW 0.00 MVA 0.00 kA 0.00 0.00 kA Desands Area 15/2 3.30 0.00 0.00 1.00 40.86 MVA 7.15 kA -84.34 17.64 kA 7.15 40.86 7.15 7.27 20TX04A 11/3.3k 20MCC04 40.86 MVA 7.15 kA 95.66 17.64 kA PL4426 Fuel Stora 0.42 0.00 0.00 0.95 4.41 MVA 6.09 kA -71.31 11.85 kA 6.09 4.41 6.09 6.12 TF042 33/0.418k PL4003 33k 4.41 MVA 6.09 kA 108.69 11.85 kA L-DOL Loading P 0.00 MVA 0.00 kA 0.00 0.00 kA 94kW Motor Lump 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 168: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 9 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 20TX04B Delta LV 1.90 0.00 0.00 1.00 23.88 MVA 7.24 kA -84.32 17.86 kA 7.24 23.88 7.24 7.36 20TX04B 11/1.90 20MCC04 20TX04B St 23.88 MVA 7.24 kA 95.68 17.86 kA 20TX04B Star LV 1.90 0.00 0.00 1.00 23.88 MVA 7.24 kA -84.32 17.86 kA 7.24 23.88 7.24 7.36 20TX04B 11/1.90 20MCC04 20TX04B De 23.88 MVA 7.24 kA 95.68 17.86 kA 20TX04C Delta LV 1.90 0.00 0.00 1.00 23.88 MVA 7.24 kA -84.32 17.86 kA 7.24 23.88 7.24 7.36 20TX04C 11/1.90 20MCC04 20TX04C St 23.88 MVA 7.24 kA 95.68 17.86 kA 20TX04C Star LV 1.90 0.00 0.00 1.00 23.88 MVA 7.24 kA -84.32 17.86 kA 7.24 23.88 7.24 7.36 20TX04C 11/1.90 20MCC04 20TX04C De 23.88 MVA 7.24 kA 95.68 17.86 kA 30MCC05A 0.43 0.00 0.00 0.95 41.29 MVA 55.06 kA -84.34 135.82 kA 55.06 41.29 55.06 55.99 30TX05A 11/0.43 20MCC04 41.29 MVA 55.06 kA 95.66 135.82 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 181kW 0.00 MVA 0.00 kA 0.00 0.00 kA 30MCC05B 0.43 0.00 0.00 0.95 37.07 MVA 49.42 kA -84.33 121.92 kA 49.42 37.07 49.42 50.25 30TX05B 11/0.43 20MCC04 37.07 MVA 49.42 kA 95.67 121.92 kA L-DOL 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 587kW 0.00 MVA 0.00 kA 0.00 0.00 kA 12TX203 HV 11.00 0.00 0.00 1.00 310.90 MVA 16.32 kA -68.97 30.40 kA 13.70 261.09 16.32 16.39 Feeder 20MCC206 OPF2 SS 310.90 MVA 16.32 kA 111.03 30.40 kA 12TX203 11/0.43 Reclaim Tu 0.00 MVA 0.00 kA 0.00 0.00 kA Reclaim Tunnel Ar 0.43 0.00 0.00 0.95 30.80 MVA 41.07 kA -82.71 97.88 kA 41.07 30.80 41.07 41.61 12TX203 11/0.43 12TX203 HV 30.80 MVA 41.07 kA 97.29 97.88 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 22kW Conv 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 44kW 0.00 MVA 0.00 kA 0.00 0.00 kA 15TX204A HV 11.00 0.00 0.00 1.00 346.83 MVA 18.20 kA -76.27 37.88 kA 14.41 274.55 18.20 18.32 Feeder 20MCC206 OPF2 SS 346.83 MVA 18.20 kA 103.73 37.88 kA 15TX204A 11/0.4 15TX204A S 0.00 MVA 0.00 kA 0.00 0.00 kA 15TX204A Scrubber 0.43 0.00 0.00 0.95 35.54 MVA 47.39 kA -83.43 114.65 kA 47.39 35.54 47.39 48.08 15TX204A 11/0.4 15TX204A H 35.54 MVA 47.39 kA 96.57 114.65 kA L-DOL 90kW(1) 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 193kW 0.00 MVA 0.00 kA 0.00 0.00 kA 12TX204B HV 11.00 0.00 0.00 1.00 345.23 MVA 18.12 kA -75.92 37.49 kA 14.38 274.04 18.12 18.24 Feeder 20MCC206 OPF2 SS 345.23 MVA 18.12 kA 104.08 37.49 kA 12TX204B 11/0.4 12TX204B S 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 169: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 10 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 12TX204B Scrubber 0.43 0.00 0.00 0.95 36.57 MVA 48.77 kA -83.36 117.79 kA 48.77 36.57 48.77 49.47 12TX204B 11/0.4 12TX204B H 36.57 MVA 48.77 kA 96.64 117.79 kA L-DOL- 90kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL Lumped 225. 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX205 HV 11.00 0.00 0.00 1.00 381.87 MVA 20.04 kA -84.85 49.17 kA 14.90 283.91 20.04 20.37 Feeder 20MCC206 OPF2 SS 381.87 MVA 20.04 kA 95.15 49.17 kA 20TX205 11/0.43 Secondary 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206A HV 11.00 0.00 0.00 1.00 382.18 MVA 20.06 kA -85.12 49.51 kA 14.90 283.94 20.06 20.40 Feeder 20MCC206 OPF2 SS 382.18 MVA 20.06 kA 94.88 49.51 kA 20TX206A 11/3.3 20TX206A L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206A LV 3.30 0.00 0.00 1.00 51.85 MVA 9.07 kA -84.40 22.40 kA 9.07 51.85 9.07 9.22 20TX206A 11/3.3 20TX206A H 51.85 MVA 9.07 kA 95.60 22.40 kA Feeder 20TX206A 20MCC206B 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master 20TX2 11.00 0.00 0.00 1.00 381.87 MVA 20.04 kA -84.85 49.17 kA 14.90 283.91 20.04 20.37 Feeder 20MCC206 OPF2 SS 381.87 MVA 20.04 kA 95.15 49.17 kA 20TX206B 11/1.9 20TX206B L 20TX206B L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206B LV Delta 1.90 0.00 0.00 1.00 21.99 MVA 6.66 kA -84.32 16.45 kA 6.66 21.99 6.66 6.78 20TX206B 11/1.9 HPGR Maste 20TX206B L 21.99 MVA 6.66 kA 95.68 16.45 kA 20TX206B LV Star 1.90 0.00 0.00 1.00 21.99 MVA 6.66 kA -84.32 16.45 kA 6.66 21.99 6.66 6.78 20TX206B 11/1.9 HPGR Maste 20TX206B L 21.99 MVA 6.66 kA 95.68 16.45 kA HPGR Follower 20T 11.00 0.00 0.00 1.00 381.87 MVA 20.04 kA -84.85 49.17 kA 14.90 283.91 20.04 20.37 Feeder 20MCC206 OPF2 SS 381.87 MVA 20.04 kA 95.15 49.17 kA 20TX206C 1kv/2x 20TX206C L 20TX206C L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206C LV Delta 1.90 0.00 0.00 1.00 21.99 MVA 6.66 kA -84.32 16.45 kA 6.66 21.99 6.66 6.78 20TX206C 1kv/2x HPGR Follo 20TX206C L 21.99 MVA 6.66 kA 95.68 16.45 kA 20TX206C LV Star 1.90 0.00 0.00 1.00 21.99 MVA 6.66 kA -84.32 16.45 kA 6.66 21.99 6.66 6.78 20TX206C 1kv/2x HPGR Follo 20TX206C L 21.99 MVA 6.66 kA 95.68 16.45 kA Desands 30TX207A 11.00 0.00 0.00 1.00 307.92 MVA 16.16 kA -68.41 29.89 kA 13.63 259.77 16.16 16.23 Feeder 20MCC206 OPF2 SS 307.92 MVA 16.16 kA 111.59 29.89 kA 30TX207A 11/0.4 30TX207A L 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX207A LV 0.41 0.00 0.00 0.95 32.11 MVA 44.67 kA -82.42 105.78 kA 44.67 32.11 44.67 45.23 30TX207A 11/0.4 Desands 30 32.11 MVA 44.67 kA 97.58 105.78 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 170: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 11 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 310. 0.00 MVA 0.00 kA 0.00 0.00 kA Desands 30TX207B 11.00 0.00 0.00 1.00 307.92 MVA 16.16 kA -68.41 29.89 kA 13.63 259.77 16.16 16.23 30TX207B 11/0.4 30TX207B L 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 OPF2 SS 307.92 MVA 16.16 kA 111.59 29.89 kA 30TX207B LV 0.43 0.00 0.00 0.95 36.20 MVA 48.26 kA -82.35 114.13 kA 48.26 36.20 48.26 48.87 30TX207B 11/0.4 Desands 30 36.20 MVA 48.26 kA 97.65 114.13 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 343. 0.00 MVA 0.00 kA 0.00 0.00 kA Desands 30TX207C 11.00 0.00 0.00 1.00 307.92 MVA 16.16 kA -68.41 29.89 kA 13.63 259.77 16.16 16.23 Feeder 20MCC206 OPF2 SS 307.92 MVA 16.16 kA 111.59 29.89 kA 30TX207C 11/0.4 30TX207C L 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX207C LV 0.43 0.00 0.00 0.95 34.95 MVA 46.61 kA -82.42 110.37 kA 46.61 34.95 46.61 47.19 30TX207C 11/0.4 Desands 30 34.95 MVA 46.61 kA 97.58 110.37 kA L-DOL 120kW 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 489k 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208A 11.00 0.00 0.00 1.00 338.83 MVA 17.78 kA -74.54 35.97 kA 14.27 271.93 17.78 17.89 Feeder 20MCC206 OPF2 SS 338.83 MVA 17.78 kA 105.46 35.97 kA 35TX208A 11/0.4 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208A 0.43 0.00 0.00 0.95 35.25 MVA 47.00 kA -83.23 113.20 kA 47.00 35.25 47.00 47.66 35TX208A 11/0.4 Jigging 35 35.25 MVA 47.00 kA 96.77 113.20 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL -110kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 1009 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208B 11.00 0.00 0.00 1.00 338.83 MVA 17.78 kA -74.54 35.97 kA 14.27 271.93 17.78 17.89 Feeder 20MCC206 OPF2 SS 338.83 MVA 17.78 kA 105.46 35.97 kA 35TX208B 11/0.4 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208B 0.43 0.00 0.00 0.95 41.40 MVA 55.20 kA -83.04 132.40 kA 55.20 41.40 55.20 55.96 35TX208B 11/0.4 Jigging 35 41.40 MVA 55.20 kA 96.96 132.40 kA L-DOL - 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped-DOL 1599 0.00 MVA 0.00 kA 0.00 0.00 kA 35TX208C HV 11.00 0.00 0.00 1.00 338.83 MVA 17.78 kA -74.54 35.97 kA 14.27 271.93 17.78 17.89 Feeder 20MCC206 OPF2 SS 338.83 MVA 17.78 kA 105.46 35.97 kA 35TX208C 11/0.4 35TX208C L 0.00 MVA 0.00 kA 0.00 0.00 kA 35TX208C LV 0.43 0.00 0.00 0.95 26.99 MVA 35.99 kA -83.48 87.19 kA 35.99 26.99 35.99 36.52

Page 171: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 12 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 35TX208C 11/0.4 35TX208C H 26.99 MVA 35.99 kA 96.52 87.19 kA L-DOL 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL - 14 0.00 MVA 0.00 kA 0.00 0.00 kA 20MCC206B 3.30 0.00 0.00 1.00 51.84 MVA 9.07 kA -84.39 22.39 kA 9.07 51.84 9.07 9.22 Feeder 20TX206A 20TX206A L 51.84 MVA 9.07 kA 95.61 22.39 kA Feed to Cone Cr Cone Crush 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master VSD 2 0.69 0.00 0.00 0.95 15.02 MVA 12.57 kA -74.09 25.52 kA 12.57 15.02 12.57 12.64 20TX207D 3.3kV/ Tails Pump HPGR Maste 15.02 MVA 12.57 kA 105.91 25.52 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master Star 0.69 0.00 0.00 0.95 15.02 MVA 12.57 kA -74.09 25.52 kA 12.57 15.02 12.57 12.64 20TX207D 3.3kV/ Tails Pump HPGR Maste 15.02 MVA 12.57 kA 105.91 25.52 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump D 3.3 3.30 0.00 0.00 1.00 35.90 MVA 6.28 kA -60.57 10.66 kA 6.28 35.90 6.28 6.30 20TX207D 3.3kV/ HPGR Maste HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 35.90 MVA 6.28 kA 119.43 10.66 kA HPGR Follower Del 0.69 0.00 0.00 0.95 15.00 MVA 12.55 kA -74.00 25.45 kA 12.55 15.00 12.55 12.63 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.00 MVA 12.55 kA 106.00 25.45 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Follower Sta 0.69 0.00 0.00 0.95 15.00 MVA 12.55 kA -74.00 25.45 kA 12.55 15.00 12.55 12.63 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.00 MVA 12.55 kA 106.00 25.45 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump E 3.3k 3.30 0.00 0.00 1.00 35.78 MVA 6.26 kA -60.42 10.60 kA 6.26 35.78 6.26 6.28 20TX207E 3.3kV/ HPGR Follo HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 35.78 MVA 6.26 kA 119.58 10.60 kA 11MCC202B 690V 0.69 0.00 0.00 0.95 63.64 MVA 53.25 kA -74.66 108.95 kA 53.25 63.64 53.25 53.58 11TX202C 700/43 11MCC202C 0.00 MVA 0.00 kA 0.00 0.00 kA Bustie 11MCC202 11MCC202A 31.83 MVA 26.63 kA 105.33 54.49 kA Feeder to OLC D 11TX202B L 31.81 MVA 26.62 kA 105.35 54.47 kA REC032 OLC 33.00 0.00 0.00 1.00 125.92 MVA 2.20 kA -69.71 4.17 kA 2.20 125.92 2.20 2.21 Feeder PL4005 t PL4005 OLC 125.60 MVA 2.20 kA 110.51 4.16 kA 11TX202B 33/0.7 11TX202B L 0.57 MVA 0.01 kA 54.42 0.02 kA 11MCC202C OLC MCC 0.41 0.00 0.00 0.95 8.71 MVA 12.12 kA -82.90 29.02 kA 12.12 8.71 12.12 12.28 11TX202C 700/43 11MCC202B 8.71 MVA 12.12 kA 97.10 29.02 kA L-DOL - 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 172: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 13 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 219. 0.00 MVA 0.00 kA 0.00 0.00 kA EPCM Office 0.41 0.00 0.00 0.95 8.25 MVA 11.48 kA -64.90 20.45 kA 11.48 8.25 11.48 11.52 MCC902-P-02 Sub018 8.25 MVA 11.48 kA 115.10 20.45 kA Laboratory 0.41 0.00 0.00 0.95 8.25 MVA 11.48 kA -64.90 20.45 kA 11.48 8.25 11.48 11.52 MCC902-P-03 Sub018 8.25 MVA 11.48 kA 115.10 20.45 kA Cone Crushers 3.3 3.30 0.00 0.00 1.00 50.13 MVA 8.77 kA -80.31 19.89 kA 8.77 50.13 8.77 8.86 Feed to Cone Cr 20MCC206B 50.13 MVA 8.77 kA 99.69 19.89 kA HPGR Main Motor 2 0.69 0.00 0.00 0.95 14.69 MVA 12.29 kA -72.55 24.35 kA 12.29 14.69 12.29 12.36 Feeder HPGR Mas HPGR Maste 14.69 MVA 12.29 kA 107.45 24.35 kA HPGR Main Motor 2 0.69 0.00 0.00 0.95 14.69 MVA 12.29 kA -72.55 24.35 kA 12.29 14.69 12.29 12.36 Feeder HPGR Mas HPGR Maste 14.69 MVA 12.29 kA 107.45 24.35 kA HPGR Follower Mot 0.69 0.00 0.00 0.95 14.67 MVA 12.27 kA -72.47 24.28 kA 12.27 14.67 12.27 12.34 Feeder HPGR Fol HPGR Follo 14.67 MVA 12.27 kA 107.53 24.28 kA HPGR Follower Mot 0.69 0.00 0.00 0.95 14.67 MVA 12.27 kA -72.47 24.28 kA 12.27 14.67 12.27 12.34 Feeder HPGR Fol HPGR Follo 14.67 MVA 12.27 kA 107.53 24.28 kA PL10XX (Fuel Unlo 33.00 0.00 0.00 1.00 164.03 MVA 2.87 kA -78.09 6.21 kA 2.80 160.19 2.87 2.89 Feeder TF001 to RMU001 164.03 MVA 2.87 kA 101.91 6.21 kA Feeder from OHL Tx HV Fuel 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10062 0.00 MVA 0.00 kA 0.00 0.00 kA Fuel Unload RCDOS 0.41 0.00 0.00 0.95 2.48 MVA 3.45 kA -49.43 5.35 kA 3.45 2.48 3.45 3.46 150mm Cu XLPE 4 Tx LV Fuel 2.48 MVA 3.45 kA 130.57 5.35 kA L-DOL 30kW(1) 0.00 MVA 0.00 kA 0.00 0.00 kA 120kW Lumped 0.00 MVA 0.00 kA 0.00 0.00 kA TF004 HV 33.00 0.00 0.00 1.00 150.72 MVA 2.64 kA -75.24 5.43 kA 2.60 148.72 2.64 2.65 TF004 100kvA 33 SWB004 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL10062 PL10062 150.72 MVA 2.64 kA 104.76 5.43 kA PL4004 OLC A 33.00 0.00 0.00 1.00 127.27 MVA 2.23 kA -70.34 4.25 kA 2.23 127.27 2.23 2.24 Feeder RMU010 t PL4003 33k 127.27 MVA 2.23 kA 109.66 4.25 kA Feeder PL4004 t REC031 OLC 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4004 to P PL4005 OLC 0.00 MVA 0.00 kA 0.00 0.00 kA PL4005 OLC B 33.00 0.00 0.00 1.00 127.18 MVA 2.23 kA -70.32 4.25 kA 2.23 127.18 2.23 2.24 Feeder PL4005 t REC032 OLC 0.03 MVA 0.00 kA 76.10 0.00 kA OHL PL4004 to P PL4004 OLC 127.16 MVA 2.22 kA 109.69 4.25 kA OHL PL4005 to P PL4007 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 173: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 14 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] PL5059 33.00 0.00 0.00 1.00 107.51 MVA 1.88 kA -66.40 3.41 kA 1.88 107.51 1.88 1.89 OHL PL5043 to P PL5043 107.51 MVA 1.88 kA 113.60 3.41 kA PL5059 to REC03 REC037 0.00 MVA 0.00 kA 0.00 0.00 kA PL5043 33.00 0.00 0.00 1.00 110.98 MVA 1.94 kA -67.08 3.55 kA 1.94 110.98 1.94 1.95 OHL PL5028 to P PL5028 110.98 MVA 1.94 kA 112.92 3.55 kA Feeder PL5043 t TF035 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5043 to P PL5059 0.00 MVA 0.00 kA 0.00 0.00 kA PL5028 33.00 0.00 0.00 1.00 114.66 MVA 2.01 kA -67.81 3.70 kA 2.01 114.66 2.01 2.01 OHL PL5005 to P PL5005 114.66 MVA 2.01 kA 112.19 3.70 kA Feeder PL5028 t TF034 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5028 to P PL5043 0.00 MVA 0.00 kA 0.00 0.00 kA PL5005 33.00 0.00 0.00 1.00 118.58 MVA 2.07 kA -68.59 3.87 kA 2.07 118.58 2.07 2.08 OHL PL5005 to P PL5028 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4007 to P PL4007 118.58 MVA 2.07 kA 111.41 3.87 kA Feeder PL5005 t TF033 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL4007 33.00 0.00 0.00 1.00 122.74 MVA 2.15 kA -69.43 4.05 kA 2.15 122.74 2.15 2.16 OHL PL4005 to P PL4005 OLC 122.74 MVA 2.15 kA 110.57 4.05 kA OHL PL4007 to P PL4008 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4007 to P PL5005 0.00 MVA 0.00 kA 0.00 0.00 kA PL4008 33.00 0.00 0.00 1.00 116.80 MVA 2.04 kA -66.92 3.72 kA 2.04 116.80 2.04 2.05 OHL PL4007 to P PL4007 116.80 MVA 2.04 kA 113.08 3.72 kA OHL PL4008 to O Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4017 0.00 MVA 0.00 kA 0.00 0.00 kA TF033 HV 33.00 0.00 0.00 1.00 117.61 MVA 2.06 kA -68.11 3.81 kA 2.06 117.61 2.06 2.07 TF033 33/0.433k TF033 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5005 t PL5005 117.61 MVA 2.06 kA 111.89 3.81 kA TF034 HV 33.00 0.00 0.00 1.00 113.74 MVA 1.99 kA -67.35 3.65 kA 1.99 113.74 1.99 2.00 TF034 33/0.433k TF034 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5028 t PL5028 113.74 MVA 1.99 kA 112.65 3.65 kA TF035 HV 33.00 0.00 0.00 1.00 110.11 MVA 1.93 kA -66.65 3.50 kA 1.93 110.11 1.93 1.93 TF035 33/0.433k TF035 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5043 t PL5043 110.11 MVA 1.93 kA 113.35 3.50 kA TF033 LV 0.43 0.00 0.00 0.95 26.36 MVA 35.14 kA -78.76 77.43 kA 35.14 26.36 35.14 35.44 TF033 33/0.433k TF033 HV 26.36 MVA 35.14 kA 101.24 77.43 kA TF034 LV 0.43 0.00 0.00 0.95 26.17 MVA 34.89 kA -78.49 76.50 kA 34.89 26.17 34.89 35.18

Page 174: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 15 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF034 33/0.433k TF034 HV 26.17 MVA 34.89 kA 101.51 76.50 kA TF035 LV 0.41 0.00 0.00 0.95 23.86 MVA 33.20 kA -78.23 72.44 kA 33.20 23.86 33.20 33.47 TF035 33/0.433k TF035 HV 23.86 MVA 33.20 kA 101.77 72.44 kA 10TX201 HV 33.00 0.00 0.00 1.00 103.29 MVA 1.81 kA -65.01 3.22 kA 1.81 103.29 1.81 1.81 Feeder REC037 t REC037 103.29 MVA 1.81 kA 114.99 3.22 kA 10TX201 33/0.43 Primary Cr 0.00 MVA 0.00 kA 0.00 0.00 kA Primary Crushing 0.41 0.00 0.00 0.95 24.27 MVA 33.77 kA -79.19 75.02 kA 33.77 24.27 33.77 34.07 10TX201 33/0.43 10TX201 HV 24.27 MVA 33.77 kA 100.81 75.02 kA L-DOL 30kW - 10 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 177. 0.00 MVA 0.00 kA 0.00 0.00 kA REC037 33.00 0.00 0.00 1.00 104.23 MVA 1.82 kA -65.76 3.28 kA 1.82 104.23 1.82 1.83 Feeder REC037 t 10TX201 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL5059 to REC03 PL5059 104.23 MVA 1.82 kA 114.24 3.28 kA Construction Camp 33.00 0.00 0.00 1.00 116.80 MVA 2.04 kA -63.72 3.58 kA 2.04 116.80 2.04 2.05 TF011 33/0.418k LV DB Cons 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU011 t RMU012/SUB 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t PL1075 116.80 MVA 2.04 kA 116.28 3.58 kA RMU012/SUB012 33.00 0.00 0.00 1.00 116.78 MVA 2.04 kA -63.71 3.58 kA 2.04 116.78 2.04 2.05 Feeder RMU011 t Constructi 116.78 MVA 2.04 kA 116.29 3.58 kA TF012 33/0.418k LV SUB012 0.00 MVA 0.00 kA 0.00 0.00 kA Gatehouse RMU 33.00 0.00 0.00 1.00 175.57 MVA 3.07 kA -76.28 6.43 kA 2.97 169.88 3.07 3.09 Gatehouse 33/0. Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU001 175.57 MVA 3.07 kA 103.72 6.43 kA Gatehouse TX LV 0.43 0.00 0.00 0.95 21.31 MVA 28.41 kA -85.00 71.19 kA 28.41 21.31 28.41 28.95 Gatehouse 33/0. Gatehouse 21.31 MVA 28.41 kA 95.00 71.19 kA Ops Office 33kV 33.00 0.00 0.00 1.00 116.23 MVA 2.03 kA -66.68 3.70 kA 2.03 116.23 2.03 2.04 Ops Office 33/0 Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4008 to O PL4008 116.23 MVA 2.03 kA 113.32 3.70 kA Ops Office 415V 0.41 0.00 0.00 0.95 4.29 MVA 5.96 kA -70.85 11.51 kA 5.96 4.29 5.96 5.99 Ops Office 33/0 Ops Office 4.29 MVA 5.96 kA 109.15 11.51 kA PL4017 33.00 0.00 0.00 1.00 116.41 MVA 2.04 kA -66.85 3.71 kA 2.04 116.41 2.04 2.04 Feeder PL4017 t RMU017 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4008 116.41 MVA 2.04 kA 113.15 3.71 kA PS Services 0.43 0.00 0.00 0.95 18.65 MVA 24.87 kA -75.51 51.72 kA 24.87 18.65 24.87 25.04

Page 175: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 16 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF005 11/0.433k PowerStati 18.65 MVA 24.87 kA 104.49 51.72 kA 11MCC202A 690V 0.69 0.00 0.00 0.95 63.64 MVA 53.25 kA -74.66 108.95 kA 53.25 63.64 53.25 53.58 Bustie 11MCC202 11MCC202B 31.81 MVA 26.62 kA 105.35 54.47 kA Feeder to OLC D 11TX202A L 31.83 MVA 26.63 kA 105.33 54.49 kA RC031-MC02 Reclai 0.41 0.00 0.00 0.95 22.39 MVA 31.15 kA -81.18 71.96 kA 31.15 22.39 31.15 31.49 RC031-TF01 11kV RC031 Recl 22.39 MVA 31.15 kA 98.82 71.96 kA 4kW Motor 0.00 MVA 0.00 kA 0.00 0.00 kA 11TX202B LV 0.69 0.00 0.00 0.95 64.96 MVA 54.36 kA -75.19 112.49 kA 54.36 64.96 54.36 54.71 Feeder to OLC D 11MCC202B 25.63 MVA 21.44 kA 108.79 44.38 kA 11TX202B 33/0.7 REC032 OLC 39.44 MVA 33.00 kA 102.23 68.29 kA 11TX202A LV 0.69 0.00 0.00 0.95 64.97 MVA 54.36 kA -75.19 112.51 kA 54.36 64.97 54.36 54.71 11TX202A 33/0.7 REC031 OLC 39.45 MVA 33.01 kA 102.21 68.32 kA Feeder to OLC D 11MCC202A 25.62 MVA 21.44 kA 108.81 44.36 kA Secondary & Terti 0.41 0.00 0.00 0.95 37.81 MVA 52.61 kA -84.35 129.80 kA 52.61 37.81 52.61 53.49 20TX205 11/0.43 20TX205 HV 37.81 MVA 52.61 kA 95.65 129.80 kA L-DOL 150kW Con 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 37kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 34kW 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 37kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 56kW 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL - 37kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL- 56k 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL -132kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 45kW 0.00 MVA 0.00 kA 0.00 0.00 kA LV DB Constructio 0.41 0.00 0.00 0.95 33.71 MVA 46.90 kA -78.07 101.99 kA 46.90 33.71 46.90 47.27 TF011 33/0.418k Constructi 33.71 MVA 46.90 kA 101.93 101.99 kA LV SUB012 0.41 0.00 0.00 0.95 33.71 MVA 46.90 kA -78.07 101.98 kA 46.90 33.71 46.90 47.27 TF012 33/0.418k RMU012/SUB 33.71 MVA 46.90 kA 101.93 101.98 kA

Page 176: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Max. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Automatic Neglection Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Max. Loading (Peak) 80.00 % Max. Loading (Interrupting) 80.00 % Max. Loading (Thermal) 80.00 % Fortescue SC-2 DIgSILENT Project: XMAS CREEK Metals Group 20 Generators in Service (No Load Flow) PowerFactory Maximum Short Circuit Currents 14.1.4 Date: 4/24/2013 Study Case: Study Case Annex: / 1 Overloaded Busbars/Terminals Nominal Thermal equivalent Current Peak Short-Circuit Current Name Type Voltage Nominal ( 1.0 s) Actual Loading Nominal Actual Loading [kV] [kA] [kA] [kA] [% ] [kA] [kA] [%] 20MCC04 OPF1 11kV 31.5kA 1s 11.00 31.50 (1s) 31.50 26.09 82.82 0.00 62.92 0.00 20MCC206A OPF2 OPF2 SS 11kV 31.5kA 1s 11.00 31.50 (1s) 31.50 26.11 82.88 0.00 63.18 0.00 30TX207A LV 415V 65kA 1s 0.41 65.00 (1s) 65.00 54.38 83.66 0.00 126.35 0.00 30TX207B LV 415V 65kA 1s 0.43 65.00 (1s) 65.00 58.94 90.67 0.00 136.73 0.00 30TX207C LV 415V 65kA 1s 0.43 65.00 (1s) 65.00 59.15 90.99 0.00 137.35 0.00 Jigging 35TX208B LV 415V 80kA 1s 0.43 80.00 (1s) 80.00 72.17 90.21 0.00 179.51 0.00 Kiosk Substation Sub018 30kA 0.415V 0.41 30.00 (1s) 30.00 27.97 93.23 0.00 57.36 0.00 Secondary & Tertiray Crushing (20MCC2415V 65kA 1s 0.41 65.00 (1s) 65.00 65.01 100.02 0.00 154.94 0.00 Stockyard Substation 11kV 11kV 31.5kA 1s 11.00 31.50 (1s) 31.50 26.35 83.65 0.00 63.77 0.00

Page 177: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Study Case: Study Case Annex: / 2 Overloaded Branches Thermal equivalent Current Name Type Terminal i Terminal j Nominal(1s) ( 1.0 s) Actual Loading [kA] [kA] [kA] [%] Feeder 20MCC206A to 12TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX203 HV 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 15TX204A HV 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX204B HV 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 20TX205 HV 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 120mm Lne OPF2 SS/20MCC2.. 20TX206A HV 17.10 17.10 26.11 152.68 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Master 20.. 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Follower .. 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 26.11 290.42 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 35TX208C HV 8.99 8.99 26.11 290.42 Feeder 20MCC206B to 20TX2 Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump D .. 8.99 8.99 10.32 114.83 Feeder 20MCC206B to Tails Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump E 3.. 8.99 8.99 10.32 114.83 Feeder HV901 to CV201-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Plant Output C.. 7.15 7.15 26.35 368.53 Feeder HV901 to CV401-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. CV401-EM01/EM02 7.15 7.15 26.35 368.53 Feeder HV901 to CV601-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Reclaimer Conv.. 14.30 14.30 26.35 184.26 Feeder HV901 to CV801-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Train Loadout .. 14.30 14.30 26.35 184.26 Feeder HV901 to RC031 600 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. RC031 Reclaimer 7.15 7.15 26.35 368.53 Feeder HV901 to TF801 Tx Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF801 HV - Tra.. 7.15 7.15 26.35 368.53 Feeder HV901 to TF901 20m Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF901 HV 7.15 7.15 26.35 368.53 Feeder to SK703 Med Point Olex 6.35/11kV 50mm Lne HV901/Stockyar.. SK703-TF01 TX HV 7.15 7.15 26.35 368.53

Page 178: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Fortescue SC-2 DIgSILENT Project: XMAS CREEK Metals Group 20 Generators in Service (No Load Flow) PowerFactory Maximum Short Circuit Currents 14.1.4 Date: 4/24/2013 Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Max. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Automatic Neglection Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Grid: Christmas Creek System Stage: Christmas Creek Annex: / 1 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] HV901 Stockyard Subst 11.00 0.00 0.00 1.10 493.92 MVA 25.92 kA -84.13 63.77 kA 17.64 336.01 22.57 26.35 Alternate Feede HV902-11kV 199.35 MVA 10.46 kA 92.33 25.74 kA FE-04 - PS to H PowerStati 289.55 MVA 15.20 kA 98.20 37.38 kA Feeder HV901 to Plant Outp 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to CV401-EM01 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Train Load 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to RC031 Recl 0.04 MVA 0.00 kA 95.71 0.00 kA Feeder HV901 to TF801 HV - 1.45 MVA 0.08 kA 95.95 0.19 kA Feeder HV901 to TF901 HV 0.30 MVA 0.02 kA 103.43 0.04 kA Feeder to SK703 SK703-TF01 3.87 MVA 0.20 kA 102.63 0.50 kA HV902-11kV Stockyard Subst 11.00 0.00 0.00 1.10 493.39 MVA 25.90 kA -84.14 63.71 kA 17.63 335.85 22.54 26.32 Alternate Feede HV901 238.33 MVA 12.51 kA 98.13 30.77 kA OPF1 Incomer 1 OPF1 18.26 MVA 0.96 kA 110.99 2.36 kA Power Station F PowerStati 238.06 MVA 12.49 kA 92.43 30.74 kA MC901 MC901 415V 0.41 0.00 0.00 1.05 9.65 MVA 13.42 kA -84.03 33.01 kA 13.07 9.39 13.00 13.64 TF901 11/0.433k TF901 HV 9.38 MVA 13.04 kA 95.75 32.09 kA 19.5kW Lumped D 0.13 MVA 0.18 kA 112.78 0.44 kA L-DOL 15kW 0.15 MVA 0.20 kA 95.71 0.50 kA MCC902 Turkeys Nest 0.41 0.00 0.00 1.05 10.69 MVA 14.87 kA -67.12 27.26 kA 13.80 9.92 13.43 14.93 MCC902-P-01 Sub018 9.68 MVA 13.46 kA 112.89 24.69 kA 22kW DOL 0.14 MVA 0.20 kA 112.78 0.37 kA

Page 179: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 2 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] L-DOL 132kW 0.87 MVA 1.21 kA 112.78 2.21 kA OPF1 20MCC04 11.00 0.00 0.00 1.10 489.24 MVA 25.68 kA -83.95 62.92 kA 17.58 335.02 22.36 26.09 Feeder HV902 to 20MCC04 17.22 MVA 0.90 kA 110.88 2.21 kA OPF1 Incomer 1 HV902-11kV 471.62 MVA 24.75 kA 95.48 60.65 kA TF008 11/0.433k Sub018 1.05 MVA 0.05 kA 112.83 0.13 kA OPF2 SS 20MCC206A OPF2 11.00 0.00 0.00 1.10 489.40 MVA 25.69 kA -84.13 63.18 kA 17.57 334.80 22.32 26.11 FE-07 to OPF2-A PowerStati 225.81 MVA 11.85 kA 94.67 29.15 kA FE-08 to OPF2-B PowerStati 225.81 MVA 11.85 kA 94.67 29.15 kA Feeder 20MCC206 12TX203 HV 0.50 MVA 0.03 kA 112.58 0.06 kA Feeder 20MCC206 15TX204A H 1.51 MVA 0.08 kA 112.25 0.19 kA Feeder 20MCC206 12TX204B H 2.25 MVA 0.12 kA 112.02 0.29 kA Feeder 20MCC206 20TX205 HV 4.05 MVA 0.21 kA 111.52 0.52 kA Feeder 20MCC206 20TX206A H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 2.95 MVA 0.15 kA 111.79 0.38 kA Feeder 20MCC206 Desands 30 3.17 MVA 0.17 kA 111.76 0.41 kA Feeder 20MCC206 Desands 30 4.51 MVA 0.24 kA 107.04 0.58 kA Feeder 20MCC206 Jigging 35 7.10 MVA 0.37 kA 110.30 0.92 kA Feeder 20MCC206 Jigging 35 10.60 MVA 0.56 kA 109.72 1.37 kA Feeder 20MCC206 35TX208C H 2.41 MVA 0.13 kA 102.32 0.31 kA PowerStation Power Station B 11.00 0.00 0.00 1.10 504.15 MVA 26.46 kA -84.71 65.90 kA 17.73 337.88 23.01 26.94 FE-04 - PS to H HV901 12.46 MVA 0.65 kA 111.09 1.63 kA FE-07 to OPF2-A OPF2 SS 19.45 MVA 1.02 kA 109.84 2.54 kA FE-08 to OPF2-B OPF2 SS 19.45 MVA 1.02 kA 109.84 2.54 kA FE-09 PS to TF0 OHL East T 2.73 MVA 0.14 kA 109.45 0.36 kA Feeder PS to TF OHL West T 2.73 MVA 0.14 kA 109.45 0.36 kA Power Station F HV902-11kV 11.38 MVA 0.60 kA 105.93 1.49 kA TF005 11/0.433k PS Service 0.00 MVA 0.00 kA 0.00 0.00 kA Eathing Tx ZigZ 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 01 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 02 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 03 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 04 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 05 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 06 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 07 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 08 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 09 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 10 21.92 MVA 1.15 kA -86.88 2.86 kA

Page 180: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 3 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Generator 11 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 12 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 13 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 14 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 15 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 16 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 17 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 18 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 19 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 20 21.92 MVA 1.15 kA -86.88 2.86 kA Generator 21 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 22 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 23 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 24 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 25 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 26 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 27 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 28 0.00 MVA 0.00 kA 0.00 0.00 kA RMU001 Power StationRM 33.00 0.00 0.00 1.10 237.18 MVA 4.15 kA -84.53 10.32 kA 3.78 216.19 3.81 4.22 Feeder RMU001 t Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU010 Pow 120.49 MVA 2.11 kA 95.69 5.24 kA Feeder TF001 to PL10XX (Fu 0.84 MVA 0.01 kA 112.34 0.04 kA TF001 11/33kV 1 OHL West T 115.88 MVA 2.03 kA 95.13 5.04 kA RMU017 CCY1 33.00 0.00 0.00 1.10 133.17 MVA 2.33 kA -68.38 4.35 kA 2.29 130.95 2.20 2.34 CCY1-RMU017-P1 HV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P2 HV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P3 HV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P4 HV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4017 t PL4017 133.17 MVA 2.33 kA 111.62 4.35 kA SWB004 Switchroom Tels 0.43 0.00 0.00 1.05 2.65 MVA 3.53 kA -67.34 6.49 kA 3.53 2.65 3.53 3.55 Feeder TF004 to Telstra Hu 0.00 MVA 0.00 kA 0.00 0.00 kA TF004 100kvA 33 TF004 HV 2.65 MVA 3.53 kA 112.66 6.49 kA Sub018 Kiosk Substatio 0.41 0.00 0.00 1.05 19.98 MVA 27.79 kA -74.92 57.36 kA 26.89 19.33 26.31 27.97 MCC902-P-01 MCC902 0.96 MVA 1.34 kA 113.20 2.76 kA MCC902-P-02 EPCM Offic 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902-P-03 Laboratory 0.00 MVA 0.00 kA 0.00 0.00 kA TF008 11/0.433k OPF1 19.03 MVA 26.47 kA 104.67 54.63 kA

Page 181: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 4 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] THLoad Telstra Hut Loa 0.43 0.00 0.00 1.05 1.45 MVA 1.94 kA -38.23 2.86 kA 1.94 1.45 1.94 1.94 SB004 to Telstr Telstra Hu 1.45 MVA 1.94 kA 141.77 2.86 kA TLO MC801 415V MC801 0.41 0.00 0.00 1.05 10.40 MVA 14.47 kA -82.86 34.65 kA 12.60 9.05 12.38 14.67 Feeder TF801 to TF801 LV - 8.92 MVA 12.41 kA 97.38 29.72 kA 105.4kW Lumped 0.86 MVA 1.19 kA 95.71 2.86 kA L-DOL 75kW 0.62 MVA 0.87 kA 95.71 2.08 kA Telstra Hut Telstra Hut DB 0.43 0.00 0.00 1.05 2.64 MVA 3.52 kA -67.19 6.46 kA 3.52 2.64 3.52 3.53 Feeder TF004 to SWB004 2.64 MVA 3.52 kA 112.81 6.46 kA SB004 to Telstr THLoad 0.00 MVA 0.00 kA 0.00 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.10 486.96 MVA 25.56 kA -83.71 62.31 kA 17.57 334.84 22.30 25.95 Feeder HV901 to HV901 486.96 MVA 25.56 kA 96.29 62.31 kA TF801 HV - Train 11.00 0.00 0.00 1.10 336.80 MVA 17.68 kA -56.24 28.96 kA 15.42 293.79 16.38 17.73 Feeder HV901 to HV901 335.51 MVA 17.61 kA 123.88 28.85 kA TF801 - Train L TF801 LV - 1.45 MVA 0.08 kA 95.83 0.13 kA TF801 LV - Train 0.41 0.00 0.00 1.05 10.79 MVA 15.01 kA -83.53 36.45 kA 13.16 9.46 12.92 15.23 TF801 - Train L TF801 HV - 9.32 MVA 12.96 kA 96.57 31.48 kA Feeder TF801 to TLO MC801 1.47 MVA 2.05 kA 95.85 4.97 kA Train Loadout Con 11.00 0.00 0.00 1.10 428.61 MVA 22.50 kA -70.25 43.26 kA 17.29 329.33 20.13 22.61 Feeder HV901 to HV901 428.61 MVA 22.50 kA 109.75 43.26 kA Reclaimer Conveyo 11.00 0.00 0.00 1.10 481.76 MVA 25.29 kA -81.04 58.39 kA 17.62 335.72 22.13 25.56 Feeder HV901 to HV901 481.76 MVA 25.29 kA 98.96 58.39 kA Plant Output Conv 11.00 0.00 0.00 1.10 428.61 MVA 22.50 kA -70.25 43.26 kA 17.29 329.33 20.13 22.61 Feeder HV901 to HV901 428.61 MVA 22.50 kA 109.75 43.26 kA CV401-EM01/EM02 11.00 0.00 0.00 1.10 241.85 MVA 12.69 kA -44.10 19.15 kA 12.09 230.41 12.16 12.72 Feeder HV901 to HV901 241.85 MVA 12.69 kA 135.90 19.15 kA TF901 HV 11.00 0.00 0.00 1.10 487.95 MVA 25.61 kA -82.57 60.97 kA 17.63 335.89 22.35 25.95 Feeder HV901 to HV901 487.65 MVA 25.59 kA 97.43 60.94 kA TF901 11/0.433k MC901 0.30 MVA 0.02 kA 103.43 0.04 kA 20MCC04 11.00 0.00 0.00 1.10 470.91 MVA 24.72 kA -83.02 59.38 kA 17.37 330.97 21.58 25.06 10TX01 11/0.433 10MCC01 Pr 1.12 MVA 0.06 kA 112.40 0.14 kA Feeder HV902 to OPF1 454.19 MVA 23.84 kA 96.45 57.28 kA 15TX02A 11/0.43 15MCC02A S 1.31 MVA 0.07 kA 112.32 0.17 kA

Page 182: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 5 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 15Tx02B 11/0.43 15MCC02B S 2.44 MVA 0.13 kA 106.09 0.31 kA 20Tx03 3500kVA 20MCC03 Se 5.31 MVA 0.28 kA 111.73 0.67 kA 20TX04A 11/3.3k Desands Ar 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04B 11/1.90 20TX04B De 20TX04B St 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04C 11/1.90 20TX04C De 20TX04C St 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX05A 11/0.43 30MCC05A 2.10 MVA 0.11 kA 112.13 0.26 kA 30TX05B 11/0.43 30MCC05B 4.97 MVA 0.26 kA 111.04 0.63 kA SK703-TF01 TX HV 11.00 0.00 0.00 1.10 325.28 MVA 17.07 kA -54.75 27.66 kA 15.04 286.61 15.81 17.12 SK703-TF01 11/0 SK703-TF01 3.88 MVA 0.20 kA 102.30 0.33 kA Feeder to SK703 HV901 321.71 MVA 16.89 kA 125.52 27.35 kA SK703-TF01 Stacke 0.43 0.00 0.00 1.05 29.29 MVA 39.06 kA -81.19 90.99 kA 34.86 26.15 33.11 39.51 SK703-TF01 11/0 SK703-TF01 25.02 MVA 33.36 kA 98.03 77.70 kA L-DOL 250kW 2.28 MVA 3.03 kA 95.71 7.07 kA 288.3kW Lumped 2.06 MVA 2.75 kA 111.80 6.40 kA RC031 Reclaimer 11.00 0.00 0.00 1.10 310.71 MVA 16.31 kA -52.68 25.92 kA 14.65 279.19 15.28 16.35 Feeder HV901 to HV901 310.68 MVA 16.31 kA 127.32 25.92 kA RC031-TF01 11kV RC031-MC02 0.04 MVA 0.00 kA 95.71 0.00 kA OHL West TF001 LV 11.00 0.00 0.00 1.10 502.37 MVA 26.37 kA -84.65 65.58 kA 17.72 337.59 22.94 26.84 Feeder PS to TF PowerStati 499.34 MVA 26.21 kA 95.28 65.19 kA TF001 11/33kV 1 RMU001 3.08 MVA 0.16 kA 105.63 0.40 kA OHL East TF012 LV 11.00 0.00 0.00 1.10 503.14 MVA 26.41 kA -84.64 65.66 kA 17.73 337.74 22.97 26.88 FE-09 PS to TF0 PowerStati 500.27 MVA 26.26 kA 95.30 65.29 kA TF012 11/33kV 1 RMU010 Pow 2.92 MVA 0.15 kA 105.76 0.38 kA RMU010 Power Stat 33.00 0.00 0.00 1.10 237.18 MVA 4.15 kA -84.53 10.32 kA 3.78 216.19 3.81 4.22 TF012 11/33kV 1 OHL East T 115.96 MVA 2.03 kA 95.14 5.05 kA PL4001-P1 U/G 1 PL4001 REC 4.69 MVA 0.08 kA 109.14 0.20 kA Feeder RMU001 t RMU001 116.66 MVA 2.04 kA 95.26 5.08 kA PL4001 REC001 33.00 0.00 0.00 1.10 236.59 MVA 4.14 kA -84.36 10.26 kA 3.78 215.77 3.80 4.21 PL4001-P1 U/G 1 RMU010 Pow 232.03 MVA 4.06 kA 95.37 10.06 kA OHL PL4001 to P PL4003 33k 4.69 MVA 0.08 kA 109.14 0.20 kA PL4003 33kV 33.00 0.00 0.00 1.10 210.15 MVA 3.68 kA -80.35 8.38 kA 3.45 197.21 3.40 3.71 OHL PL4001 to P PL4001 REC 205.51 MVA 3.60 kA 99.44 8.20 kA TF042 33/0.418k PL4426 Fue 0.88 MVA 0.02 kA 107.53 0.04 kA Feeder RMU010 t PL4004 OLC 3.82 MVA 0.07 kA 109.44 0.15 kA Tx HV Fuel Unload 33.00 0.00 0.00 1.10 194.32 MVA 3.40 kA -78.17 7.44 kA 3.25 185.91 3.17 3.43 Fuel Unload 33/ Tx LV Fuel 0.84 MVA 0.01 kA 112.33 0.03 kA Feeder from OHL PL10XX (Fu 193.49 MVA 3.39 kA 101.79 7.41 kA

Page 183: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 6 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Tx LV Fuel Unload 0.41 0.00 0.00 1.05 5.67 MVA 7.89 kA -70.60 15.27 kA 7.07 5.08 6.67 7.93 Fuel Unload 33/ Tx HV Fuel 4.81 MVA 6.69 kA 108.76 12.94 kA 150mm Cu XLPE 4 Fuel Unloa 0.87 MVA 1.21 kA 112.92 2.34 kA PL1075 33.00 0.00 0.00 1.10 165.91 MVA 2.90 kA -74.16 5.92 kA 2.85 163.01 2.74 2.92 Feeder PL10062 PL10062 165.91 MVA 2.90 kA 105.84 5.92 kA Feeder PL1075 t PL1081 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t Constructi 0.00 MVA 0.00 kA 0.00 0.00 kA PL10062 33.00 0.00 0.00 1.10 178.20 MVA 3.12 kA -75.88 6.55 kA 3.04 173.72 2.93 3.14 Feeder PL10062 PL1075 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10XX (Fu 178.20 MVA 3.12 kA 104.12 6.55 kA Feeder PL10062 TF004 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL1081 33.00 0.00 0.00 1.10 152.52 MVA 2.67 kA -72.31 5.28 kA 2.64 151.02 2.53 2.68 Feeder PL1075 t PL1075 152.52 MVA 2.67 kA 107.69 5.28 kA Feeder PL1081 t Kandama Vi 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Harridan Hill Tow 33.00 0.00 0.00 1.10 145.26 MVA 2.54 kA -71.32 4.96 kA 2.52 144.04 2.42 2.55 Harridan Hill P Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H PL1081 145.26 MVA 2.54 kA 108.68 4.96 kA REC031 OLC 33.00 0.00 0.00 1.10 150.97 MVA 2.64 kA -71.62 5.17 kA 2.59 147.95 2.47 2.66 Feeder PL4004 t PL4004 OLC 149.52 MVA 2.62 kA 108.54 5.12 kA 11TX202A 33/0.7 11TX202A L 1.51 MVA 0.03 kA 92.52 0.05 kA HV TF017-1 33.00 0.00 0.00 1.10 132.42 MVA 2.32 kA -68.17 4.32 kA 2.28 130.23 2.19 2.33 CCY1-RMU017-P1 RMU017 132.42 MVA 2.32 kA 111.83 4.32 kA TF017-1 33/0.43 LV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-2 33.00 0.00 0.00 1.10 132.62 MVA 2.32 kA -68.22 4.33 kA 2.28 130.42 2.19 2.33 CCY1-RMU017-P2 RMU017 132.62 MVA 2.32 kA 111.78 4.33 kA TF017-2 33/0.43 LV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-3 33.00 0.00 0.00 1.10 132.73 MVA 2.32 kA -68.25 4.33 kA 2.28 130.52 2.19 2.33 CCY1-RMU017-P3 RMU017 132.73 MVA 2.32 kA 111.75 4.33 kA TF017-3 33/0.43 LV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-4 33.00 0.00 0.00 1.10 132.40 MVA 2.32 kA -68.16 4.31 kA 2.28 130.21 2.19 2.33 CCY1-RMU017-P4 RMU017 132.40 MVA 2.32 kA 111.84 4.31 kA TF017-4 33/0.43 LV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA LV TF017-1 Admin 0.43 0.00 0.00 1.05 15.03 MVA 20.03 kA -82.21 47.32 kA 20.03 15.03 19.88 20.28 TF017-1 33/0.43 HV TF017-1 15.03 MVA 20.03 kA 97.79 47.32 kA

Page 184: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 7 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] LV TF017-2 Ancill 0.43 0.00 0.00 1.05 15.03 MVA 20.04 kA -82.22 47.34 kA 20.04 15.03 19.89 20.29 TF017-2 33/0.43 HV TF017-2 15.03 MVA 20.04 kA 97.78 47.34 kA LV TF017-3 HV W/S 0.43 0.00 0.00 1.05 22.38 MVA 29.84 kA -83.14 71.88 kA 29.84 22.38 29.51 30.26 TF017-3 33/0.43 HV TF017-3 22.38 MVA 29.84 kA 96.86 71.88 kA LV TF017-4 Gulf W 0.43 0.00 0.00 1.05 15.03 MVA 20.03 kA -82.21 47.32 kA 20.03 15.03 19.88 20.28 TF017-4 33/0.43 HV TF017-4 15.03 MVA 20.03 kA 97.79 47.32 kA Kandama Village R 33.00 0.00 0.00 1.10 147.44 MVA 2.58 kA -71.62 5.05 kA 2.56 146.18 2.45 2.59 Feeder PL1081 t PL1081 147.44 MVA 2.58 kA 108.38 5.05 kA 08TF002 33/11kV RMU-05 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-05 11.00 0.00 0.00 1.10 57.45 MVA 3.02 kA -78.39 6.61 kA 3.01 57.41 2.95 3.04 08TF002 33/11kV Kandama Vi 57.45 MVA 3.02 kA 101.61 6.61 kA Connectin RMU-0 RMU-06 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-04 11.00 0.00 0.00 1.10 57.14 MVA 3.00 kA -78.25 6.56 kA 3.00 57.10 2.93 3.02 Tx-004 11/0.415 Waste Wate 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder from Tx0 RMU-06 57.14 MVA 3.00 kA 101.75 6.56 kA Feeder RMU-04 t RMU-03 0.00 MVA 0.00 kA 0.00 0.00 kA Waste Water Treat 0.41 0.00 0.00 1.05 14.70 MVA 20.46 kA -81.27 47.41 kA 20.46 14.70 20.33 20.68 Tx-004 11/0.415 RMU-04 14.70 MVA 20.46 kA 98.73 47.41 kA RMU-06 11.00 0.00 0.00 1.10 57.45 MVA 3.02 kA -78.39 6.61 kA 3.01 57.41 2.95 3.04 Feeder from Tx0 RMU-04 0.00 MVA 0.00 kA 0.00 0.00 kA Connectin RMU-0 RMU-05 57.45 MVA 3.02 kA 101.61 6.61 kA RMU-03 11.00 0.00 0.00 1.10 56.82 MVA 2.98 kA -77.93 6.48 kA 2.98 56.80 2.92 3.01 Feeder RMU-04 t RMU-04 56.82 MVA 2.98 kA 102.07 6.48 kA Feeder RMU-03 t RMU-02 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-003 11/0.415 TX-003 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-02 11.00 0.00 0.00 1.10 56.50 MVA 2.97 kA -77.62 6.41 kA 2.96 56.48 2.90 2.99 Feeder RMU-03 t RMU-03 56.50 MVA 2.97 kA 102.38 6.41 kA Feeder RMU-02 t RMU-01 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-002 11/0.415 TX-002 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-01 11.00 0.00 0.00 1.10 56.18 MVA 2.95 kA -77.31 6.34 kA 2.95 56.16 2.88 2.97 Feeder RMU-02 t RMU-02 56.18 MVA 2.95 kA 102.69 6.34 kA Tx-001 11/0.415 TX-001 LV 0.00 MVA 0.00 kA 0.00 0.00 kA TX-003 LV 0.41 0.00 0.00 1.05 14.68 MVA 20.43 kA -81.18 47.26 kA 20.43 14.68 20.30 20.65 Tx-003 11/0.415 RMU-03 14.68 MVA 20.43 kA 98.82 47.26 kA

Page 185: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 8 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TX-002 LV 0.41 0.00 0.00 1.05 14.66 MVA 20.40 kA -81.10 47.10 kA 20.40 14.66 20.27 20.62 Tx-002 11/0.415 RMU-02 14.66 MVA 20.40 kA 98.90 47.10 kA TX-001 LV 0.41 0.00 0.00 1.05 14.64 MVA 20.37 kA -81.01 46.95 kA 20.37 14.64 20.24 20.59 Tx-001 11/0.415 RMU-01 14.64 MVA 20.37 kA 98.99 46.95 kA Harridan Hill Tow 0.41 0.00 0.00 1.05 2.42 MVA 3.37 kA -67.28 6.20 kA 3.37 2.42 3.37 3.39 Harridan Hill P Harridan H 2.42 MVA 3.37 kA 112.72 6.20 kA 10MCC01 Primary C 0.43 0.00 0.00 1.05 43.97 MVA 58.63 kA -83.76 143.59 kA 57.67 43.25 56.46 59.56 10TX01 11/0.433 20MCC04 42.92 MVA 57.23 kA 95.83 140.16 kA L-DOL 45kW 0.32 MVA 0.43 kA 112.78 1.05 kA 108.5kW DOL 0.78 MVA 1.03 kA 112.78 2.53 kA 15MCC02A Screenin 0.43 0.00 0.00 1.05 42.74 MVA 56.99 kA -83.67 139.44 kA 55.88 41.91 54.63 57.89 15TX02A 11/0.43 20MCC04 41.51 MVA 55.35 kA 95.82 135.42 kA DOL Wet Sizing 0.64 MVA 0.86 kA 112.78 2.10 kA 90kW DOL- 0.64 MVA 0.86 kA 112.78 2.10 kA 15MCC02B Screenin 0.43 0.00 0.00 1.05 43.91 MVA 58.55 kA -83.58 143.08 kA 56.22 42.16 54.63 59.47 15Tx02B 11/0.43 20MCC04 41.50 MVA 55.34 kA 95.82 135.22 kA L-DOL-90kW 0.89 MVA 1.19 kA 95.71 2.91 kA 222kW DOL 1.59 MVA 2.11 kA 112.78 5.17 kA 20MCC03 Secondary 0.41 0.00 0.00 1.05 53.26 MVA 74.09 kA -82.53 178.54 kA 70.03 50.34 66.29 75.14 20Tx03 3500kVA 20MCC04 48.40 MVA 67.33 kA 95.84 162.24 kA Feeder Area 15 Area 20 MC 4.48 MVA 6.23 kA 113.24 15.02 kA L-DOL 90kW 0.59 MVA 0.82 kA 112.78 1.98 kA Area 20 MCC03 20C 0.41 0.00 0.00 1.05 31.22 MVA 43.44 kA -72.46 86.29 kA 38.54 27.71 36.19 43.68 Feeder Area 15 20MCC03 Se 26.37 MVA 36.69 kA 106.57 72.88 kA L-DOL Lube 2 Co 0.98 MVA 1.37 kA 112.78 2.72 kA L-DOL Dust Extr 0.87 MVA 1.21 kA 112.78 2.39 kA DOL 74kW 0.49 MVA 0.68 kA 112.78 1.34 kA DOL 74kW(1) 0.49 MVA 0.68 kA 112.78 1.34 kA L-DOL Lube 1 Co 0.98 MVA 1.37 kA 112.78 2.72 kA DOL 163kW 1.07 MVA 1.49 kA 112.78 2.96 kA Desands Area 15/2 3.30 0.00 0.00 1.10 45.58 MVA 7.98 kA -84.17 19.64 kA 7.98 45.58 7.86 8.11 20TX04A 11/3.3k 20MCC04 45.58 MVA 7.98 kA 95.83 19.64 kA PL4426 Fuel Stora 0.42 0.00 0.00 1.05 5.82 MVA 8.03 kA -71.51 15.76 kA 6.96 5.04 6.74 8.07 TF042 33/0.418k PL4003 33k 4.89 MVA 6.75 kA 108.72 13.24 kA L-DOL Loading P 0.30 MVA 0.42 kA 95.71 0.83 kA 94kW Motor Lump 0.63 MVA 0.88 kA 112.78 1.72 kA

Page 186: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 9 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 20TX04B Delta LV 1.90 0.00 0.00 1.10 26.48 MVA 8.03 kA -84.22 19.78 kA 8.03 26.48 7.96 8.16 20TX04B 11/1.90 20MCC04 20TX04B St 26.48 MVA 8.03 kA 95.78 19.78 kA 20TX04B Star LV 1.90 0.00 0.00 1.10 26.48 MVA 8.03 kA -84.22 19.78 kA 8.03 26.48 7.96 8.16 20TX04B 11/1.90 20MCC04 20TX04B De 26.48 MVA 8.03 kA 95.78 19.78 kA 20TX04C Delta LV 1.90 0.00 0.00 1.10 26.48 MVA 8.03 kA -84.22 19.78 kA 8.03 26.48 7.96 8.16 20TX04C 11/1.90 20MCC04 20TX04C St 26.48 MVA 8.03 kA 95.78 19.78 kA 20TX04C Star LV 1.90 0.00 0.00 1.10 26.48 MVA 8.03 kA -84.22 19.78 kA 8.03 26.48 7.96 8.16 20TX04C 11/1.90 20MCC04 20TX04C De 26.48 MVA 8.03 kA 95.78 19.78 kA 30MCC05A 0.43 0.00 0.00 1.05 48.30 MVA 64.40 kA -83.45 157.09 kA 62.69 47.02 60.86 65.40 30TX05A 11/0.43 20MCC04 46.31 MVA 61.75 kA 95.83 150.61 kA L-DOL 110kW 0.79 MVA 1.05 kA 112.78 2.56 kA DOL 181kW 1.29 MVA 1.72 kA 112.78 4.21 kA 30MCC05B 0.43 0.00 0.00 1.05 46.54 MVA 62.06 kA -82.29 149.05 kA 58.19 43.64 54.63 62.92 30TX05B 11/0.43 20MCC04 41.48 MVA 55.31 kA 95.81 132.84 kA L-DOL 150kW 1.07 MVA 1.43 kA 112.78 3.43 kA DOL 587kW 4.19 MVA 5.59 kA 112.78 13.43 kA 12TX203 HV 11.00 0.00 0.00 1.10 388.00 MVA 20.36 kA -69.48 38.72 kA 16.38 312.01 18.37 20.46 Feeder 20MCC206 OPF2 SS 387.50 MVA 20.34 kA 110.52 38.67 kA 12TX203 11/0.43 Reclaim Tu 0.50 MVA 0.03 kA 112.57 0.05 kA Reclaim Tunnel Ar 0.43 0.00 0.00 1.05 34.92 MVA 46.56 kA -82.71 111.32 kA 46.09 34.57 45.44 47.18 12TX203 11/0.43 12TX203 HV 34.45 MVA 45.93 kA 97.07 109.83 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 22kW Conv 0.16 MVA 0.22 kA 112.78 0.52 kA DOL 44kW 0.32 MVA 0.43 kA 112.78 1.02 kA 15TX204A HV 11.00 0.00 0.00 1.10 434.50 MVA 22.81 kA -75.68 47.73 kA 17.11 325.93 20.21 22.96 Feeder 20MCC206 OPF2 SS 433.01 MVA 22.73 kA 104.29 47.57 kA 15TX204A 11/0.4 15TX204A S 1.51 MVA 0.08 kA 112.23 0.17 kA 15TX204A Scrubber 0.43 0.00 0.00 1.05 41.23 MVA 54.97 kA -82.89 132.33 kA 53.69 40.27 52.41 55.74 15TX204A 11/0.4 15TX204A H 39.80 MVA 53.07 kA 96.53 127.74 kA L-DOL 90kW(1) 0.64 MVA 0.86 kA 112.78 2.06 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 193kW 0.84 MVA 1.13 kA 112.78 2.71 kA 12TX204B HV 11.00 0.00 0.00 1.10 432.60 MVA 22.71 kA -75.40 47.29 kA 17.08 325.40 20.12 22.86 Feeder 20MCC206 OPF2 SS 430.37 MVA 22.59 kA 104.56 47.05 kA 12TX204B 11/0.4 12TX204B S 2.25 MVA 0.12 kA 111.99 0.25 kA

Page 187: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 10 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 12TX204B Scrubber 0.43 0.00 0.00 1.05 43.13 MVA 57.51 kA -82.58 137.80 kA 55.66 41.74 53.93 58.29 12TX204B 11/0.4 12TX204B H 40.96 MVA 54.62 kA 96.59 130.87 kA L-DOL- 90kW 0.64 MVA 0.86 kA 112.78 2.05 kA DOL Lumped 225. 1.61 MVA 2.15 kA 112.78 5.15 kA 20TX205 HV 11.00 0.00 0.00 1.10 482.79 MVA 25.34 kA -83.02 60.88 kA 17.53 334.06 22.06 25.69 Feeder 20MCC206 OPF2 SS 478.87 MVA 25.13 kA 96.86 60.39 kA 20TX205 11/0.43 Secondary 4.05 MVA 0.21 kA 111.51 0.51 kA 20TX206A HV 11.00 0.00 0.00 1.10 483.10 MVA 25.36 kA -83.25 61.22 kA 17.53 334.05 22.08 25.72 Feeder 20MCC206 OPF2 SS 483.10 MVA 25.36 kA 96.75 61.22 kA 20TX206A 11/3.3 20TX206A L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206A LV 3.30 0.00 0.00 1.10 58.06 MVA 10.16 kA -84.16 25.01 kA 10.16 58.06 9.98 10.33 20TX206A 11/3.3 20TX206A H 58.06 MVA 10.16 kA 95.84 25.01 kA Feeder 20TX206A 20MCC206B 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master 20TX2 11.00 0.00 0.00 1.10 482.64 MVA 25.33 kA -83.00 60.85 kA 17.54 334.12 22.06 25.68 Feeder 20MCC206 OPF2 SS 482.64 MVA 25.33 kA 97.00 60.85 kA 20TX206B 11/1.9 20TX206B L 20TX206B L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206B LV Delta 1.90 0.00 0.00 1.10 24.37 MVA 7.38 kA -84.22 18.21 kA 7.38 24.37 7.33 7.51 20TX206B 11/1.9 HPGR Maste 20TX206B L 24.37 MVA 7.38 kA 95.78 18.21 kA 20TX206B LV Star 1.90 0.00 0.00 1.10 24.37 MVA 7.38 kA -84.22 18.21 kA 7.38 24.37 7.33 7.51 20TX206B 11/1.9 HPGR Maste 20TX206B L 24.37 MVA 7.38 kA 95.78 18.21 kA HPGR Follower 20T 11.00 0.00 0.00 1.10 482.64 MVA 25.33 kA -83.00 60.85 kA 17.54 334.12 22.06 25.68 Feeder 20MCC206 OPF2 SS 482.64 MVA 25.33 kA 97.00 60.85 kA 20TX206C 1kv/2x 20TX206C L 20TX206C L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206C LV Delta 1.90 0.00 0.00 1.10 24.37 MVA 7.38 kA -84.22 18.21 kA 7.38 24.37 7.33 7.51 20TX206C 1kv/2x HPGR Follo 20TX206C L 24.37 MVA 7.38 kA 95.78 18.21 kA 20TX206C LV Star 1.90 0.00 0.00 1.10 24.37 MVA 7.38 kA -84.22 18.21 kA 7.38 24.37 7.33 7.51 20TX206C 1kv/2x HPGR Follo 20TX206C L 24.37 MVA 7.38 kA 95.78 18.21 kA Desands 30TX207A 11.00 0.00 0.00 1.10 385.42 MVA 20.23 kA -69.12 38.25 kA 16.30 310.55 18.21 20.32 Feeder 20MCC206 OPF2 SS 382.46 MVA 20.07 kA 110.87 37.95 kA 30TX207A 11/0.4 30TX207A L 2.95 MVA 0.16 kA 111.70 0.29 kA 30TX207A LV 0.41 0.00 0.00 1.05 38.62 MVA 53.73 kA -81.59 126.35 kA 51.43 36.97 49.42 54.38 30TX207A 11/0.4 Desands 30 35.95 MVA 50.02 kA 97.32 117.62 kA L-DOL 110kW 0.72 MVA 1.00 kA 112.78 2.36 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 188: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 11 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 310. 2.04 MVA 2.84 kA 112.78 6.67 kA Desands 30TX207B 11.00 0.00 0.00 1.10 385.52 MVA 20.23 kA -69.13 38.26 kA 16.30 310.56 18.21 20.33 30TX207B 11/0.4 30TX207B L 3.18 MVA 0.17 kA 111.66 0.32 kA Feeder 20MCC206 OPF2 SS 382.35 MVA 20.07 kA 110.86 37.94 kA 30TX207B LV 0.43 0.00 0.00 1.05 43.68 MVA 58.24 kA -81.50 136.73 kA 55.67 41.75 53.41 58.94 30TX207B 11/0.4 Desands 30 40.55 MVA 54.07 kA 97.37 126.93 kA L-DOL 110kW 0.79 MVA 1.05 kA 112.78 2.46 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 343. 2.45 MVA 3.27 kA 112.78 7.68 kA Desands 30TX207C 11.00 0.00 0.00 1.10 386.04 MVA 20.26 kA -69.22 38.37 kA 16.30 310.58 18.21 20.36 Feeder 20MCC206 OPF2 SS 381.53 MVA 20.02 kA 110.83 37.93 kA 30TX207C 11/0.4 30TX207C L 4.52 MVA 0.24 kA 106.89 0.45 kA 30TX207C LV 0.43 0.00 0.00 1.05 43.83 MVA 58.44 kA -81.51 137.35 kA 54.29 40.72 51.57 59.15 30TX207C 11/0.4 Desands 30 39.13 MVA 52.17 kA 97.32 122.62 kA L-DOL 120kW 1.33 MVA 1.77 kA 95.71 4.16 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 489k 3.49 MVA 4.66 kA 112.78 10.95 kA Jigging 35TX208A 11.00 0.00 0.00 1.10 425.79 MVA 22.35 kA -74.40 45.74 kA 16.98 323.46 19.79 22.49 Feeder 20MCC206 OPF2 SS 418.69 MVA 21.98 kA 105.52 44.98 kA 35TX208A 11/0.4 Jigging 35 7.12 MVA 0.37 kA 110.16 0.76 kA Jigging 35TX208A 0.43 0.00 0.00 1.05 47.16 MVA 62.88 kA -80.63 146.62 kA 57.34 43.00 51.97 63.60 35TX208A 11/0.4 Jigging 35 39.42 MVA 52.57 kA 96.67 122.58 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL -110kW 0.79 MVA 1.05 kA 112.78 2.44 kA Lumped DOL 1009 7.21 MVA 9.61 kA 112.78 22.41 kA Jigging 35TX208B 11.00 0.00 0.00 1.10 426.87 MVA 22.41 kA -74.51 45.92 kA 16.99 323.70 19.79 22.54 Feeder 20MCC206 OPF2 SS 416.26 MVA 21.85 kA 105.38 44.78 kA 35TX208B 11/0.4 Jigging 35 10.64 MVA 0.56 kA 109.52 1.15 kA Jigging 35TX208B 0.43 0.00 0.00 1.05 58.49 MVA 77.98 kA -79.80 179.51 kA 69.78 52.33 61.05 72.17 35TX208B 11/0.4 Jigging 35 46.37 MVA 61.83 kA 96.83 142.32 kA L-DOL - 150kW 1.07 MVA 1.43 kA 112.78 3.29 kA Lumped-DOL 1599 11.42 MVA 15.23 kA 112.78 35.06 kA 35TX208C HV 11.00 0.00 0.00 1.10 424.22 MVA 22.27 kA -74.26 45.53 kA 16.97 323.28 19.79 22.40 Feeder 20MCC206 OPF2 SS 421.81 MVA 22.14 kA 105.76 45.27 kA 35TX208C 11/0.4 35TX208C L 2.41 MVA 0.13 kA 102.27 0.26 kA 35TX208C LV 0.43 0.00 0.00 1.05 32.59 MVA 43.45 kA -83.06 104.93 kA 40.99 30.74 39.79 44.07

Page 189: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 12 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 35TX208C 11/0.4 35TX208C H 30.12 MVA 40.17 kA 96.46 97.00 kA L-DOL 150kW 1.47 MVA 1.96 kA 95.71 4.73 kA Lumped DOL - 14 1.04 MVA 1.38 kA 112.78 3.34 kA 20MCC206B 3.30 0.00 0.00 1.10 58.05 MVA 10.16 kA -84.15 25.00 kA 10.16 58.05 9.98 10.32 Feeder 20TX206A 20TX206A L 58.05 MVA 10.16 kA 95.85 25.00 kA Feed to Cone Cr Cone Crush 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master VSD 2 0.69 0.00 0.00 1.05 16.86 MVA 14.11 kA -76.25 29.74 kA 14.11 16.86 14.04 14.21 20TX207D 3.3kV/ Tails Pump HPGR Maste 16.86 MVA 14.11 kA 103.75 29.74 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master Star 0.69 0.00 0.00 1.05 16.86 MVA 14.11 kA -76.25 29.74 kA 14.11 16.86 14.04 14.21 20TX207D 3.3kV/ Tails Pump HPGR Maste 16.86 MVA 14.11 kA 103.75 29.74 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump D 3.3 3.30 0.00 0.00 1.10 41.69 MVA 7.29 kA -65.01 13.03 kA 7.29 41.69 7.22 7.32 20TX207D 3.3kV/ HPGR Maste HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 41.69 MVA 7.29 kA 114.99 13.03 kA HPGR Follower Del 0.69 0.00 0.00 1.05 16.85 MVA 14.09 kA -76.18 29.67 kA 14.09 16.85 14.02 14.19 20TX207E 3.3kV/ Tails Pump HPGR Follo 16.85 MVA 14.09 kA 103.82 29.67 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Follower Sta 0.69 0.00 0.00 1.05 16.85 MVA 14.09 kA -76.18 29.67 kA 14.09 16.85 14.02 14.19 20TX207E 3.3kV/ Tails Pump HPGR Follo 16.85 MVA 14.09 kA 103.82 29.67 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump E 3.3k 3.30 0.00 0.00 1.10 41.56 MVA 7.27 kA -64.88 12.96 kA 7.27 41.56 7.19 7.30 20TX207E 3.3kV/ HPGR Follo HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 41.56 MVA 7.27 kA 115.12 12.96 kA 11MCC202B 690V 0.69 0.00 0.00 1.05 75.21 MVA 62.93 kA -76.19 132.67 kA 61.62 73.64 59.45 63.37 11TX202C 700/43 11MCC202C 2.12 MVA 1.78 kA 109.77 3.75 kA Bustie 11MCC202 11MCC202A 36.56 MVA 30.59 kA 103.63 64.49 kA Feeder to OLC D 11TX202B L 36.54 MVA 30.58 kA 103.64 64.46 kA REC032 OLC 33.00 0.00 0.00 1.10 150.87 MVA 2.64 kA -71.61 5.17 kA 2.59 147.85 2.47 2.65 Feeder PL4005 t PL4005 OLC 149.39 MVA 2.61 kA 108.56 5.12 kA 11TX202B 33/0.7 11TX202B L 1.54 MVA 0.03 kA 92.27 0.05 kA 11MCC202C OLC MCC 0.41 0.00 0.00 1.05 12.02 MVA 16.73 kA -80.00 38.63 kA 14.66 10.54 13.40 16.91 11TX202C 700/43 11MCC202B 9.67 MVA 13.46 kA 96.82 31.08 kA L-DOL - 150kW 0.98 MVA 1.37 kA 112.78 3.16 kA

Page 190: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 13 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 219. 1.44 MVA 2.01 kA 112.78 4.63 kA EPCM Office 0.41 0.00 0.00 1.05 9.61 MVA 13.37 kA -67.98 24.82 kA 13.19 9.48 13.03 13.43 MCC902-P-02 Sub018 9.61 MVA 13.37 kA 112.02 24.82 kA Laboratory 0.41 0.00 0.00 1.05 9.61 MVA 13.37 kA -67.98 24.82 kA 13.19 9.48 13.03 13.43 MCC902-P-03 Sub018 9.61 MVA 13.37 kA 112.02 24.82 kA Cone Crushers 3.3 3.30 0.00 0.00 1.10 56.23 MVA 9.84 kA -80.94 22.65 kA 9.84 56.23 9.67 9.94 Feed to Cone Cr 20MCC206B 56.23 MVA 9.84 kA 99.06 22.65 kA HPGR Main Motor 2 0.69 0.00 0.00 1.05 16.53 MVA 13.83 kA -75.03 28.55 kA 13.83 16.53 13.76 13.92 Feeder HPGR Mas HPGR Maste 16.53 MVA 13.83 kA 104.97 28.55 kA HPGR Main Motor 2 0.69 0.00 0.00 1.05 16.53 MVA 13.83 kA -75.03 28.55 kA 13.83 16.53 13.76 13.92 Feeder HPGR Mas HPGR Maste 16.53 MVA 13.83 kA 104.97 28.55 kA HPGR Follower Mot 0.69 0.00 0.00 1.05 16.51 MVA 13.82 kA -74.96 28.49 kA 13.82 16.51 13.75 13.90 Feeder HPGR Fol HPGR Follo 16.51 MVA 13.82 kA 105.04 28.49 kA HPGR Follower Mot 0.69 0.00 0.00 1.05 16.51 MVA 13.82 kA -74.96 28.49 kA 13.82 16.51 13.75 13.90 Feeder HPGR Fol HPGR Follo 16.51 MVA 13.82 kA 105.04 28.49 kA PL10XX (Fuel Unlo 33.00 0.00 0.00 1.10 194.41 MVA 3.40 kA -78.18 7.44 kA 3.25 185.94 3.17 3.43 Feeder TF001 to RMU001 193.58 MVA 3.39 kA 101.77 7.41 kA Feeder from OHL Tx HV Fuel 0.84 MVA 0.01 kA 112.33 0.03 kA Feeder TF001 to PL10062 0.00 MVA 0.00 kA 0.00 0.00 kA Fuel Unload RCDOS 0.41 0.00 0.00 1.05 3.84 MVA 5.35 kA -58.26 9.20 kA 4.20 3.02 4.05 4.86 150mm Cu XLPE 4 Tx LV Fuel 2.91 MVA 4.05 kA 126.43 6.96 kA L-DOL 30kW(1) 0.30 MVA 0.42 kA 95.71 0.72 kA 120kW Lumped 0.68 MVA 0.95 kA 112.78 1.63 kA TF004 HV 33.00 0.00 0.00 1.10 178.13 MVA 3.12 kA -75.87 6.54 kA 3.04 173.66 2.93 3.14 TF004 100kvA 33 SWB004 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL10062 PL10062 178.13 MVA 3.12 kA 104.13 6.54 kA PL4004 OLC A 33.00 0.00 0.00 1.10 152.40 MVA 2.67 kA -72.15 5.26 kA 2.61 149.33 2.49 2.68 Feeder RMU010 t PL4003 33k 148.55 MVA 2.60 kA 107.82 5.13 kA Feeder PL4004 t REC031 OLC 1.13 MVA 0.02 kA 109.61 0.04 kA OHL PL4004 to P PL4005 OLC 2.72 MVA 0.05 kA 109.17 0.09 kA PL4005 OLC B 33.00 0.00 0.00 1.10 152.29 MVA 2.66 kA -72.13 5.26 kA 2.61 149.22 2.49 2.68 Feeder PL4005 t REC032 OLC 1.16 MVA 0.02 kA 108.84 0.04 kA OHL PL4004 to P PL4004 OLC 149.55 MVA 2.62 kA 107.85 5.16 kA OHL PL4005 to P PL4007 1.59 MVA 0.03 kA 108.84 0.05 kA

Page 191: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 14 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] PL5059 33.00 0.00 0.00 1.10 128.83 MVA 2.25 kA -68.97 4.25 kA 2.21 126.44 2.12 2.26 OHL PL5043 to P PL5043 127.24 MVA 2.23 kA 111.06 4.19 kA PL5059 to REC03 REC037 1.59 MVA 0.03 kA 108.80 0.05 kA PL5043 33.00 0.00 0.00 1.10 132.95 MVA 2.33 kA -69.52 4.42 kA 2.28 130.47 2.19 2.34 OHL PL5028 to P PL5028 131.36 MVA 2.30 kA 110.50 4.36 kA Feeder PL5043 t TF035 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5043 to P PL5059 1.59 MVA 0.03 kA 108.81 0.05 kA PL5028 33.00 0.00 0.00 1.10 137.33 MVA 2.40 kA -70.11 4.60 kA 2.36 134.70 2.26 2.41 OHL PL5005 to P PL5005 135.74 MVA 2.37 kA 109.90 4.55 kA Feeder PL5028 t TF034 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5028 to P PL5043 1.59 MVA 0.03 kA 108.82 0.05 kA PL5005 33.00 0.00 0.00 1.10 142.00 MVA 2.48 kA -70.74 4.80 kA 2.44 139.20 2.33 2.50 OHL PL5005 to P PL5028 1.59 MVA 0.03 kA 108.82 0.05 kA OHL PL4007 to P PL4007 140.40 MVA 2.46 kA 109.27 4.75 kA Feeder PL5005 t TF033 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL4007 33.00 0.00 0.00 1.10 146.97 MVA 2.57 kA -71.41 5.02 kA 2.52 144.04 2.41 2.58 OHL PL4005 to P PL4005 OLC 145.38 MVA 2.54 kA 108.59 4.96 kA OHL PL4007 to P PL4008 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4007 to P PL5005 1.59 MVA 0.03 kA 108.83 0.05 kA PL4008 33.00 0.00 0.00 1.10 140.08 MVA 2.45 kA -69.24 4.63 kA 2.41 137.53 2.30 2.46 OHL PL4007 to P PL4007 140.08 MVA 2.45 kA 110.76 4.63 kA OHL PL4008 to O Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4017 0.00 MVA 0.00 kA 0.00 0.00 kA TF033 HV 33.00 0.00 0.00 1.10 140.89 MVA 2.46 kA -70.32 4.73 kA 2.42 138.20 2.31 2.48 TF033 33/0.433k TF033 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5005 t PL5005 140.89 MVA 2.46 kA 109.68 4.73 kA TF034 HV 33.00 0.00 0.00 1.10 136.29 MVA 2.38 kA -69.71 4.54 kA 2.34 133.70 2.24 2.40 TF034 33/0.433k TF034 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5028 t PL5028 136.29 MVA 2.38 kA 110.29 4.54 kA TF035 HV 33.00 0.00 0.00 1.10 131.96 MVA 2.31 kA -69.14 4.36 kA 2.27 129.53 2.17 2.32 TF035 33/0.433k TF035 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5043 t PL5043 131.96 MVA 2.31 kA 110.86 4.36 kA TF033 LV 0.43 0.00 0.00 1.05 29.65 MVA 39.54 kA -79.44 88.38 kA 39.54 29.65 38.95 39.90 TF033 33/0.433k TF033 HV 29.65 MVA 39.54 kA 100.56 88.38 kA TF034 LV 0.43 0.00 0.00 1.05 29.45 MVA 39.26 kA -79.24 87.43 kA 39.26 29.45 38.68 39.62

Page 192: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 15 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF034 33/0.433k TF034 HV 29.45 MVA 39.26 kA 100.76 87.43 kA TF035 LV 0.41 0.00 0.00 1.05 26.86 MVA 37.37 kA -79.04 82.90 kA 37.37 26.86 36.82 37.70 TF035 33/0.433k TF035 HV 26.86 MVA 37.37 kA 100.96 82.90 kA 10TX201 HV 33.00 0.00 0.00 1.10 124.01 MVA 2.17 kA -67.83 4.02 kA 2.13 121.71 2.05 2.18 Feeder REC037 t REC037 122.42 MVA 2.14 kA 112.21 3.97 kA 10TX201 33/0.43 Primary Cr 1.59 MVA 0.03 kA 108.78 0.05 kA Primary Crushing 0.41 0.00 0.00 1.05 28.70 MVA 39.92 kA -79.67 89.96 kA 38.47 27.65 37.46 40.31 10TX201 33/0.43 10TX201 HV 27.26 MVA 37.93 kA 99.85 85.46 kA L-DOL 30kW - 10 0.30 MVA 0.42 kA 95.71 0.94 kA Lumped DOL 177. 1.16 MVA 1.62 kA 112.78 3.65 kA REC037 33.00 0.00 0.00 1.10 124.95 MVA 2.19 kA -68.46 4.09 kA 2.15 122.64 2.06 2.20 Feeder REC037 t 10TX201 HV 1.59 MVA 0.03 kA 108.79 0.05 kA PL5059 to REC03 PL5059 123.36 MVA 2.16 kA 111.58 4.04 kA Construction Camp 33.00 0.00 0.00 1.10 138.81 MVA 2.43 kA -66.17 4.41 kA 2.41 137.85 2.32 2.44 TF011 33/0.418k LV DB Cons 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU011 t RMU012/SUB 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t PL1075 138.81 MVA 2.43 kA 113.83 4.41 kA RMU012/SUB012 33.00 0.00 0.00 1.10 138.78 MVA 2.43 kA -66.17 4.41 kA 2.41 137.82 2.32 2.44 Feeder RMU011 t Constructi 138.78 MVA 2.43 kA 113.83 4.41 kA TF012 33/0.418k LV SUB012 0.00 MVA 0.00 kA 0.00 0.00 kA Gatehouse RMU 33.00 0.00 0.00 1.10 209.04 MVA 3.66 kA -76.40 7.75 kA 3.45 197.45 3.40 3.68 Gatehouse 33/0. Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU001 209.04 MVA 3.66 kA 103.60 7.75 kA Gatehouse TX LV 0.43 0.00 0.00 1.05 23.78 MVA 31.70 kA -85.10 79.72 kA 31.70 23.78 31.41 32.33 Gatehouse 33/0. Gatehouse 23.78 MVA 31.70 kA 94.90 79.72 kA Ops Office 33kV 33.00 0.00 0.00 1.10 139.42 MVA 2.44 kA -69.03 4.60 kA 2.40 136.89 2.29 2.45 Ops Office 33/0 Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4008 to O PL4008 139.42 MVA 2.44 kA 110.97 4.60 kA Ops Office 415V 0.41 0.00 0.00 1.05 4.75 MVA 6.61 kA -70.96 12.79 kA 6.61 4.75 6.60 6.64 Ops Office 33/0 Ops Office 4.75 MVA 6.61 kA 109.04 12.79 kA PL4017 33.00 0.00 0.00 1.10 139.60 MVA 2.44 kA -69.18 4.61 kA 2.40 137.07 2.30 2.45 Feeder PL4017 t RMU017 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4008 139.60 MVA 2.44 kA 110.82 4.61 kA PS Services 0.43 0.00 0.00 1.05 20.74 MVA 27.66 kA -75.35 57.40 kA 27.66 20.74 27.49 27.84

Page 193: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 16 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF005 11/0.433k PowerStati 20.74 MVA 27.66 kA 104.65 57.40 kA 11MCC202A 690V 0.69 0.00 0.00 1.05 75.21 MVA 62.93 kA -76.19 132.67 kA 61.62 73.64 59.45 63.37 Bustie 11MCC202 11MCC202B 38.66 MVA 32.34 kA 103.98 68.19 kA Feeder to OLC D 11TX202A L 36.56 MVA 30.59 kA 103.63 64.49 kA RC031-MC02 Reclai 0.41 0.00 0.00 1.05 25.02 MVA 34.81 kA -81.76 81.46 kA 34.75 24.98 34.49 35.22 RC031-TF01 11kV RC031 Recl 24.98 MVA 34.76 kA 98.24 81.35 kA 4kW Motor 0.04 MVA 0.05 kA 95.71 0.12 kA 11TX202B LV 0.69 0.00 0.00 1.05 76.41 MVA 63.94 kA -76.56 135.88 kA 62.79 75.05 60.67 64.40 Feeder to OLC D 11MCC202B 31.22 MVA 26.12 kA 106.42 55.51 kA 11TX202B 33/0.7 REC032 OLC 45.27 MVA 37.88 kA 101.38 80.50 kA 11TX202A LV 0.69 0.00 0.00 1.05 76.42 MVA 63.94 kA -76.57 135.89 kA 62.80 75.05 60.67 64.41 11TX202A 33/0.7 REC031 OLC 45.29 MVA 37.89 kA 101.36 80.53 kA Feeder to OLC D 11MCC202A 31.21 MVA 26.11 kA 106.44 55.49 kA Secondary & Terti 0.41 0.00 0.00 1.05 46.07 MVA 64.09 kA -82.78 154.94 kA 60.58 43.54 58.15 65.01 20TX205 11/0.43 20TX205 HV 42.39 MVA 58.97 kA 95.83 142.56 kA L-DOL 150kW Con 0.98 MVA 1.37 kA 112.78 3.31 kA L-DOL 37kW 0.24 MVA 0.34 kA 112.78 0.82 kA Lumped DOL 34kW 0.22 MVA 0.31 kA 112.78 0.75 kA L-DOL 37kW 0.24 MVA 0.34 kA 112.78 0.82 kA Lumped DOL 56kW 0.37 MVA 0.51 kA 112.78 1.24 kA L-DOL - 37kW 0.24 MVA 0.34 kA 112.78 0.82 kA Lumped DOL- 56k 0.37 MVA 0.51 kA 112.78 1.24 kA L-DOL -132kW 0.87 MVA 1.21 kA 112.78 2.91 kA Lumped DOL 45kW 0.30 MVA 0.41 kA 112.78 0.99 kA LV DB Constructio 0.41 0.00 0.00 1.05 37.99 MVA 52.85 kA -79.10 117.41 kA 52.85 37.99 52.08 53.32 TF011 33/0.418k Constructi 37.99 MVA 52.85 kA 100.90 117.41 kA LV SUB012 0.41 0.00 0.00 1.05 37.99 MVA 52.85 kA -79.10 117.40 kA 52.85 37.99 52.08 53.32 TF012 33/0.418k RMU012/SUB 37.99 MVA 52.85 kA 100.90 117.40 kA

Page 194: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

101

D.3 Short Circuit SC-3

The following scenarios for SC-3 were conducted at an existing generator running capacity of

6 and feeders that are currently in service on site. The benefit to this is that any items of

concern can be related back to real life to verify results or to allow for further analysis.

SC-3 Minimum Three Phase Short-Circuit Currents

Table D-1 below presents the overloading of elements during the simulations of minimum

three phase short-circuit currents in SC-3. There are six items that have been highlighted, all

feeders and no busbars. The loading of these elements are all 81.20% as they are the same

size conductor. Feeders being over 80% during these simulations at this greatly reduced

power generation is concerning for future tests where more generators will be in service.

The bus voltages have been separated into under and over 1000 volts, so that the voltage

factor used in calculations will reflect methods described in IEC 60909-0 Table 1. For

voltages under 1000 volts, 0.95 is used and 1 similarly. The only simulation where results

were obtained is with a voltage factor of 1.

Overloaded Feeders

Thermal

Current

Rating

(kA)

Actual

Current

(kA)

Loading

(%)

HV901 to CV201 7.15 5.81 81.20

HV901 to CV401 7.15 5.81 81.20

HV901 to RC031 7.15 5.81 81.20

HV901 to TF801 7.15 5.81 81.20

HV901 to TF901 7.15 5.81 81.20

HV901 to SK703 7.15 5.81 81.20

Table 21 SC-4 Minimum Verification Report

During SC-4 scenarios, the simulations were conducted without a pre load flow considered.

This means that the loads do not have an effect on the bus voltages throughout the network,

so the fault at each bus is reduced. If the load flow was taken into account, there would be

51.14MW demand at the load and only 6 * 2.607 = 15.64MW supply available from the

generators. By neglecting the load flow the resulting short circuit current fault levels are

smaller due to the higher bus voltages and disregard of motor contribution.

A more detailed average demand load is needed in order to reduce the loading of the

generators and create a more realistic representation of the bus voltages.

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102

SC-3 Maximum Three Phase Short-Circuit Currents

The maximum three-phase short-circuit current simulation is performed at a voltage factor of

1.1, which means that all the bus voltage magnitudes will be 10% higher than nominal and

considered for motor contribution. This is intended to simulate the worst case condition when

a load flow is not performed. It is expected that more items will be loaded greater than 80%,

compared to the minimum short-circuit currents.

The main areas brought to attention are the OPF2 feeders and can be seen in table 5.4.1.2

(below). There are twelve more feeders that have been recognised as a heavy loading and the

six previous feeders from HV901 are now loaded past their thermal limits. This is the most

concerning aspect from these results. The protection devices have not been created in this

model so it is not possible to determine whether they are adequately protected. The purpose

of this simulation is to identify cables that will require protecting due to short circuit currents.

The actual fault current on the feeders overloaded in section HV901 is 8.19 kA, exceeding

their thermal limit of 7.15 KA. The conductor runs the risk of permanent damage to the

insulation and possibly breaking if the fault current exceeds the thermal limit. It is

recommended to plot the protection device curve with the conductor thermal limit curve in

order to determine adequate protection.

During the maximum fault simulation, the contribution from DOL motors are considered to

be the greatest, meaning that all are running at the same time. This is not a realistic situation,

although it does indicate the absolute highest fault current levels at maximum demand.

Overloaded Feeders

Thermal

Current

Rating

(kA)

Actual

Current

(kA)

Loading

(%)

20MCC206A to 12TX203 8.99 8.09 89.95

20MCC206A to 15TX204A 8.99 8.09 89.95

20MCC206A to 12TX204B 8.99 8.09 89.95

20MCC206A to 20TX205 8.99 8.09 89.95

20MCC206A to HPGR Master

20TX206B 8.99 8.09 89.95

20MCC206A to HPGR Follower

20TX206C 8.99 8.09 89.95

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103

20MCC206A to Desands 30TX207A 8.99 8.09 89.95

20MCC206A to Desands 30TX207B 8.99 8.09 89.95

20MCC206A to 20MCC207C 8.99 8.09 89.95

20MCC206A to Jigging 35TX208A 8.99 8.09 89.95

20MCC206A to Jigging 35TX208B 8.99 8.09 89.95

20MCC206A to Jigging 35TX208C 8.99 8.09 89.95

HV901 to CV201 7.15 8.19 114.55

HV901 to CV401 7.15 8.19 114.55

HV901 to RC031 7.15 8.19 114.55

HV901 to TF801 7.15 8.19 114.55

HV901 to TF901 7.15 8.19 114.55

HV901 to SK703 7.15 8.19 114.55

Table 22 SC-3 Maximum Verification Report

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104

SC-3 Output

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Verification Short-Circuit Calculation complete 3-Phase Short-Circuit / Min. Short-Circuit Currents Short-Circuit Duration Fault Impedance Break Time 0.10 s Resistance, Rf 0.00 Ohm Fault Clearing Time (Ith) 1.00 s Reactance, Xf 0.00 Ohm Max. Loading (Peak) 80.00 % Max. Loading (Interrupting) 80.00 % Max. Loading (Thermal) 80.00 % Fortescue SC-3 DIgSILENT Project: XMAS CREEK Metals Group 27 Generators in Service with Load Flow PowerFactory Minimum Short Circuit Currents 14.1.4 Date: 4/24/2013 Study Case: Study Case Annex: / 1 Overloaded Busbars/Terminals Nominal Thermal equivalent Current Peak Short-Circuit Current Name Type Voltage Nominal ( 1.0 s) Actual Loading Nominal Actual Loading [kV] [kA] [kA] [kA] [% ] [kA] [kA] [%] 20MCC04 OPF1 11kV 31.5kA 1s 11.00 31.50 (1s) 31.50 26.81 85.11 0.00 73.24 0.00 20MCC206A OPF2 OPF2 SS 11kV 31.5kA 1s 11.00 31.50 (1s) 31.50 26.79 85.06 0.00 73.57 0.00 Kiosk Substation Sub018 30kA 0.415V 0.41 30.00 (1s) 30.00 26.18 87.27 0.00 53.95 0.00 Secondary & Tertiray Crushing (20MCC2415V 65kA 1s 0.43 65.00 (1s) 65.00 58.92 90.65 0.00 143.04 0.00 Stockyard Substation 11kV 11kV 31.5kA 1s 11.00 31.50 (1s) 31.50 27.19 86.31 0.00 74.74 0.00

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Study Case: Study Case Annex: / 2 Overloaded Branches Thermal equivalent Current Name Type Terminal i Terminal j Nominal(1s) ( 1.0 s) Actual Loading [kA] [kA] [kA] [%] Feeder 20MCC206A to 12TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX203 HV 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 15TX204A HV 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX204B HV 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 20TX205 HV 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 120mm Lne OPF2 SS/20MCC2.. 20TX206A HV 17.10 17.10 26.79 156.69 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Master 20.. 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Follower .. 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 26.79 298.04 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 35TX208C HV 8.99 8.99 26.79 298.04 Feeder 20MCC206B to 20TX2 Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump D .. 8.99 8.99 9.74 108.38 Feeder 20MCC206B to Tails Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump E 3.. 8.99 8.99 9.74 108.38 Feeder HV901 to CV201-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Plant Output C.. 7.15 7.15 27.19 380.25 Feeder HV901 to CV401-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. CV401-EM01/EM02 7.15 7.15 27.19 380.25 Feeder HV901 to CV601-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Reclaimer Conv.. 14.30 14.30 27.19 190.12 Feeder HV901 to CV801-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Train Loadout .. 14.30 14.30 27.19 190.12 Feeder HV901 to RC031 600 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. RC031 Reclaimer 7.15 7.15 27.19 380.25 Feeder HV901 to TF801 Tx Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF801 HV - Tra.. 7.15 7.15 27.19 380.25 Feeder HV901 to TF901 20m Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF901 HV 7.15 7.15 27.19 380.25 Feeder to SK703 Med Point Olex 6.35/11kV 50mm Lne HV901/Stockyar.. SK703-TF01 TX HV 7.15 7.15 27.19 380.25

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Fortescue SC-3 DIgSILENT Project: XMAS CREEK Metals Group 27 Generators in Service with Load Flow PowerFactory Minimum Short Circuit Currents 14.1.4 Date: 4/24/2013 Verification Short-Circuit Calculation complete 3-Phase Short-Circuit / Min. Short-Circuit Currents Short-Circuit Duration Fault Impedance Break Time 0.10 s Resistance, Rf 0.00 Ohm Fault Clearing Time (Ith) 1.00 s Reactance, Xf 0.00 Ohm Grid: Christmas Creek System Stage: Christmas Creek Annex: / 1 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] HV901 Stockyard Subst 11.00 0.00 0.00 1.00 556.23 MVA 29.19 kA -81.0 22.14 -80.3 74.74 kA 22.72 36.49 27.19 Alternate Feede HV902-11kV 221.39 MVA 11.62 kA 94.2 8.81 94.9 29.75 kA FE-04 - PS to H PowerStati 336.14 MVA 17.64 kA 102.2 13.38 102.8 45.17 kA Feeder HV901 to Plant Outp 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to CV401-EM01 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to Train Load 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to RC031 Recl 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to TF801 HV - 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to TF901 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder to SK703 SK703-TF01 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HV902-11kV Stockyard Subst 11.00 0.00 0.00 1.00 555.34 MVA 29.15 kA -81.0 22.12 -80.3 74.63 kA 22.69 36.45 27.15 Alternate Feede HV901 272.62 MVA 14.31 kA 102.2 10.86 102.8 36.64 kA OPF1 Incomer 1 OPF1 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Power Station F PowerStati 283.53 MVA 14.88 kA 96.0 11.29 96.6 38.10 kA MC901 MC901 415V 0.41 0.00 0.00 1.00 8.74 MVA 12.16 kA -53.7 12.15 -53.5 30.01 kA 12.15 17.92 12.36 TF901 11/0.433k TF901 HV 8.74 MVA 12.16 kA 126.3 12.15 126.5 30.01 kA 19.5kW Lumped D 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL 15kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static - 15kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA MCC902 Turkeys Nest 0.41 0.00 0.00 1.00 9.31 MVA 12.95 kA -33.1 12.94 -33.0 22.73 kA 12.94 18.30 13.00 MCC902-P-01 Sub018 9.31 MVA 12.95 kA 146.9 12.94 147.0 22.73 kA 22kW DOL 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL 132kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 5kW Static 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

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Grid: Christmas Creek System Stage: Christmas Creek Annex: / 2 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] OPF1 20MCC04 11.00 0.00 0.00 1.00 549.08 MVA 28.82 kA -80.7 21.93 -80.1 73.24 kA 22.49 35.41 26.81 Feeder HV902 to 20MCC04 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OPF1 Incomer 1 HV902-11kV 549.08 MVA 28.82 kA 99.3 21.93 99.9 73.24 kA TF008 11/0.433k Sub018 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OPF2 SS 20MCC206A OPF2 11.00 0.00 0.00 1.00 547.61 MVA 28.74 kA -81.0 21.88 -80.4 73.57 kA 22.45 36.00 26.79 FE-07 to OPF2-A PowerStati 273.81 MVA 14.37 kA 99.0 10.94 99.6 36.79 kA FE-08 to OPF2-B PowerStati 273.81 MVA 14.37 kA 99.0 10.94 99.6 36.79 kA Feeder 20MCC206 12TX203 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 15TX204A H 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 12TX204B H 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 20TX205 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 20TX206A H 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 HPGR Maste 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 HPGR Follo 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Jigging 35 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Jigging 35 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 35TX208C H 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PowerStation Power Station B 11.00 0.00 0.00 1.00 571.87 MVA 30.02 kA -81.9 22.61 -81.0 78.63 kA 23.22 40.51 28.14 FE-04 - PS to H HV901 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA FE-07 to OPF2-A OPF2 SS 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA FE-08 to OPF2-B OPF2 SS 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA FE-09 PS to TF0 OHL East T 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PS to TF OHL West T 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Power Station F HV902-11kV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF005 11/0.433k PS Service 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Eathing Tx ZigZ 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Generator 01 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 02 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 03 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 04 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 05 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 06 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 07 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 08 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 09 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 10 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 11 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA

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Grid: Christmas Creek System Stage: Christmas Creek Annex: / 3 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Generator 12 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 13 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 14 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 15 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 16 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 17 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 18 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 19 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 20 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 21 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 22 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 23 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 24 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 25 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 26 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 27 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.91 kA Generator 28 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU001 Power StationRM 33.00 0.00 0.00 1.00 238.14 MVA 4.17 kA -52.9 3.68 -52.1 10.62 kA 3.72 5.82 4.26 Feeder RMU001 t Gatehouse 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder RMU001 t RMU010 Pow 119.10 MVA 2.08 kA 127.1 1.84 127.9 5.31 kA Feeder TF001 to PL10XX (Fu 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF001 11/33kV 1 OHL West T 119.05 MVA 2.08 kA 127.1 1.84 127.9 5.31 kA RMU017 CCY1 33.00 0.00 0.00 1.00 121.27 MVA 2.12 kA -32.2 2.00 -33.0 3.75 kA 2.01 2.84 2.13 CCY1-RMU017-P1 HV TF017-1 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA CCY1-RMU017-P2 HV TF017-2 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA CCY1-RMU017-P3 HV TF017-3 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA CCY1-RMU017-P4 HV TF017-4 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL4017 t PL4017 121.27 MVA 2.12 kA 147.8 2.00 147.0 3.75 kA SWB004 Switchroom Tels 0.43 0.00 0.00 1.00 2.46 MVA 3.28 kA -7.8 3.29 -7.7 6.03 kA 3.29 4.66 3.30 Feeder TF004 to Telstra Hu 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF004 100kvA 33 TF004 HV 2.46 MVA 3.28 kA 172.2 3.29 172.3 6.03 kA Sub018 Kiosk Substatio 0.41 0.00 0.00 1.00 18.70 MVA 26.01 kA -44.7 25.83 -44.6 53.95 kA 25.85 36.57 26.18 MCC902-P-01 MCC902 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA MCC902-P-02 EPCM Offic 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA MCC902-P-03 Laboratory 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF008 11/0.433k OPF1 18.70 MVA 26.01 kA 135.3 25.83 135.4 53.95 kA THLoad

Page 203: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 4 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Telstra Hut Loa 0.43 0.00 0.00 1.00 1.21 MVA 1.62 kA 25.8 1.63 26.0 2.36 kA 1.63 2.30 1.62 SB004 to Telstr Telstra Hu 1.21 MVA 1.62 kA -154.2 1.63 -154.0 2.36 kA Telstra Hut Loa 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TLO MC801 415V MC801 0.41 0.00 0.00 1.00 8.72 MVA 12.13 kA -51.7 12.12 -51.5 28.66 kA 12.12 17.38 12.28 Feeder TF801 to TF801 LV - 8.72 MVA 12.13 kA 128.3 12.12 128.5 28.66 kA 105.4kW Lumped 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL 75kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Load 15k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Telstra Hut Telstra Hut DB 0.43 0.00 0.00 1.00 2.45 MVA 3.27 kA -7.6 3.28 -7.5 6.00 kA 3.28 4.64 3.29 Feeder TF004 to SWB004 2.45 MVA 3.27 kA 172.4 3.28 172.5 6.00 kA SB004 to Telstr THLoad 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 546.22 MVA 28.67 kA -80.3 21.84 -79.8 72.26 kA 22.40 34.61 26.63 Feeder HV901 to HV901 546.22 MVA 28.67 kA 99.7 21.84 100.2 72.26 kA CV701-EM01/EM02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF801 HV - Train 11.00 0.00 0.00 1.00 310.50 MVA 16.30 kA -44.4 14.19 -49.3 25.00 kA 14.36 20.31 16.33 Feeder HV901 to HV901 310.50 MVA 16.30 kA 135.6 14.19 130.7 25.00 kA TF801 - Train L TF801 LV - 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF801 LV - Train 0.41 0.00 0.00 1.00 9.10 MVA 12.66 kA -52.7 12.65 -52.5 30.57 kA 12.65 18.33 12.84 TF801 - Train L TF801 HV - 9.10 MVA 12.66 kA 127.3 12.65 127.5 30.57 kA Feeder TF801 to TLO MC801 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Train Loadout Con 11.00 0.00 0.00 1.00 445.40 MVA 23.38 kA -61.0 18.80 -64.5 42.04 kA 19.17 27.12 23.47 Feeder HV901 to HV901 445.40 MVA 23.38 kA 119.0 18.80 115.5 42.04 kA CV801-EM01/EM02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 535.75 MVA 28.12 kA -76.2 21.53 -76.7 65.09 kA 22.07 31.52 25.87 Feeder HV901 to HV901 535.75 MVA 28.12 kA 103.8 21.53 103.3 65.09 kA CV601-EM01/EM02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Plant Output Conv 11.00 0.00 0.00 1.00 445.00 MVA 23.36 kA -61.0 18.78 -64.5 42.00 kA 19.16 27.09 23.45 Feeder HV901 to HV901 445.00 MVA 23.36 kA 119.0 18.78 115.5 42.00 kA CV201-EM01 750k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA CV401-EM01/EM02 11.00 0.00 0.00 1.00 203.48 MVA 10.68 kA -33.1 9.88 -37.4 15.62 kA 9.95 14.06 10.70 Feeder HV901 to HV901 203.48 MVA 10.68 kA 146.9 9.88 142.6 15.62 kA CV401-EM01/EM02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF901 HV 11.00 0.00 0.00 1.00 546.17 MVA 28.67 kA -78.6 21.84 -78.5 69.62 kA 22.40 32.83 26.46 Feeder HV901 to HV901 546.17 MVA 28.67 kA 101.4 21.84 101.5 69.62 kA

Page 204: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 5 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] TF901 11/0.433k MC901 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20MCC04 11.00 0.00 0.00 1.00 521.76 MVA 27.39 kA -79.2 21.10 -79.0 67.23 kA 21.61 32.01 25.39 10TX01 11/0.433 10MCC01 Pr 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV902 to OPF1 521.76 MVA 27.39 kA 100.8 21.10 101.0 67.23 kA 15TX02A 11/0.43 15MCC02A S 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 15Tx02B 11/0.43 15MCC02B S 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04A 11/3.3k Desands Ar 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04B 11/1.90 20TX04B De 20TX04B St 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04C 11/1.90 20TX04C De 20TX04C St 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 30TX05A 11/0.43 30MCC05A 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 30TX05B 11/0.43 30MCC05B 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20Tx03 3500kVA 20MCC03 Se 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RC031 Reclaimer 11.00 0.00 0.00 1.00 279.87 MVA 14.69 kA -40.9 13.03 -45.8 22.11 kA 13.17 18.63 14.72 Feeder HV901 to HV901 279.87 MVA 14.69 kA 139.1 13.03 134.2 22.11 kA RC031-TF01 11kV RC031-MC02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RC031 Reclaimer 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL West TF001 LV 11.00 0.00 0.00 1.00 569.31 MVA 29.88 kA -81.8 22.53 -81.0 78.09 kA 23.13 39.94 27.99 Feeder PS to TF PowerStati 568.87 MVA 29.86 kA 98.2 22.51 99.1 78.03 kA TF001 11/33kV 1 RMU001 0.48 MVA 0.03 kA 75.9 0.02 76.8 0.07 kA OHL East TF012 LV 11.00 0.00 0.00 1.00 570.38 MVA 29.94 kA -81.8 22.56 -80.9 78.21 kA 23.17 39.94 28.03 FE-09 PS to TF0 PowerStati 570.13 MVA 29.92 kA 98.2 22.55 99.1 78.17 kA TF012 11/33kV 1 RMU010 Pow 0.33 MVA 0.02 kA 57.8 0.01 58.7 0.05 kA RMU010 Power Stat 33.00 0.00 0.00 1.00 238.14 MVA 4.17 kA -52.9 3.68 -52.1 10.62 kA 3.72 5.82 4.26 TF012 11/33kV 1 OHL East T 119.13 MVA 2.08 kA 127.1 1.84 127.9 5.31 kA PL4001-P1 U/G 1 PL4001 REC 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder RMU001 t RMU001 119.02 MVA 2.08 kA 127.1 1.84 127.9 5.31 kA PL4001 REC001 33.00 0.00 0.00 1.00 237.44 MVA 4.15 kA -52.6 3.67 -51.9 10.53 kA 3.71 5.73 4.24 PL4001-P1 U/G 1 RMU010 Pow 237.44 MVA 4.15 kA 127.4 3.67 128.1 10.53 kA OHL PL4001 to P PL4003 33k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL4003 33kV 33.00 0.00 0.00 1.00 206.66 MVA 3.62 kA -47.1 3.25 -47.0 8.14 kA 3.28 4.65 3.65 OHL PL4001 to P PL4001 REC 206.66 MVA 3.62 kA 132.9 3.25 133.0 8.14 kA TF042 33/0.418k PL4426 Fue 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder RMU010 t PL4004 OLC 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Tx HV Fuel Unload 33.00 0.00 0.00 1.00 189.01 MVA 3.31 kA -44.6 3.00 -44.8 7.06 kA 3.02 4.28 3.33 Fuel Unload 33/ Tx LV Fuel 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder from OHL PL10XX (Fu 189.01 MVA 3.31 kA 135.4 3.00 135.2 7.06 kA Tx LV Fuel Unload 0.41 0.00 0.00 1.00 4.67 MVA 6.49 kA -11.7 6.50 -11.5 12.61 kA 6.50 9.20 6.53

Page 205: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 6 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Fuel Unload 33/ Tx HV Fuel 4.67 MVA 6.49 kA 168.3 6.50 168.5 12.61 kA 150mm Cu XLPE 4 Fuel Unloa 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Harridan Hill Tow 33.00 0.00 0.00 1.00 135.78 MVA 2.38 kA -36.3 2.22 -37.0 4.41 kA 2.23 3.15 2.39 Harridan Hill P Harridan H 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder OHL to H PL1081 135.78 MVA 2.38 kA 143.7 2.22 143.0 4.41 kA HV TF017-1 33.00 0.00 0.00 1.00 120.44 MVA 2.11 kA -32.0 1.99 -32.8 3.71 kA 2.00 2.82 2.11 CCY1-RMU017-P1 RMU017 120.44 MVA 2.11 kA 148.0 1.99 147.2 3.71 kA TF017-1 33/0.43 LV TF017-1 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HV TF017-2 33.00 0.00 0.00 1.00 120.66 MVA 2.11 kA -32.0 1.99 -32.8 3.72 kA 2.00 2.83 2.12 CCY1-RMU017-P2 RMU017 120.66 MVA 2.11 kA 148.0 1.99 147.2 3.72 kA TF017-2 33/0.43 LV TF017-2 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HV TF017-3 33.00 0.00 0.00 1.00 120.78 MVA 2.11 kA -32.1 1.99 -32.9 3.73 kA 2.00 2.83 2.12 CCY1-RMU017-P3 RMU017 120.78 MVA 2.11 kA 147.9 1.99 147.1 3.73 kA TF017-3 33/0.43 LV TF017-3 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HV TF017-4 33.00 0.00 0.00 1.00 120.42 MVA 2.11 kA -32.0 1.99 -32.8 3.71 kA 2.00 2.82 2.11 CCY1-RMU017-P4 RMU017 120.42 MVA 2.11 kA 148.0 1.99 147.2 3.71 kA TF017-4 33/0.43 LV TF017-4 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA LV TF017-1 Admin 0.43 0.00 0.00 1.00 13.76 MVA 18.35 kA -22.6 18.29 -22.4 42.93 kA 18.30 26.15 18.57 TF017-1 33/0.43 HV TF017-1 13.76 MVA 18.35 kA 157.4 18.29 157.6 42.93 kA LV TF017-2 Ancill 0.43 0.00 0.00 1.00 13.76 MVA 18.35 kA -22.6 18.29 -22.4 42.95 kA 18.30 26.15 18.57 TF017-2 33/0.43 HV TF017-2 13.76 MVA 18.35 kA 157.4 18.29 157.6 42.95 kA LV TF017-3 HV W/S 0.43 0.00 0.00 1.00 20.60 MVA 27.47 kA -23.2 27.28 -23.0 65.23 kA 27.29 39.21 27.83 TF017-3 33/0.43 HV TF017-3 20.60 MVA 27.47 kA 156.8 27.28 157.0 65.23 kA LV TF017-4 Gulf W 0.43 0.00 0.00 1.00 13.76 MVA 18.35 kA -22.6 18.29 -22.4 42.93 kA 18.30 26.15 18.57 TF017-4 33/0.43 HV TF017-4 13.76 MVA 18.35 kA 157.4 18.29 157.6 42.93 kA RMU-05 11.00 0.00 0.00 1.00 56.07 MVA 2.94 kA -16.7 2.86 -16.6 6.29 kA 2.87 4.06 2.96 08TF002 33/11kV Kandama Vi 56.07 MVA 2.94 kA 163.3 2.86 163.4 6.29 kA Connectin RMU-0 RMU-06 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU-04 11.00 0.00 0.00 1.00 55.73 MVA 2.93 kA -16.5 2.84 -16.4 6.23 kA 2.85 4.03 2.95 Tx-004 11/0.415 Waste Wate 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder from Tx0 RMU-06 55.73 MVA 2.93 kA 163.5 2.84 163.6 6.23 kA Feeder RMU-04 t RMU-03 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU-06 11.00 0.00 0.00 1.00 56.06 MVA 2.94 kA -16.7 2.86 -16.6 6.29 kA 2.87 4.06 2.96 Feeder from Tx0 RMU-04 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 206: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 7 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Connectin RMU-0 RMU-05 56.06 MVA 2.94 kA 163.3 2.86 163.4 6.29 kA RMU-03 11.00 0.00 0.00 1.00 55.37 MVA 2.91 kA -16.1 2.83 -16.0 6.14 kA 2.83 4.01 2.93 Feeder RMU-04 t RMU-04 55.37 MVA 2.91 kA 163.9 2.83 164.0 6.14 kA Feeder RMU-03 t RMU-02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Tx-003 11/0.415 TX-003 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU-02 11.00 0.00 0.00 1.00 55.02 MVA 2.89 kA -15.7 2.81 -15.6 6.06 kA 2.81 3.98 2.91 Feeder RMU-03 t RMU-03 55.02 MVA 2.89 kA 164.3 2.81 164.4 6.06 kA Feeder RMU-02 t RMU-01 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Tx-002 11/0.415 TX-002 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU-01 11.00 0.00 0.00 1.00 54.66 MVA 2.87 kA -15.3 2.79 -15.2 5.98 kA 2.80 3.96 2.89 Feeder RMU-02 t RMU-02 54.66 MVA 2.87 kA 164.7 2.79 164.8 5.98 kA Tx-001 11/0.415 TX-001 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Harridan Hill Tow 0.41 0.00 0.00 1.00 2.35 MVA 3.27 kA -7.8 3.28 -7.6 6.00 kA 3.28 4.64 3.28 Harridan Hill P Harridan H 2.35 MVA 3.27 kA 172.2 3.28 172.4 6.00 kA 10MCC01 Primary C 0.43 0.00 0.00 1.00 40.52 MVA 54.03 kA -53.4 53.03 -53.1 133.34 kA 53.11 78.38 54.94 10TX01 11/0.433 20MCC04 40.52 MVA 54.03 kA 126.6 53.03 126.9 133.34 kA L-DOL 45kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 1140kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 108.5kW DOL 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 130kW Static 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 15MCC02A Screenin 0.43 0.00 0.00 1.00 39.03 MVA 52.05 kA -53.3 51.15 -53.0 128.45 kA 51.22 75.58 52.92 15TX02A 11/0.43 20MCC04 39.03 MVA 52.05 kA 126.7 51.15 127.0 128.45 kA DOL Wet Sizing 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 90kW DOL- 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 2400kW - 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 12kW Static 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 15MCC02B Screenin 0.43 0.00 0.00 1.00 39.01 MVA 52.01 kA -53.4 51.10 -53.1 128.37 kA 51.18 75.52 52.89 15Tx02B 11/0.43 20MCC04 39.01 MVA 52.01 kA 126.6 51.10 126.9 128.37 kA L-DOL-90kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 222kW DOL 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 1951kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 53.2kW Static 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20MCC03 Secondary 0.41 0.00 0.00 1.00 47.93 MVA 66.68 kA -53.3 65.10 -53.0 164.55 kA 65.23 96.27 67.80 Feeder Area 15 Area 20 MC 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20Tx03 3500kVA 20MCC04 47.93 MVA 66.68 kA 126.7 65.10 127.0 164.55 kA L-DOL 90kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 373.8kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 45.3kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 207: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 8 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Area 20 MCC03 20C 0.41 0.00 0.00 1.00 25.56 MVA 35.56 kA -39.8 35.19 -39.8 68.26 kA 35.22 49.80 35.73 Feeder Area 15 20MCC03 Se 25.56 MVA 35.56 kA 140.2 35.19 140.2 68.26 kA L-DOL Lube 2 Co 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL Dust Extr 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 74kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS Lump 60k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 3kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 74kW(1) 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL Lube 1 Co 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS Lump 60k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 3kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 163kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 165.9 kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 310kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Desands Area 15/2 3.30 0.00 0.00 1.00 42.86 MVA 7.50 kA -53.4 7.35 -53.1 18.51 kA 7.36 10.87 7.63 20TX04A 11/3.3k 20MCC04 42.86 MVA 7.50 kA 126.6 7.35 126.9 18.51 kA Secondary Cone 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Secondary Cone 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Rolls Crus 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Rolls Crus 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL4426 Fuel Stora 0.42 0.00 0.00 1.00 4.69 MVA 6.48 kA -11.8 6.49 -11.7 12.59 kA 6.49 9.18 6.51 TF042 33/0.418k PL4003 33k 4.69 MVA 6.48 kA 168.2 6.49 168.3 12.59 kA L-DOL Loading P 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 94kW Motor Lump 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 30A Load 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04B Delta LV 1.90 0.00 0.00 1.00 24.43 MVA 7.40 kA -84.1 7.34 -83.8 18.28 kA 7.34 10.83 7.53 20TX04B 11/1.90 20MCC04 20TX04B St 24.43 MVA 7.40 kA 95.9 7.34 96.2 18.28 kA VSD Load 1300k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04B Star LV 1.90 0.00 0.00 1.00 24.43 MVA 7.40 kA -54.1 7.34 -53.8 18.28 kA 7.34 10.83 7.53 20TX04B 11/1.90 20MCC04 20TX04B De 24.43 MVA 7.40 kA 125.9 7.34 126.2 18.28 kA VSD Load 1300kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04C Delta LV 1.90 0.00 0.00 1.00 24.43 MVA 7.40 kA -84.1 7.34 -83.8 18.28 kA 7.34 10.83 7.53 20TX04C 11/1.90 20MCC04 20TX04C St 24.43 MVA 7.40 kA 95.9 7.34 96.2 18.28 kA VSD 1300kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04C Star LV 1.90 0.00 0.00 1.00 24.43 MVA 7.40 kA -54.1 7.34 -53.8 18.28 kA 7.34 10.83 7.53 20TX04C 11/1.90 20MCC04 20TX04C De 24.43 MVA 7.40 kA 125.9 7.34 126.2 18.28 kA VSD 1300kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 30MCC05A 0.43 0.00 0.00 1.00 43.57 MVA 58.09 kA -53.4 56.93 -53.1 143.36 kA 57.02 84.15 59.07

Page 208: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 9 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] 30TX05A 11/0.43 20MCC04 43.57 MVA 58.09 kA 126.6 56.93 126.9 143.36 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 181kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 1705kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 55kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 30MCC05B 0.43 0.00 0.00 1.00 39.00 MVA 52.00 kA -53.4 51.09 -53.1 128.34 kA 51.17 75.50 52.88 30TX05B 11/0.43 20MCC04 39.00 MVA 52.00 kA 126.6 51.09 126.9 128.34 kA L-DOL 150kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 587kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 325kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 595kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 12TX203 HV 11.00 0.00 0.00 1.00 393.59 MVA 20.66 kA -60.4 17.01 -63.7 36.69 kA 17.31 24.48 20.73 Feeder 20MCC206 OPF2 SS 393.59 MVA 20.66 kA 119.6 17.01 116.3 36.69 kA 12TX203 11/0.43 Reclaim Tu 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Reclaim Tunnel Ar 0.43 0.00 0.00 1.00 32.52 MVA 43.37 kA -51.9 42.76 -51.7 103.44 kA 42.81 61.63 43.94 12TX203 11/0.43 12TX203 HV 32.52 MVA 43.37 kA 128.1 42.76 128.3 103.44 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL 22kW Conv 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 44kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 528kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 191.93kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 15TX204A HV 11.00 0.00 0.00 1.00 462.21 MVA 24.26 kA -68.6 19.25 -70.6 48.61 kA 19.66 27.81 22.40 Feeder 20MCC206 OPF2 SS 462.21 MVA 24.26 kA 111.4 19.25 109.4 48.61 kA 15TX204A 11/0.4 15TX204A S 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 15TX204A Scrubber 0.43 0.00 0.00 1.00 37.36 MVA 49.82 kA -52.5 49.00 -52.2 120.61 kA 49.06 71.23 50.55 15TX204A 11/0.4 15TX204A H 37.36 MVA 49.82 kA 127.5 49.00 127.8 120.61 kA L-DOL 90kW(1) 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 2474kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 193kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 12TX204B HV 11.00 0.00 0.00 1.00 458.90 MVA 24.09 kA -68.2 19.14 -70.3 47.94 kA 19.55 27.65 22.25 Feeder 20MCC206 OPF2 SS 458.90 MVA 24.09 kA 111.8 19.14 109.7 47.94 kA 12TX204B 11/0.4 12TX204B S 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 12TX204B Scrubber 0.43 0.00 0.00 1.00 38.52 MVA 51.36 kA -52.4 50.47 -52.1 124.16 kA 50.55 73.31 52.10 12TX204B 11/0.4 12TX204B H 38.52 MVA 51.36 kA 127.6 50.47 127.9 124.16 kA L-DOL- 90kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL Lumped 225. 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 140.30kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD 1905kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 209: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 10 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] 20TX205 HV 11.00 0.00 0.00 1.00 537.22 MVA 28.20 kA -79.3 21.57 -79.1 69.45 kA 22.11 32.88 26.11 Feeder 20MCC206 OPF2 SS 537.22 MVA 28.20 kA 100.7 21.57 100.9 69.45 kA 20TX205 11/0.43 Secondary 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Secondary & Terti 0.43 0.00 0.00 1.00 43.46 MVA 57.94 kA -53.4 56.78 -53.1 143.04 kA 56.88 83.96 58.92 20TX205 11/0.43 20TX205 HV 43.46 MVA 57.94 kA 126.6 56.78 126.9 143.04 kA L-DOL 150kW Con 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Staic 24kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL 37kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 34kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 574kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 254.37kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL 37kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 56kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 60kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 230.4kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL - 37kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL- 56k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS - 60kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static - 230.4k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL -132kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 45kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS - 60kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 564kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206A HV 11.00 0.00 0.00 1.00 538.21 MVA 28.25 kA -79.7 21.60 -79.3 70.13 kA 22.14 33.29 26.18 Feeder 20MCC206 OPF2 SS 538.21 MVA 28.25 kA 100.3 21.60 100.7 70.13 kA 20TX206A 11/3.3 20TX206A L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206A LV 3.30 0.00 0.00 1.00 54.78 MVA 9.58 kA -53.1 9.34 -52.7 23.68 kA 9.36 13.83 9.75 20TX206A 11/3.3 20TX206A H 54.78 MVA 9.58 kA 126.9 9.34 127.3 23.68 kA Feeder 20TX206A 20MCC206B 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Master 20TX2 11.00 0.00 0.00 1.00 537.27 MVA 28.20 kA -79.3 21.57 -79.1 69.45 kA 22.11 32.89 26.11 Feeder 20MCC206 OPF2 SS 537.27 MVA 28.20 kA 100.7 21.57 100.9 69.45 kA 20TX206B 11/1.9 20TX206B L 20TX206B L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206B LV Delta 1.90 0.00 0.00 1.00 22.51 MVA 6.82 kA -84.2 6.77 -83.9 16.84 kA 6.77 9.99 6.94 20TX206B 11/1.9 HPGR Maste 20TX206B L 22.51 MVA 6.82 kA 95.8 6.77 96.1 16.84 kA HPGR Master VSD 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206B LV Star 1.90 0.00 0.00 1.00 22.51 MVA 6.82 kA -54.2 6.77 -53.9 16.84 kA 6.77 9.99 6.94 20TX206B 11/1.9 HPGR Maste 20TX206B L 22.51 MVA 6.82 kA 125.8 6.77 126.1 16.84 kA HPGR Master VSD 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 210: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 11 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] HPGR Follower 20T 11.00 0.00 0.00 1.00 537.27 MVA 28.20 kA -79.3 21.57 -79.1 69.45 kA 22.11 32.89 26.11 Feeder 20MCC206 OPF2 SS 537.27 MVA 28.20 kA 100.7 21.57 100.9 69.45 kA 20TX206C 1kv/2x 20TX206C L 20TX206C L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206C LV Delta 1.90 0.00 0.00 1.00 22.51 MVA 6.82 kA -84.2 6.77 -83.9 16.84 kA 6.77 9.99 6.94 20TX206C 1kv/2x HPGR Follo 20TX206C L 22.51 MVA 6.82 kA 95.8 6.77 96.1 16.84 kA HPGR Follower V 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206C LV Star 1.90 0.00 0.00 1.00 22.51 MVA 6.82 kA -54.2 6.77 -53.9 16.84 kA 6.77 9.99 6.94 20TX206C 1kv/2x HPGR Follo 20TX206C L 22.51 MVA 6.82 kA 125.8 6.77 126.1 16.84 kA HPGR Follower V 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Desands 30TX207A 11.00 0.00 0.00 1.00 388.35 MVA 20.38 kA -59.8 16.84 -63.2 35.93 kA 17.13 24.22 20.46 Feeder 20MCC206 OPF2 SS 388.35 MVA 20.38 kA 120.2 16.84 116.8 35.93 kA 30TX207A 11/0.4 30TX207A L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 30TX207A LV 0.41 0.00 0.00 1.00 35.42 MVA 49.27 kA -51.5 48.46 -51.3 116.79 kA 48.53 69.67 49.90 30TX207A 11/0.4 Desands 30 35.42 MVA 49.27 kA 128.5 48.46 128.7 116.79 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 310. 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 2345kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Load 34. 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Desands 30TX207B 11.00 0.00 0.00 1.00 388.31 MVA 20.38 kA -59.8 16.83 -63.2 35.93 kA 17.13 24.22 20.45 30TX207B 11/0.4 30TX207B L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 OPF2 SS 388.31 MVA 20.38 kA 120.2 16.83 116.8 35.93 kA 30TX207B LV 0.43 0.00 0.00 1.00 38.11 MVA 50.81 kA -51.5 49.94 -51.2 120.29 kA 50.01 71.77 51.45 30TX207B 11/0.4 Desands 30 38.11 MVA 50.81 kA 128.5 49.94 128.8 120.29 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 343. 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 190.60kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 696kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Desands 30TX207C 11.00 0.00 0.00 1.00 388.22 MVA 20.38 kA -59.8 16.83 -63.2 35.92 kA 17.12 24.21 20.45 Feeder 20MCC206 OPF2 SS 388.22 MVA 20.38 kA 120.2 16.83 116.8 35.92 kA 30TX207C 11/0.4 30TX207C L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 30TX207C LV 0.43 0.00 0.00 1.00 36.94 MVA 49.25 kA -51.6 48.44 -51.3 116.75 kA 48.50 69.64 49.88 30TX207C 11/0.4 Desands 30 36.94 MVA 49.25 kA 128.4 48.44 128.7 116.75 kA L-DOL 120kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 489k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS Load 110 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 211: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 12 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Static 45.77kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Jigging 35TX208A 11.00 0.00 0.00 1.00 445.94 MVA 23.41 kA -66.6 18.73 -69.0 45.40 kA 19.11 27.03 23.52 Feeder 20MCC206 OPF2 SS 445.94 MVA 23.41 kA 113.4 18.73 111.0 45.40 kA 35TX208A 11/0.4 Jigging 35 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Jigging 35TX208A 0.43 0.00 0.00 1.00 37.24 MVA 49.66 kA -52.4 48.82 -52.1 119.70 kA 48.89 70.78 50.36 35TX208A 11/0.4 Jigging 35 37.24 MVA 49.66 kA 127.6 48.82 127.9 119.70 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL -110kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 1009 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS Load 580 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 80.83kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Jigging 35TX208B 11.00 0.00 0.00 1.00 445.95 MVA 23.41 kA -66.6 18.73 -69.0 45.40 kA 19.11 27.03 23.52 Feeder 20MCC206 OPF2 SS 445.95 MVA 23.41 kA 113.4 18.73 111.0 45.40 kA 35TX208B 11/0.4 Jigging 35 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Jigging 35TX208B 0.43 0.00 0.00 1.00 43.98 MVA 58.65 kA -52.1 57.44 -51.9 140.78 kA 57.54 83.11 59.45 35TX208B 11/0.4 Jigging 35 43.98 MVA 58.65 kA 127.9 57.44 128.1 140.78 kA L-DOL - 150kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped-DOL 1599 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 662 kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 80.83 kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 35TX208C HV 11.00 0.00 0.00 1.00 445.89 MVA 23.40 kA -66.6 18.73 -69.0 45.40 kA 19.11 27.03 23.52 Feeder 20MCC206 OPF2 SS 445.89 MVA 23.40 kA 113.4 18.73 111.0 45.40 kA 35TX208C 11/0.4 35TX208C L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 35TX208C LV 0.43 0.00 0.00 1.00 28.50 MVA 38.00 kA -52.7 37.54 -52.5 92.11 kA 37.58 54.60 38.56 35TX208C 11/0.4 35TX208C H 28.50 MVA 38.00 kA 127.3 37.54 127.5 92.11 kA L-DOL 150kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL - 14 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 320kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20MCC206B 3.30 0.00 0.00 1.00 54.76 MVA 9.58 kA -53.1 9.34 -52.7 23.66 kA 9.36 13.82 9.74 Feeder 20TX206A 20TX206A L 54.76 MVA 9.58 kA 126.9 9.34 127.3 23.66 kA Feed to Cone Cr Cone Crush 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Master VSD 2 0.69 0.00 0.00 1.00 15.63 MVA 13.08 kA -45.5 13.03 -45.3 26.59 kA 13.03 18.43 13.16 20TX207D 3.3kV/ Tails Pump HPGR Maste 15.63 MVA 13.08 kA 134.5 13.03 134.7 26.59 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Master Star 0.69 0.00 0.00 1.00 15.63 MVA 13.08 kA -15.5 13.03 -15.3 26.59 kA 13.03 18.43 13.16

Page 212: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 13 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] 20TX207D 3.3kV/ Tails Pump HPGR Maste 15.63 MVA 13.08 kA 164.5 13.03 164.7 26.59 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Follower Del 0.69 0.00 0.00 1.00 15.61 MVA 13.06 kA -45.4 13.01 -45.2 26.52 kA 13.02 18.41 13.14 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.61 MVA 13.06 kA 134.6 13.01 134.8 26.52 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 11MCC202C OLC MCC 0.41 0.00 0.00 1.00 8.78 MVA 12.21 kA 4.6 12.21 4.8 29.30 kA 12.21 17.62 12.38 11TX202C 700/43 11MCC202B 8.78 MVA 12.21 kA -175.4 12.21 -175.2 29.30 kA L-DOL - 150kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 219. 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD 26kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 487.87 k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA EPCM Office 0.41 0.00 0.00 1.00 9.09 MVA 12.65 kA -34.4 12.64 -34.3 22.56 kA 12.64 17.87 12.69 MCC902-P-02 Sub018 9.09 MVA 12.65 kA 145.6 12.64 145.7 22.56 kA 105.3kW Load 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Laboratory 0.41 0.00 0.00 1.00 9.07 MVA 12.61 kA -34.5 12.60 -34.4 22.50 kA 12.60 17.82 12.66 MCC902-P-03 Sub018 9.07 MVA 12.61 kA 145.5 12.60 145.6 22.50 kA Cone Crushers 3.3 3.30 0.00 0.00 1.00 52.65 MVA 9.21 kA -48.9 8.99 -48.6 20.85 kA 9.01 12.79 9.30 Feed to Cone Cr 20MCC206B 52.65 MVA 9.21 kA 131.1 8.99 131.4 20.85 kA Cone Crushers 2 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Tails Pump D 3.3 3.30 0.00 0.00 1.00 36.44 MVA 6.38 kA -29.5 6.28 -29.7 10.77 kA 6.29 8.90 6.40 20TX207D 3.3kV/ HPGR Maste HPGR Maste 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 20MCC206B 36.44 MVA 6.38 kA 150.5 6.28 150.3 10.77 kA Tails Pump E 3.3k 3.30 0.00 0.00 1.00 36.31 MVA 6.35 kA -29.4 6.26 -29.5 10.71 kA 6.27 8.86 6.37 20TX207E 3.3kV/ HPGR Follo HPGR Follo 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 20MCC206B 36.31 MVA 6.35 kA 150.6 6.26 150.5 10.71 kA HPGR Main Motor 2 0.69 0.00 0.00 1.00 15.27 MVA 12.77 kA -14.0 12.72 -13.8 25.33 kA 12.73 18.00 12.84 Feeder HPGR Mas HPGR Maste 15.27 MVA 12.77 kA 166.0 12.72 166.2 25.33 kA HPGR Main B Mot 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Main Motor 2 0.69 0.00 0.00 1.00 15.27 MVA 12.77 kA -44.0 12.72 -43.8 25.33 kA 12.73 18.00 12.84 Feeder HPGR Mas HPGR Maste 15.27 MVA 12.77 kA 136.0 12.72 136.2 25.33 kA HPGR Main Motor 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Follower Mot 0.69 0.00 0.00 1.00 15.25 MVA 12.76 kA -43.9 12.71 -43.7 25.27 kA 12.71 17.98 12.83 Feeder HPGR Fol HPGR Follo 15.25 MVA 12.76 kA 136.1 12.71 136.3 25.27 kA MPGR Follower M 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Follower Mot 0.69 0.00 0.00 1.00 15.25 MVA 12.76 kA -13.9 12.71 -13.7 25.27 kA 12.71 17.98 12.83

Page 213: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 14 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Feeder HPGR Fol HPGR Follo 15.25 MVA 12.76 kA 166.1 12.71 166.3 25.27 kA MPGR Follower M 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL10XX (Fuel Unlo 33.00 0.00 0.00 1.00 189.11 MVA 3.31 kA -44.6 3.00 -44.8 7.06 kA 3.02 4.28 3.33 Feeder TF001 to RMU001 189.11 MVA 3.31 kA 135.4 3.00 135.2 7.06 kA Feeder from OHL Tx HV Fuel 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder TF001 to PL10062 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Fuel Unload RCDOS 0.41 0.00 0.00 1.00 2.70 MVA 3.75 kA 9.8 3.76 9.9 5.82 kA 3.76 5.32 3.76 150mm Cu XLPE 4 Tx LV Fuel 2.70 MVA 3.75 kA -170.2 3.76 -170.1 5.82 kA L-DOL 30kW(1) 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 120kW Lumped 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 8kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL10062 33.00 0.00 0.00 1.00 171.20 MVA 3.00 kA -41.7 2.74 -42.1 6.07 kA 2.76 3.90 3.01 Feeder PL10062 PL1075 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder TF001 to PL10XX (Fu 171.20 MVA 3.00 kA 138.3 2.74 137.9 6.07 kA Feeder PL10062 TF004 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL1075 33.00 0.00 0.00 1.00 157.85 MVA 2.76 kA -39.6 2.54 -40.2 5.40 kA 2.56 3.62 2.78 Feeder PL10062 PL10062 157.85 MVA 2.76 kA 140.4 2.54 139.8 5.40 kA Feeder PL1075 t PL1081 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL1075 t Constructi 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL1081 33.00 0.00 0.00 1.00 143.46 MVA 2.51 kA -37.4 2.33 -38.1 4.74 kA 2.35 3.32 2.52 Feeder PL1075 t PL1075 143.46 MVA 2.51 kA 142.6 2.33 141.9 4.74 kA Feeder PL1081 t Kandama Vi 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder OHL to H Harridan H 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF004 HV 33.00 0.00 0.00 1.00 171.12 MVA 2.99 kA -41.7 2.74 -42.1 6.06 kA 2.76 3.90 3.01 Feeder PL10062 PL10062 171.12 MVA 2.99 kA 138.3 2.74 137.9 6.06 kA TF004 100kvA 33 SWB004 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL4004 OLC A 33.00 0.00 0.00 1.00 142.27 MVA 2.49 kA -36.5 2.32 -37.2 4.67 kA 2.33 3.30 2.50 Feeder RMU010 t PL4003 33k 142.27 MVA 2.49 kA 143.5 2.32 142.8 4.67 kA Feeder PL4004 t REC031 OLC 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL4004 to P PL4005 OLC 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA REC031 OLC 33.00 0.00 0.00 1.00 140.58 MVA 2.46 kA -35.9 2.29 -36.6 4.57 kA 2.31 3.26 2.47 Feeder PL4004 t PL4004 OLC 140.28 MVA 2.45 kA 144.3 2.29 143.6 4.56 kA 11TX202A 33/0.7 11TX202A L 0.57 MVA 0.01 kA 84.9 0.01 84.2 0.02 kA REC032 OLC 33.00 0.00 0.00 1.00 140.46 MVA 2.46 kA -35.9 2.29 -36.5 4.56 kA 2.30 3.26 2.47 Feeder PL4005 t PL4005 OLC 140.14 MVA 2.45 kA 144.4 2.29 143.7 4.55 kA 11TX202B 33/0.7 11TX202B L 0.60 MVA 0.01 kA 86.1 0.01 85.4 0.02 kA

Page 214: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 15 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] PL5059 33.00 0.00 0.00 1.00 117.17 MVA 2.05 kA -32.9 1.94 -33.7 3.65 kA 1.94 2.75 2.06 OHL PL5043 to P PL5043 117.17 MVA 2.05 kA 147.1 1.94 146.3 3.65 kA PL5059 to REC03 REC037 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL5043 33.00 0.00 0.00 1.00 121.48 MVA 2.13 kA -33.5 2.00 -34.3 3.81 kA 2.01 2.84 2.13 OHL PL5028 to P PL5028 121.48 MVA 2.13 kA 146.5 2.00 145.7 3.81 kA Feeder PL5043 t TF035 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL5043 to P PL5059 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL5028 33.00 0.00 0.00 1.00 126.09 MVA 2.21 kA -34.2 2.07 -34.9 4.00 kA 2.08 2.95 2.21 OHL PL5005 to P PL5005 126.09 MVA 2.21 kA 145.8 2.07 145.1 4.00 kA Feeder PL5028 t TF034 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL5028 to P PL5043 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL5005 33.00 0.00 0.00 1.00 131.05 MVA 2.29 kA -34.9 2.15 -35.6 4.20 kA 2.16 3.05 2.30 OHL PL5005 to P PL5028 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL4007 to P PL4007 131.05 MVA 2.29 kA 145.1 2.15 144.4 4.20 kA Feeder PL5005 t TF033 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL4007 33.00 0.00 0.00 1.00 136.39 MVA 2.39 kA -35.7 2.23 -36.3 4.42 kA 2.24 3.17 2.40 OHL PL4005 to P PL4005 OLC 136.39 MVA 2.39 kA 144.3 2.23 143.7 4.42 kA OHL PL4007 to P PL4008 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL4007 to P PL5005 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL4005 OLC B 33.00 0.00 0.00 1.00 142.16 MVA 2.49 kA -36.5 2.32 -37.1 4.66 kA 2.33 3.29 2.50 Feeder PL4005 t REC032 OLC 0.03 MVA 0.00 kA 107.7 0.00 107.0 0.00 kA OHL PL4004 to P PL4004 OLC 142.13 MVA 2.49 kA 143.5 2.32 142.9 4.66 kA OHL PL4005 to P PL4007 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL4008 33.00 0.00 0.00 1.00 128.43 MVA 2.25 kA -33.1 2.11 -33.9 4.02 kA 2.12 3.00 2.26 OHL PL4007 to P PL4007 128.43 MVA 2.25 kA 146.9 2.11 146.1 4.02 kA OHL PL4008 to O Ops Office 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL4008 t PL4017 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF033 HV 33.00 0.00 0.00 1.00 129.75 MVA 2.27 kA -34.4 2.13 -35.1 4.13 kA 2.14 3.03 2.28 TF033 33/0.433k TF033 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL5005 t PL5005 129.75 MVA 2.27 kA 145.6 2.13 144.9 4.13 kA TF034 HV 33.00 0.00 0.00 1.00 124.87 MVA 2.18 kA -33.7 2.05 -34.5 3.93 kA 2.06 2.92 2.19 TF034 33/0.433k TF034 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL5028 t PL5028 124.87 MVA 2.18 kA 146.3 2.05 145.5 3.93 kA TF035 HV 33.00 0.00 0.00 1.00 120.33 MVA 2.11 kA -33.1 1.98 -33.8 3.76 kA 1.99 2.82 2.11 TF035 33/0.433k TF035 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL5043 t PL5043 120.33 MVA 2.11 kA 146.9 1.98 146.2 3.76 kA

Page 215: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 16 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] TF033 LV 0.43 0.00 0.00 1.00 27.16 MVA 36.22 kA -19.3 35.83 -19.1 79.80 kA 35.86 50.82 36.53 TF033 33/0.433k TF033 HV 27.16 MVA 36.22 kA 160.7 35.83 160.9 79.80 kA TF034 LV 0.43 0.00 0.00 1.00 26.96 MVA 35.95 kA -19.0 35.57 -18.8 78.81 kA 35.60 50.43 36.25 TF034 33/0.433k TF034 HV 26.96 MVA 35.95 kA 161.0 35.57 161.2 78.81 kA 10TX201 HV 33.00 0.00 0.00 1.00 111.92 MVA 1.96 kA -31.6 1.85 -32.3 3.43 kA 1.86 2.63 1.96 Feeder REC037 t REC037 111.92 MVA 1.96 kA 148.4 1.85 147.7 3.43 kA 10TX201 33/0.43 Primary Cr 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Primary Crushing 0.41 0.00 0.00 1.00 26.10 MVA 36.31 kA -19.4 35.93 -19.2 80.80 kA 35.97 50.99 36.64 10TX201 33/0.43 10TX201 HV 26.10 MVA 36.31 kA 160.6 35.93 160.8 80.80 kA L-DOL 30kW - 10 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS Lumped 1 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Load 329 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 177. 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA REC037 33.00 0.00 0.00 1.00 113.15 MVA 1.98 kA -32.4 1.87 -33.1 3.50 kA 1.88 2.66 1.99 Feeder REC037 t 10TX201 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL5059 to REC03 PL5059 113.15 MVA 1.98 kA 147.6 1.87 146.9 3.50 kA LV DB Constructio 0.41 0.00 0.00 1.00 36.32 MVA 50.53 kA -17.9 49.71 -17.7 109.77 kA 49.78 70.49 50.93 TF011 33/0.418k Constructi 36.32 MVA 50.53 kA 162.1 49.71 162.3 109.77 kA CC Load 450kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA LV SUB012 0.41 0.00 0.00 1.00 36.32 MVA 50.53 kA -17.9 49.71 -17.7 109.76 kA 49.78 70.48 50.93 TF012 33/0.418k RMU012/SUB 36.32 MVA 50.53 kA 162.1 49.71 162.3 109.76 kA CC Load 2 450kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Construction Camp 33.00 0.00 0.00 1.00 127.16 MVA 2.22 kA -30.1 2.09 -31.1 3.82 kA 2.10 2.97 2.23 TF011 33/0.418k LV DB Cons 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder RMU011 t RMU012/SUB 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL1075 t PL1075 127.16 MVA 2.22 kA 149.9 2.09 148.9 3.82 kA Gatehouse RMU 33.00 0.00 0.00 1.00 203.74 MVA 3.56 kA -42.2 3.20 -42.6 7.33 kA 3.23 4.58 3.59 Gatehouse 33/0. Gatehouse 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder RMU001 t RMU001 203.74 MVA 3.56 kA 137.8 3.20 137.4 7.33 kA Gatehouse TX LV 0.43 0.00 0.00 1.00 22.36 MVA 29.82 kA -25.2 29.57 -25.0 74.80 kA 29.59 44.55 30.39 Gatehouse 33/0. Gatehouse 22.36 MVA 29.82 kA 154.8 29.57 155.0 74.80 kA Ops Office 33kV 33.00 0.00 0.00 1.00 127.67 MVA 2.23 kA -32.9 2.10 -33.7 3.98 kA 2.11 2.98 2.24 Ops Office 33/0 Ops Office 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL4008 to O PL4008 127.67 MVA 2.23 kA 147.1 2.10 146.3 3.98 kA PL4017 33.00 0.00 0.00 1.00 127.93 MVA 2.24 kA -33.0 2.10 -33.8 4.00 kA 2.11 2.99 2.25

Page 216: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 17 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Feeder PL4008 t PL4008 127.93 MVA 2.24 kA 147.0 2.10 146.2 4.00 kA Feeder PL4017 t RMU017 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA SK703-TF01 Stacke 0.43 0.00 0.00 1.00 23.73 MVA 31.63 kA -50.7 31.34 -50.6 73.55 kA 31.37 44.75 31.99 SK703-TF01 11/0 SK703-TF01 23.73 MVA 31.63 kA 129.3 31.34 129.4 73.55 kA L-DOL 250kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 288.3kW Lumped 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Load - 1 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VVF Lumped 49kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA SK703-TF01 TX HV 11.00 0.00 0.00 1.00 294.13 MVA 15.44 kA -42.6 13.57 -47.5 23.43 kA 13.72 19.41 15.47 SK703-TF01 11/0 SK703-TF01 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder to SK703 HV901 294.13 MVA 15.44 kA 137.4 13.57 132.5 23.43 kA RMU012/SUB012 33.00 0.00 0.00 1.00 127.13 MVA 2.22 kA -30.1 2.09 -31.1 3.82 kA 2.10 2.97 2.23 Feeder RMU011 t Constructi 127.13 MVA 2.22 kA 149.9 2.09 148.9 3.82 kA TF012 33/0.418k LV SUB012 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RC031-MC02 Reclai 0.41 0.00 0.00 1.00 23.61 MVA 32.85 kA -50.4 32.56 -50.2 75.98 kA 32.58 46.43 33.21 RC031-TF01 11kV RC031 Recl 23.61 MVA 32.85 kA 129.6 32.56 129.8 75.98 kA 4kW Motor 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 920.55kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Loads - 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PS Services 0.43 0.00 0.00 1.00 19.56 MVA 26.08 kA -44.7 25.90 -44.6 54.13 kA 25.92 36.67 26.26 TF005 11/0.433k PowerStati 19.56 MVA 26.08 kA 135.3 25.90 135.4 54.13 kA Lumped Load 63k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Kandama Village R 33.00 0.00 0.00 1.00 138.09 MVA 2.42 kA -36.6 2.25 -37.3 4.50 kA 2.26 3.20 2.43 Feeder PL1081 t PL1081 138.09 MVA 2.42 kA 143.4 2.25 142.7 4.50 kA 08TF002 33/11kV RMU-05 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 11MCC202B 690V 0.69 0.00 0.00 1.00 71.59 MVA 59.91 kA -12.8 57.86 -12.8 121.95 kA 58.03 82.07 60.27 11TX202C 700/43 11MCC202C 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Bustie 11MCC202 11MCC202A 35.80 MVA 29.96 kA 167.2 28.93 167.2 60.98 kA Feeder to OLC D 11TX202B L 35.79 MVA 29.95 kA 167.2 28.92 167.2 60.96 kA OLC Drive 4 Sto 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 11MCC202A 690V 0.69 0.00 0.00 1.00 71.59 MVA 59.91 kA -12.8 57.86 -12.8 121.95 kA 58.03 82.07 60.27 Bustie 11MCC202 11MCC202B 35.79 MVA 29.95 kA 167.2 28.92 167.2 60.96 kA Feeder to OLC D 11TX202A L 35.80 MVA 29.96 kA 167.2 28.93 167.2 60.98 kA Overland Convey 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF035 LV 0.41 0.00 0.00 1.00 25.65 MVA 35.68 kA -18.8 35.30 -18.6 77.84 kA 35.34 50.04 35.97 TF035 33/0.433k TF035 HV 25.65 MVA 35.68 kA 161.2 35.30 161.4 77.84 kA

Page 217: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 18 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Ops Office 415V 0.41 0.00 0.00 1.00 4.51 MVA 6.28 kA -11.8 6.29 -11.6 12.12 kA 6.29 8.90 6.31 Ops Office 33/0 Ops Office 4.51 MVA 6.28 kA 168.2 6.29 168.4 12.12 kA Ops Office Load 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Follower Sta 0.69 0.00 0.00 1.00 15.61 MVA 13.06 kA -15.4 13.01 -15.2 26.52 kA 13.02 18.41 13.14 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.61 MVA 13.06 kA 164.6 13.01 164.8 26.52 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 11TX202B LV 0.69 0.00 0.00 1.00 72.78 MVA 60.90 kA -13.6 58.76 -13.5 125.37 kA 58.94 83.38 61.28 Feeder to OLC D 11MCC202B 28.74 MVA 24.05 kA 169.9 23.21 170.0 49.51 kA 11TX202B 33/0.7 REC032 OLC 44.12 MVA 36.92 kA 164.1 35.62 164.2 76.00 kA 11TX202A LV 0.69 0.00 0.00 1.00 72.79 MVA 60.90 kA -13.6 58.77 -13.5 125.39 kA 58.94 83.39 61.29 11TX202A 33/0.7 REC031 OLC 44.14 MVA 36.93 kA 164.1 35.64 164.2 76.04 kA Feeder to OLC D 11MCC202A 28.73 MVA 24.04 kA 169.9 23.20 170.0 49.50 kA TX-003 LV 0.41 0.00 0.00 1.00 14.35 MVA 19.96 kA 8.8 19.88 9.0 45.84 kA 19.88 28.30 20.17 Tx-003 11/0.415 RMU-03 14.35 MVA 19.96 kA -171.2 19.88 -171.0 45.84 kA TX-002 LV 0.41 0.00 0.00 1.00 14.33 MVA 19.93 kA 8.9 19.85 9.1 45.67 kA 19.85 28.24 20.14 Tx-002 11/0.415 RMU-02 14.33 MVA 19.93 kA -171.1 19.85 -170.9 45.67 kA TX-001 LV 0.41 0.00 0.00 1.00 14.30 MVA 19.90 kA 9.0 19.82 9.2 45.50 kA 19.82 28.19 20.10 Tx-001 11/0.415 RMU-01 14.30 MVA 19.90 kA -171.0 19.82 -170.8 45.50 kA Waste Water Treat 0.41 0.00 0.00 1.00 14.37 MVA 19.99 kA 8.7 19.91 8.9 46.02 kA 19.91 28.35 20.20 Tx-004 11/0.415 RMU-04 14.37 MVA 19.99 kA -171.3 19.91 -171.1 46.02 kA

Page 218: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Verification Short-Circuit Calculation complete 3-Phase Short-Circuit / Max. Short-Circuit Currents Short-Circuit Duration Fault Impedance Break Time 0.10 s Resistance, Rf 0.00 Ohm Fault Clearing Time (Ith) 1.00 s Reactance, Xf 0.00 Ohm Max. Loading (Peak) 80.00 % Max. Loading (Interrupting) 80.00 % Max. Loading (Thermal) 80.00 % Fortescue SC-3 DIgSILENT Project: XMAS CREEK Metals Group 27 Generators in Service with Load Flow PowerFactory Maximum Short Circuit Currents 14.1.4 Date: 4/24/2013 Study Case: Study Case Annex: / 1 Overloaded Busbars/Terminals Nominal Thermal equivalent Current Peak Short-Circuit Current Name Type Voltage Nominal ( 1.0 s) Actual Loading Nominal Actual Loading [kV] [kA] [kA] [kA] [% ] [kA] [kA] [%] 20MCC04 OPF1 11kV 31.5kA 1s 11.00 31.50 (1s) 31.50 27.73 88.04 0.00 75.89 0.00 20MCC206A OPF2 OPF2 SS 11kV 31.5kA 1s 11.00 31.50 (1s) 31.50 27.72 87.99 0.00 76.18 0.00 30TX207B LV 415V 65kA 1s 0.43 65.00 (1s) 65.00 52.97 81.49 0.00 123.08 0.00 30TX207C LV 415V 65kA 1s 0.43 65.00 (1s) 65.00 52.79 81.22 0.00 122.76 0.00 Jigging 35TX208B LV 415V 80kA 1s 0.43 80.00 (1s) 80.00 65.33 81.66 0.00 148.94 0.00 Kiosk Substation Sub018 30kA 0.415V 0.41 30.00 (1s) 30.00 26.47 88.23 0.00 54.22 0.00 Secondary & Tertiray Crushing (20MCC2415V 65kA 1s 0.43 65.00 (1s) 65.00 61.50 94.62 0.00 146.73 0.00 Stockyard Substation 11kV 11kV 31.5kA 1s 11.00 31.50 (1s) 31.50 28.10 89.22 0.00 77.32 0.00

Page 219: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Study Case: Study Case Annex: / 2 Overloaded Branches Thermal equivalent Current Name Type Terminal i Terminal j Nominal(1s) ( 1.0 s) Actual Loading [kA] [kA] [kA] [%] Feeder 20MCC206A to 12TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX203 HV 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 15TX204A HV 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX204B HV 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 20TX205 HV 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 120mm Lne OPF2 SS/20MCC2.. 20TX206A HV 17.10 17.10 27.72 162.08 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Master 20.. 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Follower .. 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 27.72 308.30 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 35TX208C HV 8.99 8.99 27.72 308.30 Feeder 20MCC206B to 20TX2 Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump D .. 8.99 8.99 9.68 107.62 Feeder 20MCC206B to Tails Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump E 3.. 8.99 8.99 9.68 107.62 Feeder HV901 to CV201-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Plant Output C.. 7.15 7.15 28.10 393.05 Feeder HV901 to CV401-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. CV401-EM01/EM02 7.15 7.15 28.10 393.05 Feeder HV901 to CV601-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Reclaimer Conv.. 14.30 14.30 28.10 196.53 Feeder HV901 to CV801-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Train Loadout .. 14.30 14.30 28.10 196.53 Feeder HV901 to RC031 600 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. RC031 Reclaimer 7.15 7.15 28.10 393.05 Feeder HV901 to TF801 Tx Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF801 HV - Tra.. 7.15 7.15 28.10 393.05 Feeder HV901 to TF901 20m Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF901 HV 7.15 7.15 28.10 393.05 Feeder to SK703 Med Point Olex 6.35/11kV 50mm Lne HV901/Stockyar.. SK703-TF01 TX HV 7.15 7.15 28.10 393.05

Page 220: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Fortescue SC-3 DIgSILENT Project: XMAS CREEK Metals Group 27 Generators in Service with Load Flow PowerFactory Maximum Short Circuit Currents 14.1.4 Date: 4/24/2013 Verification Short-Circuit Calculation complete 3-Phase Short-Circuit / Max. Short-Circuit Currents Short-Circuit Duration Fault Impedance Break Time 0.10 s Resistance, Rf 0.00 Ohm Fault Clearing Time (Ith) 1.00 s Reactance, Xf 0.00 Ohm Grid: Christmas Creek System Stage: Christmas Creek Annex: / 1 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] HV901 Stockyard Subst 11.00 0.00 0.00 1.00 586.36 MVA 30.78 kA -81.8 22.15 -80.5 77.32 kA 22.85 37.20 28.10 Alternate Feede HV902-11kV 232.32 MVA 12.19 kA 93.7 8.66 95.0 30.64 kA FE-04 - PS to H PowerStati 352.87 MVA 18.52 kA 101.3 13.53 102.4 46.53 kA Feeder HV901 to Plant Outp 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to CV401-EM01 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to Train Load 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder HV901 to RC031 Recl 0.01 MVA 0.00 kA 79.3 0.00 0.0 0.00 kA Feeder HV901 to TF801 HV - 0.61 MVA 0.03 kA 85.1 0.00 0.0 0.08 kA Feeder HV901 to TF901 HV 0.10 MVA 0.01 kA 81.8 0.00 0.0 0.01 kA Feeder to SK703 SK703-TF01 1.75 MVA 0.09 kA 88.7 0.00 0.0 0.23 kA HV902-11kV Stockyard Subst 11.00 0.00 0.00 1.00 585.44 MVA 30.73 kA -81.8 22.12 -80.5 77.21 kA 22.83 37.16 28.06 Alternate Feede HV901 287.56 MVA 15.09 kA 101.2 10.98 102.3 37.93 kA OPF1 Incomer 1 OPF1 8.07 MVA 0.42 kA 83.3 0.00 0.0 1.06 kA Power Station F PowerStati 290.77 MVA 15.26 kA 95.7 11.17 96.7 38.35 kA MC901 MC901 415V 0.41 0.00 0.00 1.00 8.74 MVA 12.15 kA -54.4 11.95 -54.2 29.91 kA 11.96 17.65 12.35 TF901 11/0.433k TF901 HV 8.64 MVA 12.01 kA 125.7 11.95 125.8 29.57 kA 19.5kW Lumped D 0.06 MVA 0.08 kA 112.0 0.00 0.0 0.20 kA L-DOL 15kW 0.04 MVA 0.06 kA 111.8 0.00 0.0 0.15 kA Static - 15kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA MCC902 Turkeys Nest 0.41 0.00 0.00 1.00 9.87 MVA 13.72 kA -38.5 13.10 -37.3 25.18 kA 13.15 18.60 13.78 MCC902-P-01 Sub018 9.48 MVA 13.19 kA 142.7 13.10 142.7 24.19 kA 22kW DOL 0.06 MVA 0.09 kA 110.8 0.00 0.0 0.16 kA L-DOL 132kW 0.38 MVA 0.53 kA 113.3 0.00 0.0 0.97 kA 5kW Static 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 221: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 2 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] OPF1 20MCC04 11.00 0.00 0.00 1.00 578.72 MVA 30.37 kA -81.6 21.93 -80.3 75.89 kA 22.62 36.18 27.73 Feeder HV902 to 20MCC04 7.64 MVA 0.40 kA 83.3 0.00 0.0 1.00 kA OPF1 Incomer 1 HV902-11kV 570.93 MVA 29.97 kA 98.7 21.93 99.7 74.87 kA TF008 11/0.433k Sub018 0.44 MVA 0.02 kA 83.5 0.00 0.0 0.06 kA OPF2 SS 20MCC206A OPF2 11.00 0.00 0.00 1.00 577.88 MVA 30.33 kA -81.8 21.88 -80.5 76.18 kA 22.58 36.66 27.72 FE-07 to OPF2-A PowerStati 279.69 MVA 14.68 kA 98.5 10.94 99.5 36.87 kA FE-08 to OPF2-B PowerStati 279.69 MVA 14.68 kA 98.5 10.94 99.5 36.87 kA Feeder 20MCC206 12TX203 HV 0.26 MVA 0.01 kA 96.5 0.00 0.0 0.03 kA Feeder 20MCC206 15TX204A H 0.91 MVA 0.05 kA 86.4 0.00 0.0 0.12 kA Feeder 20MCC206 12TX204B H 1.07 MVA 0.06 kA 87.3 0.00 0.0 0.14 kA Feeder 20MCC206 20TX205 HV 2.18 MVA 0.11 kA 95.2 0.00 0.0 0.29 kA Feeder 20MCC206 20TX206A H 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 HPGR Maste 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 HPGR Follo 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Desands 30 1.26 MVA 0.07 kA 85.4 0.00 0.0 0.17 kA Feeder 20MCC206 Desands 30 1.37 MVA 0.07 kA 87.0 0.00 0.0 0.18 kA Feeder 20MCC206 Desands 30 2.30 MVA 0.12 kA 87.0 0.00 0.0 0.30 kA Feeder 20MCC206 Jigging 35 4.06 MVA 0.21 kA 88.4 0.00 0.0 0.54 kA Feeder 20MCC206 Jigging 35 4.28 MVA 0.22 kA 84.7 0.00 0.0 0.56 kA Feeder 20MCC206 35TX208C H 1.15 MVA 0.06 kA 96.8 0.00 0.0 0.15 kA PowerStation Power Station B 11.00 0.00 0.00 1.00 603.10 MVA 31.65 kA -82.5 22.61 -81.0 80.94 kA 23.35 40.70 28.97 FE-04 - PS to H HV901 5.50 MVA 0.29 kA 87.3 0.00 0.0 0.74 kA FE-07 to OPF2-A OPF2 SS 9.37 MVA 0.49 kA 88.3 0.00 0.0 1.26 kA FE-08 to OPF2-B OPF2 SS 9.37 MVA 0.49 kA 88.3 0.00 0.0 1.26 kA FE-09 PS to TF0 OHL East T 1.28 MVA 0.07 kA 87.9 0.00 0.0 0.17 kA Feeder PS to TF OHL West T 1.28 MVA 0.07 kA 87.9 0.00 0.0 0.17 kA Power Station F HV902-11kV 5.03 MVA 0.26 kA 81.0 0.00 0.0 0.68 kA TF005 11/0.433k PS Service 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Eathing Tx ZigZ 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Generator 01 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 02 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 03 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 04 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 05 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 06 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 07 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 08 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 09 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 10 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 11 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA

Page 222: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 3 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Generator 12 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 13 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 14 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 15 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 16 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 17 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 18 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 19 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 20 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 21 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 22 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 23 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 24 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 25 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 26 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 27 21.18 MVA 1.11 kA -81.9 0.84 -81.0 2.84 kA Generator 28 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU001 Power StationRM 33.00 0.00 0.00 1.00 243.79 MVA 4.27 kA -53.5 3.65 -52.5 10.72 kA 3.70 5.78 4.35 Feeder RMU001 t Gatehouse 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder RMU001 t RMU010 Pow 122.69 MVA 2.15 kA 126.4 1.83 127.5 5.40 kA Feeder TF001 to PL10XX (Fu 0.52 MVA 0.01 kA 129.0 0.00 0.0 0.02 kA TF001 11/33kV 1 OHL West T 120.57 MVA 2.11 kA 126.5 1.83 127.5 5.30 kA RMU017 CCY1 33.00 0.00 0.00 1.00 126.91 MVA 2.22 kA -36.8 2.03 -37.3 4.10 kA 2.05 2.90 2.23 CCY1-RMU017-P1 HV TF017-1 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA CCY1-RMU017-P2 HV TF017-2 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA CCY1-RMU017-P3 HV TF017-3 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA CCY1-RMU017-P4 HV TF017-4 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL4017 t PL4017 126.91 MVA 2.22 kA 143.2 2.03 142.7 4.10 kA SWB004 Switchroom Tels 0.43 0.00 0.00 1.00 2.43 MVA 3.24 kA -8.5 3.23 -8.5 5.95 kA 3.23 4.57 3.25 Feeder TF004 to Telstra Hu 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF004 100kvA 33 TF004 HV 2.43 MVA 3.24 kA 171.5 3.23 171.5 5.95 kA Sub018 Kiosk Substatio 0.41 0.00 0.00 1.00 18.90 MVA 26.30 kA -45.7 25.42 -45.2 54.22 kA 25.49 36.05 26.47 MCC902-P-01 MCC902 0.43 MVA 0.60 kA 113.5 0.00 0.0 1.24 kA MCC902-P-02 EPCM Offic 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA MCC902-P-03 Laboratory 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF008 11/0.433k OPF1 18.50 MVA 25.74 kA 134.8 25.42 134.8 53.06 kA THLoad

Page 223: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 4 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Telstra Hut Loa 0.43 0.00 0.00 1.00 1.35 MVA 1.80 kA 20.3 1.80 20.2 2.65 kA 1.80 2.54 1.80 SB004 to Telstr Telstra Hu 1.35 MVA 1.80 kA -159.7 1.80 -159.8 2.65 kA Telstra Hut Loa 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TLO MC801 415V MC801 0.41 0.00 0.00 1.00 9.26 MVA 12.88 kA -53.5 11.94 -52.6 30.87 kA 12.01 17.38 13.05 Feeder TF801 to TF801 LV - 8.63 MVA 12.00 kA 127.4 11.94 127.4 28.78 kA 105.4kW Lumped 0.33 MVA 0.46 kA 113.0 0.00 0.0 1.09 kA L-DOL 75kW 0.31 MVA 0.43 kA 117.8 0.00 0.0 1.04 kA Static Load 15k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Telstra Hut Telstra Hut DB 0.43 0.00 0.00 1.00 2.42 MVA 3.23 kA -8.3 3.22 -8.3 5.92 kA 3.22 4.56 3.24 Feeder TF004 to SWB004 2.42 MVA 3.23 kA 171.7 3.22 171.7 5.92 kA SB004 to Telstr THLoad 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 575.41 MVA 30.20 kA -81.3 21.84 -80.2 74.95 kA 22.53 35.40 27.55 Feeder HV901 to HV901 575.41 MVA 30.20 kA 98.7 21.84 99.8 74.95 kA CV701-EM01/EM02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF801 HV - Train 11.00 0.00 0.00 1.00 349.55 MVA 18.35 kA -50.0 15.14 -54.9 29.01 kA 15.40 21.78 18.39 Feeder HV901 to HV901 349.12 MVA 18.32 kA 130.1 15.14 125.1 28.97 kA TF801 - Train L TF801 LV - 0.61 MVA 0.03 kA 85.1 0.00 0.0 0.05 kA TF801 LV - Train 0.41 0.00 0.00 1.00 9.63 MVA 13.39 kA -54.2 12.45 -53.4 32.55 kA 12.52 18.27 13.59 TF801 - Train L TF801 HV - 9.00 MVA 12.52 kA 126.6 12.45 126.6 30.44 kA Feeder TF801 to TLO MC801 0.64 MVA 0.89 kA 115.4 0.00 0.0 2.15 kA Train Loadout Con 11.00 0.00 0.00 1.00 480.06 MVA 25.20 kA -64.9 19.18 -67.9 46.70 kA 19.67 27.82 22.96 Feeder HV901 to HV901 480.06 MVA 25.20 kA 115.1 19.18 112.1 46.70 kA CV801-EM01/EM02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 565.89 MVA 29.70 kA -77.8 21.57 -77.7 68.64 kA 22.24 32.02 26.91 Feeder HV901 to HV901 565.89 MVA 29.70 kA 102.2 21.57 102.3 68.64 kA CV601-EM01/EM02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Plant Output Conv 11.00 0.00 0.00 1.00 479.71 MVA 25.18 kA -64.9 19.16 -67.9 46.66 kA 19.66 27.80 22.94 Feeder HV901 to HV901 479.71 MVA 25.18 kA 115.1 19.16 112.1 46.66 kA CV201-EM01 750k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA CV401-EM01/EM02 11.00 0.00 0.00 1.00 237.25 MVA 12.45 kA -38.8 11.04 -43.8 18.46 kA 11.16 15.78 12.47 Feeder HV901 to HV901 237.25 MVA 12.45 kA 141.2 11.04 136.2 18.46 kA CV401-EM01/EM02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF901 HV 11.00 0.00 0.00 1.00 576.20 MVA 30.24 kA -79.8 21.86 -79.1 72.75 kA 22.55 33.53 27.46 Feeder HV901 to HV901 576.11 MVA 30.24 kA 100.2 21.86 100.9 72.73 kA

Page 224: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 5 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] TF901 11/0.433k MC901 0.10 MVA 0.01 kA 81.8 0.00 0.0 0.01 kA 20MCC04 11.00 0.00 0.00 1.00 549.53 MVA 28.84 kA -80.5 21.10 -79.5 70.17 kA 21.74 32.76 26.32 10TX01 11/0.433 10MCC01 Pr 0.49 MVA 0.03 kA 81.5 0.00 0.0 0.06 kA Feeder HV902 to OPF1 542.18 MVA 28.46 kA 99.8 21.10 100.5 69.23 kA 15TX02A 11/0.43 15MCC02A S 0.78 MVA 0.04 kA 84.4 0.00 0.0 0.10 kA 15Tx02B 11/0.43 15MCC02B S 1.02 MVA 0.05 kA 80.0 0.00 0.0 0.13 kA 20TX04A 11/3.3k Desands Ar 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04B 11/1.90 20TX04B De 20TX04B St 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04C 11/1.90 20TX04C De 20TX04C St 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 30TX05A 11/0.43 30MCC05A 0.85 MVA 0.04 kA 78.8 0.00 0.0 0.11 kA 30TX05B 11/0.43 30MCC05B 2.14 MVA 0.11 kA 83.5 0.00 0.0 0.27 kA 20Tx03 3500kVA 20MCC03 Se 2.38 MVA 0.13 kA 86.4 0.00 0.0 0.30 kA RC031 Reclaimer 11.00 0.00 0.00 1.00 318.04 MVA 16.69 kA -46.5 14.07 -51.8 25.73 kA 14.29 20.21 16.73 Feeder HV901 to HV901 318.03 MVA 16.69 kA 133.5 14.07 128.2 25.73 kA RC031-TF01 11kV RC031-MC02 0.01 MVA 0.00 kA 79.3 0.00 0.0 0.00 kA RC031 Reclaimer 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL West TF001 LV 11.00 0.00 0.00 1.00 600.26 MVA 31.51 kA -82.4 22.53 -81.0 80.40 kA 23.27 40.21 28.83 Feeder PS to TF PowerStati 598.54 MVA 31.42 kA 97.6 22.51 99.0 80.17 kA TF001 11/33kV 1 RMU001 1.76 MVA 0.09 kA 85.7 0.02 81.3 0.24 kA OHL East TF012 LV 11.00 0.00 0.00 1.00 601.46 MVA 31.57 kA -82.4 22.56 -81.0 80.54 kA 23.30 40.22 28.88 FE-09 PS to TF0 PowerStati 599.94 MVA 31.49 kA 97.6 22.55 99.0 80.34 kA TF012 11/33kV 1 RMU010 Pow 1.57 MVA 0.08 kA 83.3 0.01 65.4 0.21 kA RMU010 Power Stat 33.00 0.00 0.00 1.00 243.79 MVA 4.27 kA -53.5 3.65 -52.5 10.72 kA 3.70 5.78 4.35 TF012 11/33kV 1 OHL East T 120.66 MVA 2.11 kA 126.5 1.83 127.5 5.31 kA PL4001-P1 U/G 1 PL4001 REC 2.10 MVA 0.04 kA 116.5 0.00 0.0 0.09 kA Feeder RMU001 t RMU001 121.07 MVA 2.12 kA 126.6 1.82 127.5 5.33 kA PL4001 REC001 33.00 0.00 0.00 1.00 243.08 MVA 4.25 kA -53.3 3.64 -52.3 10.65 kA 3.69 5.71 4.33 PL4001-P1 U/G 1 RMU010 Pow 241.01 MVA 4.22 kA 126.7 3.64 127.7 10.56 kA OHL PL4001 to P PL4003 33k 2.10 MVA 0.04 kA 116.5 0.00 0.0 0.09 kA PL4003 33kV 33.00 0.00 0.00 1.00 211.95 MVA 3.71 kA -49.0 3.23 -48.5 8.44 kA 3.27 4.66 3.75 OHL PL4001 to P PL4001 REC 209.91 MVA 3.67 kA 131.2 3.23 131.5 8.36 kA TF042 33/0.418k PL4426 Fue 0.53 MVA 0.01 kA 121.0 0.00 0.0 0.02 kA Feeder RMU010 t PL4004 OLC 1.58 MVA 0.03 kA 115.1 0.00 0.0 0.06 kA Tx HV Fuel Unload 33.00 0.00 0.00 1.00 193.83 MVA 3.39 kA -46.9 2.99 -46.8 7.38 kA 3.02 4.28 3.42 Fuel Unload 33/ Tx LV Fuel 0.52 MVA 0.01 kA 129.0 0.00 0.0 0.02 kA Feeder from OHL PL10XX (Fu 193.31 MVA 3.38 kA 133.1 2.99 133.2 7.36 kA Tx LV Fuel Unload 0.41 0.00 0.00 1.00 5.18 MVA 7.21 kA -13.3 6.39 -12.3 13.94 kA 6.46 9.13 7.24

Page 225: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 6 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Fuel Unload 33/ Tx HV Fuel 4.61 MVA 6.41 kA 167.7 6.39 167.7 12.40 kA 150mm Cu XLPE 4 Fuel Unloa 0.58 MVA 0.80 kA 158.9 0.00 0.0 1.56 kA Harridan Hill Tow 33.00 0.00 0.00 1.00 140.32 MVA 2.46 kA -40.1 2.24 -40.7 4.74 kA 2.25 3.19 2.47 Harridan Hill P Harridan H 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder OHL to H PL1081 140.32 MVA 2.46 kA 139.9 2.24 139.3 4.74 kA HV TF017-1 33.00 0.00 0.00 1.00 126.11 MVA 2.21 kA -36.6 2.02 -37.1 4.06 kA 2.04 2.88 2.22 CCY1-RMU017-P1 RMU017 126.11 MVA 2.21 kA 143.4 2.02 142.9 4.06 kA TF017-1 33/0.43 LV TF017-1 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HV TF017-2 33.00 0.00 0.00 1.00 126.32 MVA 2.21 kA -36.7 2.03 -37.2 4.07 kA 2.04 2.89 2.22 CCY1-RMU017-P2 RMU017 126.32 MVA 2.21 kA 143.3 2.03 142.8 4.07 kA TF017-2 33/0.43 LV TF017-2 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HV TF017-3 33.00 0.00 0.00 1.00 126.44 MVA 2.21 kA -36.7 2.03 -37.2 4.08 kA 2.04 2.89 2.22 CCY1-RMU017-P3 RMU017 126.44 MVA 2.21 kA 143.3 2.03 142.8 4.08 kA TF017-3 33/0.43 LV TF017-3 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HV TF017-4 33.00 0.00 0.00 1.00 126.09 MVA 2.21 kA -36.6 2.02 -37.1 4.06 kA 2.04 2.88 2.22 CCY1-RMU017-P4 RMU017 126.09 MVA 2.21 kA 143.4 2.02 142.9 4.06 kA TF017-4 33/0.43 LV TF017-4 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA LV TF017-1 Admin 0.43 0.00 0.00 1.00 13.63 MVA 18.18 kA -23.8 18.00 -23.7 42.98 kA 18.02 25.85 18.41 TF017-1 33/0.43 HV TF017-1 13.63 MVA 18.18 kA 156.2 18.00 156.3 42.98 kA LV TF017-2 Ancill 0.43 0.00 0.00 1.00 13.64 MVA 18.18 kA -23.8 18.01 -23.7 43.00 kA 18.02 25.86 18.41 TF017-2 33/0.43 HV TF017-2 13.64 MVA 18.18 kA 156.2 18.01 156.3 43.00 kA LV TF017-3 HV W/S 0.43 0.00 0.00 1.00 20.44 MVA 27.26 kA -24.7 26.87 -24.5 65.79 kA 26.90 39.00 27.65 TF017-3 33/0.43 HV TF017-3 20.44 MVA 27.26 kA 155.3 26.87 155.5 65.79 kA LV TF017-4 Gulf W 0.43 0.00 0.00 1.00 13.63 MVA 18.18 kA -23.8 18.00 -23.7 42.98 kA 18.02 25.85 18.41 TF017-4 33/0.43 HV TF017-4 13.63 MVA 18.18 kA 156.2 18.00 156.3 42.98 kA RMU-05 11.00 0.00 0.00 1.00 56.13 MVA 2.95 kA -18.8 2.83 -18.7 6.44 kA 2.84 4.02 2.97 08TF002 33/11kV Kandama Vi 56.13 MVA 2.95 kA 161.2 2.83 161.3 6.44 kA Connectin RMU-0 RMU-06 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU-04 11.00 0.00 0.00 1.00 55.81 MVA 2.93 kA -18.6 2.81 -18.5 6.39 kA 2.82 4.00 2.95 Tx-004 11/0.415 Waste Wate 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder from Tx0 RMU-06 55.81 MVA 2.93 kA 161.4 2.81 161.5 6.39 kA Feeder RMU-04 t RMU-03 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU-06 11.00 0.00 0.00 1.00 56.13 MVA 2.95 kA -18.8 2.83 -18.7 6.44 kA 2.84 4.02 2.97 Feeder from Tx0 RMU-04 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 226: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 7 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Connectin RMU-0 RMU-05 56.13 MVA 2.95 kA 161.2 2.83 161.3 6.44 kA RMU-03 11.00 0.00 0.00 1.00 55.48 MVA 2.91 kA -18.3 2.80 -18.2 6.31 kA 2.81 3.98 2.93 Feeder RMU-04 t RMU-04 55.48 MVA 2.91 kA 161.7 2.80 161.8 6.31 kA Feeder RMU-03 t RMU-02 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Tx-003 11/0.415 TX-003 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU-02 11.00 0.00 0.00 1.00 55.15 MVA 2.89 kA -18.0 2.78 -17.9 6.24 kA 2.79 3.95 2.92 Feeder RMU-03 t RMU-03 55.15 MVA 2.89 kA 162.0 2.78 162.1 6.24 kA Feeder RMU-02 t RMU-01 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Tx-002 11/0.415 TX-002 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RMU-01 11.00 0.00 0.00 1.00 54.82 MVA 2.88 kA -17.7 2.77 -17.6 6.17 kA 2.78 3.93 2.90 Feeder RMU-02 t RMU-02 54.82 MVA 2.88 kA 162.3 2.77 162.4 6.17 kA Tx-001 11/0.415 TX-001 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Harridan Hill Tow 0.41 0.00 0.00 1.00 2.32 MVA 3.22 kA -8.4 3.22 -8.4 5.92 kA 3.22 4.55 3.24 Harridan Hill P Harridan H 2.32 MVA 3.22 kA 171.6 3.22 171.6 5.92 kA 10MCC01 Primary C 0.43 0.00 0.00 1.00 40.68 MVA 54.24 kA -54.2 52.22 -53.8 133.04 kA 52.39 77.37 55.11 10TX01 11/0.433 20MCC04 40.19 MVA 53.59 kA 126.0 52.22 126.2 131.45 kA L-DOL 45kW 0.15 MVA 0.20 kA 118.1 0.00 0.0 0.50 kA VSD/SS 1140kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 108.5kW DOL 0.35 MVA 0.46 kA 110.1 0.00 0.0 1.14 kA 130kW Static 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 15MCC02A Screenin 0.43 0.00 0.00 1.00 39.52 MVA 52.69 kA -54.1 50.36 -53.7 129.09 kA 50.56 74.67 53.53 15TX02A 11/0.43 20MCC04 38.71 MVA 51.61 kA 126.1 50.36 126.3 126.45 kA DOL Wet Sizing 0.41 MVA 0.55 kA 117.0 0.00 0.0 1.34 kA 90kW DOL- 0.41 MVA 0.55 kA 117.0 0.00 0.0 1.34 kA VSD/SS 2400kW - 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 12kW Static 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 15MCC02B Screenin 0.43 0.00 0.00 1.00 39.72 MVA 52.97 kA -54.4 50.34 -53.8 129.60 kA 50.55 74.66 53.80 15Tx02B 11/0.43 20MCC04 38.69 MVA 51.59 kA 126.0 50.34 126.2 126.23 kA L-DOL-90kW 0.43 MVA 0.57 kA 118.3 0.00 0.0 1.40 kA 222kW DOL 0.64 MVA 0.86 kA 107.3 0.00 0.0 2.09 kA VSD/SS 1951kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 53.2kW Static 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20MCC03 Secondary 0.41 0.00 0.00 1.00 50.03 MVA 69.60 kA -54.3 64.20 -53.7 167.98 kA 64.64 95.39 70.60 Feeder Area 15 Area 20 MC 2.04 MVA 2.84 kA 117.2 0.00 0.0 6.86 kA 20Tx03 3500kVA 20MCC04 47.62 MVA 66.25 kA 126.1 64.20 126.3 159.89 kA L-DOL 90kW 0.40 MVA 0.55 kA 118.6 0.00 0.0 1.33 kA VSD/SS 373.8kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 45.3kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 227: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 8 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Area 20 MCC03 20C 0.41 0.00 0.00 1.00 27.96 MVA 38.90 kA -45.2 35.30 -43.8 77.37 kA 35.59 50.34 39.11 Feeder Area 15 20MCC03 Se 25.92 MVA 36.06 kA 136.3 35.30 136.2 71.73 kA L-DOL Lube 2 Co 0.37 MVA 0.52 kA 106.5 0.00 0.0 1.03 kA L-DOL Dust Extr 0.37 MVA 0.52 kA 112.7 0.00 0.0 1.03 kA DOL 74kW 0.28 MVA 0.39 kA 126.8 0.00 0.0 0.78 kA VSD/SS Lump 60k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 3kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 74kW(1) 0.29 MVA 0.40 kA 130.3 0.00 0.0 0.79 kA L-DOL Lube 1 Co 0.39 MVA 0.54 kA 111.7 0.00 0.0 1.07 kA VSD/SS Lump 60k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 3kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 163kW 0.47 MVA 0.66 kA 117.2 0.00 0.0 1.31 kA Static 165.9 kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 310kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Desands Area 15/2 3.30 0.00 0.00 1.00 42.51 MVA 7.44 kA -54.0 7.24 -53.8 18.34 kA 7.25 10.72 7.56 20TX04A 11/3.3k 20MCC04 42.51 MVA 7.44 kA 126.0 7.24 126.2 18.34 kA Secondary Cone 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Secondary Cone 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Rolls Crus 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Rolls Crus 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL4426 Fuel Stora 0.42 0.00 0.00 1.00 5.20 MVA 7.18 kA -14.4 6.38 -12.4 14.09 kA 6.44 9.12 7.22 TF042 33/0.418k PL4003 33k 4.63 MVA 6.40 kA 167.6 6.38 167.6 12.55 kA L-DOL Loading P 0.18 MVA 0.25 kA 157.8 0.00 0.0 0.50 kA 94kW Motor Lump 0.41 MVA 0.57 kA 147.0 0.00 0.0 1.11 kA Static 30A Load 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04B Delta LV 1.90 0.00 0.00 1.00 24.18 MVA 7.33 kA -84.7 7.22 -84.5 18.08 kA 7.23 10.67 7.45 20TX04B 11/1.90 20MCC04 20TX04B St 24.18 MVA 7.33 kA 95.3 7.22 95.5 18.08 kA VSD Load 1300k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04B Star LV 1.90 0.00 0.00 1.00 24.18 MVA 7.33 kA -54.7 7.22 -54.5 18.08 kA 7.23 10.67 7.45 20TX04B 11/1.90 20MCC04 20TX04B De 24.18 MVA 7.33 kA 125.3 7.22 125.5 18.08 kA VSD Load 1300kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04C Delta LV 1.90 0.00 0.00 1.00 24.18 MVA 7.33 kA -84.7 7.22 -84.5 18.08 kA 7.23 10.67 7.45 20TX04C 11/1.90 20MCC04 20TX04C St 24.18 MVA 7.33 kA 95.3 7.22 95.5 18.08 kA VSD 1300kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX04C Star LV 1.90 0.00 0.00 1.00 24.18 MVA 7.33 kA -54.7 7.22 -54.5 18.08 kA 7.23 10.67 7.45 20TX04C 11/1.90 20MCC04 20TX04C De 24.18 MVA 7.33 kA 125.3 7.22 125.5 18.08 kA VSD 1300kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 30MCC05A 0.43 0.00 0.00 1.00 44.09 MVA 58.78 kA -54.3 56.08 -53.7 143.59 kA 56.30 83.13 59.70

Page 228: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 9 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] 30TX05A 11/0.43 20MCC04 43.23 MVA 57.65 kA 126.0 56.08 126.3 140.81 kA L-DOL 110kW 0.36 MVA 0.48 kA 113.3 0.00 0.0 1.17 kA DOL 181kW 0.53 MVA 0.70 kA 108.2 0.00 0.0 1.72 kA VSD/SS 1705kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 55kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 30MCC05B 0.43 0.00 0.00 1.00 40.99 MVA 54.65 kA -54.6 50.36 -53.8 131.38 kA 50.72 74.77 55.41 30TX05B 11/0.43 20MCC04 38.70 MVA 51.60 kA 126.0 50.36 126.2 124.05 kA L-DOL 150kW 0.40 MVA 0.53 kA 107.3 0.00 0.0 1.27 kA DOL 587kW 1.94 MVA 2.58 kA 116.4 0.00 0.0 6.21 kA VSD/SS 325kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 595kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 12TX203 HV 11.00 0.00 0.00 1.00 423.55 MVA 22.23 kA -64.6 17.39 -67.4 40.84 kA 17.79 25.16 20.41 Feeder 20MCC206 OPF2 SS 423.31 MVA 22.22 kA 115.4 17.39 112.6 40.82 kA 12TX203 11/0.43 Reclaim Tu 0.26 MVA 0.01 kA 96.5 0.00 0.0 0.02 kA Reclaim Tunnel Ar 0.43 0.00 0.00 1.00 32.51 MVA 43.35 kA -52.8 42.11 -52.7 103.81 kA 42.21 61.02 43.94 12TX203 11/0.43 12TX203 HV 32.25 MVA 43.00 kA 127.2 42.11 127.3 102.98 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL 22kW Conv 0.10 MVA 0.13 kA 129.6 0.00 0.0 0.31 kA DOL 44kW 0.16 MVA 0.22 kA 126.4 0.00 0.0 0.52 kA VSD/SS 528kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 191.93kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 15TX204A HV 11.00 0.00 0.00 1.00 491.34 MVA 25.79 kA -71.6 19.42 -72.9 52.78 kA 19.94 28.22 23.48 Feeder 20MCC206 OPF2 SS 490.49 MVA 25.74 kA 108.5 19.42 107.1 52.69 kA 15TX204A 11/0.4 15TX204A S 0.91 MVA 0.05 kA 86.4 0.00 0.0 0.10 kA 15TX204A Scrubber 0.43 0.00 0.00 1.00 38.01 MVA 50.68 kA -53.5 48.26 -53.1 122.18 kA 48.46 70.59 51.40 15TX204A 11/0.4 15TX204A H 37.06 MVA 49.41 kA 126.8 48.26 126.9 119.13 kA L-DOL 90kW(1) 0.42 MVA 0.56 kA 120.0 0.00 0.0 1.35 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 2474kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA DOL 193kW 0.54 MVA 0.72 kA 117.5 0.00 0.0 1.74 kA 12TX204B HV 11.00 0.00 0.00 1.00 488.12 MVA 25.62 kA -71.2 19.33 -72.7 52.13 kA 19.84 28.07 23.33 Feeder 20MCC206 OPF2 SS 487.12 MVA 25.57 kA 108.8 19.33 107.3 52.03 kA 12TX204B 11/0.4 12TX204B S 1.07 MVA 0.06 kA 87.2 0.00 0.0 0.11 kA 12TX204B Scrubber 0.43 0.00 0.00 1.00 39.33 MVA 52.43 kA -53.4 49.72 -53.0 125.83 kA 49.95 72.66 53.16 12TX204B 11/0.4 12TX204B H 38.21 MVA 50.95 kA 126.8 49.72 127.0 122.27 kA L-DOL- 90kW 0.43 MVA 0.57 kA 123.1 0.00 0.0 1.37 kA DOL Lumped 225. 0.70 MVA 0.93 kA 116.4 0.00 0.0 2.23 kA Static 140.30kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD 1905kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 229: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 10 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] 20TX205 HV 11.00 0.00 0.00 1.00 567.04 MVA 29.76 kA -80.4 21.58 -79.5 72.44 kA 22.25 33.61 27.09 Feeder 20MCC206 OPF2 SS 564.87 MVA 29.65 kA 99.6 21.58 100.5 72.16 kA 20TX205 11/0.43 Secondary 2.18 MVA 0.11 kA 95.2 0.00 0.0 0.28 kA Secondary & Terti 0.43 0.00 0.00 1.00 45.46 MVA 60.62 kA -53.9 55.95 -53.7 146.73 kA 56.33 83.16 61.50 20TX205 11/0.43 20TX205 HV 43.12 MVA 57.50 kA 126.1 55.95 126.3 139.18 kA L-DOL 150kW Con 0.42 MVA 0.55 kA 113.3 0.00 0.0 1.34 kA Staic 24kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL 37kW 0.25 MVA 0.34 kA 136.6 0.00 0.0 0.81 kA Lumped DOL 34kW 0.23 MVA 0.30 kA 132.8 0.00 0.0 0.73 kA VSD/SS 574kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 254.37kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL 37kW 0.25 MVA 0.34 kA 136.6 0.00 0.0 0.81 kA Lumped DOL 56kW 0.20 MVA 0.27 kA 129.3 0.00 0.0 0.66 kA VSD/SS 60kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 230.4kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL - 37kW 0.25 MVA 0.34 kA 136.6 0.00 0.0 0.81 kA Lumped DOL- 56k 0.20 MVA 0.27 kA 129.3 0.00 0.0 0.66 kA VSD/SS - 60kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static - 230.4k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL -132kW 0.40 MVA 0.54 kA 114.4 0.00 0.0 1.30 kA Lumped DOL 45kW 0.17 MVA 0.22 kA 130.2 0.00 0.0 0.53 kA VSD/SS - 60kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 564kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206A HV 11.00 0.00 0.00 1.00 567.86 MVA 29.81 kA -80.7 21.60 -79.7 73.02 kA 22.28 34.04 27.15 Feeder 20MCC206 OPF2 SS 567.86 MVA 29.81 kA 99.3 21.60 100.3 73.02 kA 20TX206A 11/3.3 20TX206A L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206A LV 3.30 0.00 0.00 1.00 54.40 MVA 9.52 kA -53.7 9.20 -53.4 23.48 kA 9.23 13.65 9.68 20TX206A 11/3.3 20TX206A H 54.40 MVA 9.52 kA 126.3 9.20 126.6 23.48 kA Feeder 20TX206A 20MCC206B 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Master 20TX2 11.00 0.00 0.00 1.00 567.00 MVA 29.76 kA -80.4 21.58 -79.5 72.42 kA 22.25 33.61 27.09 Feeder 20MCC206 OPF2 SS 567.00 MVA 29.76 kA 99.6 21.58 100.5 72.42 kA 20TX206B 11/1.9 20TX206B L 20TX206B L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206B LV Delta 1.90 0.00 0.00 1.00 22.27 MVA 6.75 kA -84.8 6.66 -84.6 16.65 kA 6.66 9.84 6.86 20TX206B 11/1.9 HPGR Maste 20TX206B L 22.27 MVA 6.75 kA 95.2 6.66 95.4 16.65 kA HPGR Master VSD 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206B LV Star 1.90 0.00 0.00 1.00 22.27 MVA 6.75 kA -54.8 6.66 -54.6 16.65 kA 6.66 9.84 6.86 20TX206B 11/1.9 HPGR Maste 20TX206B L 22.27 MVA 6.75 kA 125.2 6.66 125.4 16.65 kA HPGR Master VSD 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 230: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 11 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] HPGR Follower 20T 11.00 0.00 0.00 1.00 567.00 MVA 29.76 kA -80.4 21.58 -79.5 72.42 kA 22.25 33.61 27.09 Feeder 20MCC206 OPF2 SS 567.00 MVA 29.76 kA 99.6 21.58 100.5 72.42 kA 20TX206C 1kv/2x 20TX206C L 20TX206C L 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206C LV Delta 1.90 0.00 0.00 1.00 22.27 MVA 6.75 kA -84.8 6.66 -84.6 16.65 kA 6.66 9.84 6.86 20TX206C 1kv/2x HPGR Follo 20TX206C L 22.27 MVA 6.75 kA 95.2 6.66 95.4 16.65 kA HPGR Follower V 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20TX206C LV Star 1.90 0.00 0.00 1.00 22.27 MVA 6.75 kA -54.8 6.66 -54.6 16.65 kA 6.66 9.84 6.86 20TX206C 1kv/2x HPGR Follo 20TX206C L 22.27 MVA 6.75 kA 125.2 6.66 125.4 16.65 kA HPGR Follower V 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Desands 30TX207A 11.00 0.00 0.00 1.00 418.77 MVA 21.98 kA -64.2 17.23 -67.0 40.13 kA 17.62 24.92 20.19 Feeder 20MCC206 OPF2 SS 417.69 MVA 21.92 kA 115.9 17.23 113.0 40.03 kA 30TX207A 11/0.4 30TX207A L 1.26 MVA 0.07 kA 85.3 0.00 0.0 0.12 kA 30TX207A LV 0.41 0.00 0.00 1.00 36.41 MVA 50.65 kA -52.9 47.77 -52.4 119.28 kA 48.01 69.17 51.27 30TX207A 11/0.4 Desands 30 35.15 MVA 48.91 kA 127.5 47.77 127.6 115.19 kA L-DOL 110kW 0.35 MVA 0.48 kA 115.2 0.00 0.0 1.14 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 310. 0.92 MVA 1.29 kA 117.2 0.00 0.0 3.03 kA VSD/SS 2345kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Load 34. 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Desands 30TX207B 11.00 0.00 0.00 1.00 418.80 MVA 21.98 kA -64.2 17.23 -67.0 40.14 kA 17.62 24.92 20.19 30TX207B 11/0.4 30TX207B L 1.37 MVA 0.07 kA 87.0 0.00 0.0 0.13 kA Feeder 20MCC206 OPF2 SS 417.60 MVA 21.92 kA 115.9 17.23 113.0 40.03 kA 30TX207B LV 0.43 0.00 0.00 1.00 39.25 MVA 52.34 kA -52.8 49.23 -52.3 123.08 kA 49.49 71.26 52.97 30TX207B 11/0.4 Desands 30 37.83 MVA 50.44 kA 127.5 49.23 127.7 118.62 kA L-DOL 110kW 0.37 MVA 0.49 kA 117.3 0.00 0.0 1.15 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 343. 1.07 MVA 1.43 kA 118.3 0.00 0.0 3.36 kA Static 190.60kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VSD/SS 696kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Desands 30TX207C 11.00 0.00 0.00 1.00 419.09 MVA 22.00 kA -64.3 17.23 -67.0 40.23 kA 17.62 24.92 20.20 Feeder 20MCC206 OPF2 SS 417.07 MVA 21.89 kA 115.9 17.23 113.0 40.04 kA 30TX207C 11/0.4 30TX207C L 2.31 MVA 0.12 kA 86.9 0.00 0.0 0.22 kA 30TX207C LV 0.43 0.00 0.00 1.00 39.12 MVA 52.16 kA -53.2 47.75 -52.4 122.76 kA 48.11 69.39 52.79 30TX207C 11/0.4 Desands 30 36.66 MVA 48.89 kA 127.5 47.75 127.6 115.06 kA L-DOL 120kW 0.43 MVA 0.57 kA 112.0 0.00 0.0 1.35 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 489k 2.06 MVA 2.75 kA 118.9 0.00 0.0 6.46 kA VSD/SS Load 110 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA

Page 231: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 12 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Static 45.77kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Jigging 35TX208A 11.00 0.00 0.00 1.00 476.25 MVA 25.00 kA -70.1 18.95 -71.6 49.82 kA 19.45 27.51 22.78 Feeder 20MCC206 OPF2 SS 472.47 MVA 24.80 kA 110.1 18.95 108.4 49.43 kA 35TX208A 11/0.4 Jigging 35 4.07 MVA 0.21 kA 88.3 0.00 0.0 0.43 kA Jigging 35TX208A 0.43 0.00 0.00 1.00 41.53 MVA 55.37 kA -54.0 48.13 -53.0 129.24 kA 48.73 70.68 56.01 35TX208A 11/0.4 Jigging 35 36.95 MVA 49.27 kA 126.8 48.13 127.0 115.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA L-DOL -110kW 0.37 MVA 0.49 kA 117.8 0.00 0.0 1.15 kA Lumped DOL 1009 4.25 MVA 5.66 kA 119.1 0.00 0.0 13.21 kA VSD/SS Load 580 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 80.83kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Jigging 35TX208B 11.00 0.00 0.00 1.00 476.33 MVA 25.00 kA -70.1 18.96 -71.6 49.89 kA 19.46 27.52 22.79 Feeder 20MCC206 OPF2 SS 472.46 MVA 24.80 kA 110.1 18.96 108.4 49.49 kA 35TX208B 11/0.4 Jigging 35 4.28 MVA 0.22 kA 84.6 0.00 0.0 0.45 kA Jigging 35TX208B 0.43 0.00 0.00 1.00 48.47 MVA 64.63 kA -54.1 56.73 -52.7 148.94 kA 57.38 82.92 65.33 35TX208B 11/0.4 Jigging 35 43.72 MVA 58.30 kA 127.1 56.73 127.3 134.34 kA L-DOL - 150kW 0.42 MVA 0.56 kA 118.6 0.00 0.0 1.30 kA Lumped-DOL 1599 4.43 MVA 5.90 kA 114.7 0.00 0.0 13.60 kA VSD/SS 662 kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 80.83 kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 35TX208C HV 11.00 0.00 0.00 1.00 475.41 MVA 24.95 kA -69.9 18.95 -71.6 49.69 kA 19.44 27.50 22.75 Feeder 20MCC206 OPF2 SS 474.29 MVA 24.89 kA 110.1 18.95 108.4 49.57 kA 35TX208C 11/0.4 35TX208C L 1.15 MVA 0.06 kA 96.8 0.00 0.0 0.12 kA 35TX208C LV 0.43 0.00 0.00 1.00 29.44 MVA 39.25 kA -53.4 36.96 -53.4 94.90 kA 37.15 54.21 39.82 35TX208C 11/0.4 35TX208C H 28.24 MVA 37.65 kA 126.5 36.96 126.6 91.03 kA L-DOL 150kW 0.68 MVA 0.90 kA 127.7 0.00 0.0 2.18 kA Lumped DOL - 14 0.53 MVA 0.70 kA 127.0 0.00 0.0 1.70 kA VSD/SS 320kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 20MCC206B 3.30 0.00 0.00 1.00 54.39 MVA 9.52 kA -53.7 9.20 -53.3 23.47 kA 9.22 13.64 9.68 Feeder 20TX206A 20TX206A L 54.39 MVA 9.52 kA 126.3 9.20 126.7 23.47 kA Feed to Cone Cr Cone Crush 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Master VSD 2 0.69 0.00 0.00 1.00 15.63 MVA 13.08 kA -48.3 12.95 -48.2 27.59 kA 12.96 18.34 13.17 20TX207D 3.3kV/ Tails Pump HPGR Maste 15.63 MVA 13.08 kA 131.7 12.95 131.8 27.59 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Master Star 0.69 0.00 0.00 1.00 15.63 MVA 13.08 kA -18.3 12.95 -18.2 27.59 kA 12.96 18.34 13.17

Page 232: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 13 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] 20TX207D 3.3kV/ Tails Pump HPGR Maste 15.63 MVA 13.08 kA 161.7 12.95 161.8 27.59 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Follower Del 0.69 0.00 0.00 1.00 15.61 MVA 13.06 kA -48.2 12.94 -48.2 27.53 kA 12.95 18.32 13.15 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.61 MVA 13.06 kA 131.8 12.94 131.8 27.53 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 11MCC202C OLC MCC 0.41 0.00 0.00 1.00 9.67 MVA 13.46 kA 2.3 12.04 3.8 31.05 kA 12.16 17.56 13.60 11TX202C 700/43 11MCC202B 8.70 MVA 12.11 kA -176.3 12.04 -176.2 27.94 kA L-DOL - 150kW 0.34 MVA 0.47 kA 158.4 0.00 0.0 1.08 kA Lumped DOL 219. 0.67 MVA 0.93 kA 176.6 0.00 0.0 2.14 kA VSD 26kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static 487.87 k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA EPCM Office 0.41 0.00 0.00 1.00 9.29 MVA 12.92 kA -38.6 12.70 -38.5 23.99 kA 12.72 17.98 12.97 MCC902-P-02 Sub018 9.29 MVA 12.92 kA 141.4 12.70 141.5 23.99 kA 105.3kW Load 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Laboratory 0.41 0.00 0.00 1.00 9.26 MVA 12.89 kA -38.8 12.67 -38.7 23.93 kA 12.69 17.94 12.94 MCC902-P-03 Sub018 9.26 MVA 12.89 kA 141.2 12.67 141.3 23.93 kA Cone Crushers 3.3 3.30 0.00 0.00 1.00 52.46 MVA 9.18 kA -50.4 8.88 -50.2 21.13 kA 8.91 12.69 9.28 Feed to Cone Cr 20MCC206B 52.46 MVA 9.18 kA 129.6 8.88 129.8 21.13 kA Cone Crushers 2 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Tails Pump D 3.3 3.30 0.00 0.00 1.00 37.90 MVA 6.63 kA -34.8 6.48 -35.0 11.79 kA 6.49 9.18 6.66 20TX207D 3.3kV/ HPGR Maste HPGR Maste 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 20MCC206B 37.90 MVA 6.63 kA 145.2 6.48 145.0 11.79 kA Tails Pump E 3.3k 3.30 0.00 0.00 1.00 37.78 MVA 6.61 kA -34.7 6.46 -34.9 11.74 kA 6.47 9.15 6.63 20TX207E 3.3kV/ HPGR Follo HPGR Follo 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder 20MCC206 20MCC206B 37.78 MVA 6.61 kA 145.3 6.46 145.1 11.74 kA HPGR Main Motor 2 0.69 0.00 0.00 1.00 15.30 MVA 12.81 kA -17.1 12.68 -17.0 26.46 kA 12.69 17.96 12.89 Feeder HPGR Mas HPGR Maste 15.30 MVA 12.81 kA 162.9 12.68 163.0 26.46 kA HPGR Main B Mot 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Main Motor 2 0.69 0.00 0.00 1.00 15.30 MVA 12.81 kA -47.1 12.68 -47.0 26.46 kA 12.69 17.96 12.89 Feeder HPGR Mas HPGR Maste 15.30 MVA 12.81 kA 132.9 12.68 133.0 26.46 kA HPGR Main Motor 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Follower Mot 0.69 0.00 0.00 1.00 15.29 MVA 12.79 kA -47.0 12.67 -47.0 26.40 kA 12.68 17.94 12.87 Feeder HPGR Fol HPGR Follo 15.29 MVA 12.79 kA 133.0 12.67 133.0 26.40 kA MPGR Follower M 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Follower Mot 0.69 0.00 0.00 1.00 15.29 MVA 12.79 kA -17.0 12.67 -17.0 26.40 kA 12.68 17.94 12.87

Page 233: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 14 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Feeder HPGR Fol HPGR Follo 15.29 MVA 12.79 kA 163.0 12.67 163.0 26.40 kA MPGR Follower M 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL10XX (Fuel Unlo 33.00 0.00 0.00 1.00 193.93 MVA 3.39 kA -46.9 2.99 -46.8 7.39 kA 3.02 4.28 3.42 Feeder TF001 to RMU001 193.41 MVA 3.38 kA 133.1 2.99 133.2 7.37 kA Feeder from OHL Tx HV Fuel 0.52 MVA 0.01 kA 129.0 0.00 0.0 0.02 kA Feeder TF001 to PL10062 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Fuel Unload RCDOS 0.41 0.00 0.00 1.00 3.37 MVA 4.69 kA -0.4 3.91 5.1 8.07 kA 3.97 5.62 4.70 150mm Cu XLPE 4 Tx LV Fuel 2.81 MVA 3.92 kA -174.9 3.91 -174.9 6.74 kA L-DOL 30kW(1) 0.18 MVA 0.25 kA 158.3 0.00 0.0 0.43 kA 120kW Lumped 0.45 MVA 0.63 kA 152.4 0.00 0.0 1.08 kA Static 8kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL10062 33.00 0.00 0.00 1.00 175.88 MVA 3.08 kA -44.6 2.74 -44.7 6.41 kA 2.77 3.92 3.10 Feeder PL10062 PL1075 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder TF001 to PL10XX (Fu 175.88 MVA 3.08 kA 135.4 2.74 135.3 6.41 kA Feeder PL10062 TF004 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL1075 33.00 0.00 0.00 1.00 162.47 MVA 2.84 kA -42.9 2.55 -43.2 5.74 kA 2.58 3.64 2.86 Feeder PL10062 PL10062 162.47 MVA 2.84 kA 137.1 2.55 136.8 5.74 kA Feeder PL1075 t PL1081 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL1075 t Constructi 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL1081 33.00 0.00 0.00 1.00 148.03 MVA 2.59 kA -41.1 2.35 -41.5 5.07 kA 2.37 3.35 2.60 Feeder PL1075 t PL1075 148.03 MVA 2.59 kA 138.9 2.35 138.5 5.07 kA Feeder PL1081 t Kandama Vi 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder OHL to H Harridan H 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF004 HV 33.00 0.00 0.00 1.00 175.80 MVA 3.08 kA -44.5 2.74 -44.7 6.40 kA 2.77 3.92 3.10 Feeder PL10062 PL10062 175.80 MVA 3.08 kA 135.5 2.74 135.3 6.40 kA TF004 100kvA 33 SWB004 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL4004 OLC A 33.00 0.00 0.00 1.00 147.70 MVA 2.58 kA -40.5 2.34 -40.7 5.04 kA 2.36 3.33 2.60 Feeder RMU010 t PL4003 33k 146.23 MVA 2.56 kA 139.8 2.34 139.3 4.99 kA Feeder PL4004 t REC031 OLC 0.43 MVA 0.01 kA 105.7 0.00 0.0 0.01 kA OHL PL4004 to P PL4005 OLC 1.19 MVA 0.02 kA 119.0 0.00 0.0 0.04 kA REC031 OLC 33.00 0.00 0.00 1.00 146.12 MVA 2.56 kA -39.9 2.31 -40.2 4.95 kA 2.33 3.30 2.57 Feeder PL4004 t PL4004 OLC 145.48 MVA 2.55 kA 140.3 2.31 140.0 4.93 kA 11TX202A 33/0.7 11TX202A L 0.92 MVA 0.02 kA 94.2 0.01 84.0 0.03 kA REC032 OLC 33.00 0.00 0.00 1.00 146.00 MVA 2.55 kA -39.9 2.31 -40.2 4.94 kA 2.33 3.30 2.57 Feeder PL4005 t PL4005 OLC 145.34 MVA 2.54 kA 140.3 2.31 140.0 4.92 kA 11TX202B 33/0.7 11TX202B L 0.94 MVA 0.02 kA 94.7 0.01 85.3 0.03 kA

Page 234: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 15 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] PL5059 33.00 0.00 0.00 1.00 122.49 MVA 2.14 kA -37.6 1.97 -37.9 3.99 kA 1.98 2.80 2.15 OHL PL5043 to P PL5043 121.74 MVA 2.13 kA 142.5 1.97 142.1 3.97 kA PL5059 to REC03 REC037 0.78 MVA 0.01 kA 126.4 0.00 0.0 0.03 kA PL5043 33.00 0.00 0.00 1.00 126.82 MVA 2.22 kA -38.1 2.03 -38.4 4.16 kA 2.05 2.89 2.23 OHL PL5028 to P PL5028 126.07 MVA 2.21 kA 142.0 2.03 141.6 4.14 kA Feeder PL5043 t TF035 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL5043 to P PL5059 0.78 MVA 0.01 kA 126.4 0.00 0.0 0.03 kA PL5028 33.00 0.00 0.00 1.00 131.46 MVA 2.30 kA -38.6 2.10 -38.9 4.35 kA 2.12 2.99 2.31 OHL PL5005 to P PL5005 130.71 MVA 2.29 kA 141.5 2.10 141.1 4.33 kA Feeder PL5028 t TF034 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL5028 to P PL5043 0.78 MVA 0.01 kA 126.3 0.00 0.0 0.03 kA PL5005 33.00 0.00 0.00 1.00 136.45 MVA 2.39 kA -39.2 2.17 -39.5 4.56 kA 2.19 3.10 2.40 OHL PL5005 to P PL5028 0.78 MVA 0.01 kA 126.3 0.00 0.0 0.03 kA OHL PL4007 to P PL4007 135.70 MVA 2.37 kA 140.9 2.17 140.5 4.53 kA Feeder PL5005 t TF033 HV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PL4007 33.00 0.00 0.00 1.00 141.81 MVA 2.48 kA -39.8 2.25 -40.1 4.79 kA 2.27 3.21 2.49 OHL PL4005 to P PL4005 OLC 141.05 MVA 2.47 kA 140.3 2.25 139.9 4.76 kA OHL PL4007 to P PL4008 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL4007 to P PL5005 0.78 MVA 0.01 kA 126.3 0.00 0.0 0.03 kA PL4005 OLC B 33.00 0.00 0.00 1.00 147.59 MVA 2.58 kA -40.5 2.33 -40.7 5.04 kA 2.35 3.33 2.60 Feeder PL4005 t REC032 OLC 0.46 MVA 0.01 kA 105.9 0.00 108.3 0.02 kA OHL PL4004 to P PL4004 OLC 146.45 MVA 2.56 kA 139.7 2.33 139.3 5.00 kA OHL PL4005 to P PL4007 0.78 MVA 0.01 kA 126.3 0.00 0.0 0.03 kA PL4008 33.00 0.00 0.00 1.00 134.22 MVA 2.35 kA -37.6 2.14 -38.0 4.39 kA 2.16 3.05 2.36 OHL PL4007 to P PL4007 134.22 MVA 2.35 kA 142.4 2.14 142.0 4.39 kA OHL PL4008 to O Ops Office 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL4008 t PL4017 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF033 HV 33.00 0.00 0.00 1.00 135.22 MVA 2.37 kA -38.7 2.15 -39.1 4.49 kA 2.17 3.07 2.38 TF033 33/0.433k TF033 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL5005 t PL5005 135.22 MVA 2.37 kA 141.3 2.15 140.9 4.49 kA TF034 HV 33.00 0.00 0.00 1.00 130.32 MVA 2.28 kA -38.2 2.08 -38.5 4.29 kA 2.10 2.97 2.29 TF034 33/0.433k TF034 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL5028 t PL5028 130.32 MVA 2.28 kA 141.8 2.08 141.5 4.29 kA TF035 HV 33.00 0.00 0.00 1.00 125.75 MVA 2.20 kA -37.7 2.02 -38.0 4.11 kA 2.03 2.87 2.21 TF035 33/0.433k TF035 LV 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL5043 t PL5043 125.75 MVA 2.20 kA 142.3 2.02 142.0 4.11 kA

Page 235: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 16 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] TF033 LV 0.43 0.00 0.00 1.00 27.02 MVA 36.03 kA -20.8 35.34 -20.6 80.61 kA 35.40 50.22 36.36 TF033 33/0.433k TF033 HV 27.02 MVA 36.03 kA 159.2 35.34 159.4 80.61 kA TF034 LV 0.43 0.00 0.00 1.00 26.83 MVA 35.77 kA -20.6 35.09 -20.5 79.72 kA 35.15 49.84 36.09 TF034 33/0.433k TF034 HV 26.83 MVA 35.77 kA 159.4 35.09 159.5 79.72 kA 10TX201 HV 33.00 0.00 0.00 1.00 117.39 MVA 2.05 kA -36.4 1.89 -36.9 3.77 kA 1.90 2.69 2.06 Feeder REC037 t REC037 116.65 MVA 2.04 kA 143.7 1.89 143.1 3.74 kA 10TX201 33/0.43 Primary Cr 0.78 MVA 0.01 kA 126.4 0.00 0.0 0.02 kA Primary Crushing 0.41 0.00 0.00 1.00 26.74 MVA 37.21 kA -21.2 35.48 -21.0 84.03 kA 35.62 50.63 37.56 10TX201 33/0.43 10TX201 HV 25.96 MVA 36.12 kA 158.8 35.48 159.0 81.57 kA L-DOL 30kW - 10 0.18 MVA 0.25 kA 158.7 0.00 0.0 0.58 kA VSD/SS Lumped 1 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Load 329 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Lumped DOL 177. 0.60 MVA 0.84 kA 158.8 0.00 0.0 1.89 kA REC037 33.00 0.00 0.00 1.00 118.43 MVA 2.07 kA -37.1 1.91 -37.5 3.83 kA 1.92 2.71 2.08 Feeder REC037 t 10TX201 HV 0.78 MVA 0.01 kA 126.4 0.00 0.0 0.03 kA PL5059 to REC03 PL5059 117.69 MVA 2.06 kA 143.0 1.91 142.5 3.81 kA LV DB Constructio 0.41 0.00 0.00 1.00 36.19 MVA 50.35 kA -19.8 49.11 -19.7 111.93 kA 49.21 69.78 50.80 TF011 33/0.418k Constructi 36.19 MVA 50.35 kA 160.2 49.11 160.3 111.93 kA CC Load 450kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA LV SUB012 0.41 0.00 0.00 1.00 36.19 MVA 50.35 kA -19.8 49.11 -19.7 111.92 kA 49.21 69.78 50.80 TF012 33/0.418k RMU012/SUB 36.19 MVA 50.35 kA 160.2 49.11 160.3 111.92 kA CC Load 2 450kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Construction Camp 33.00 0.00 0.00 1.00 133.25 MVA 2.33 kA -34.7 2.14 -35.7 4.18 kA 2.15 3.04 2.34 TF011 33/0.418k LV DB Cons 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder RMU011 t RMU012/SUB 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder PL1075 t PL1075 133.25 MVA 2.33 kA 145.3 2.14 144.3 4.18 kA Gatehouse RMU 33.00 0.00 0.00 1.00 209.88 MVA 3.67 kA -44.7 3.20 -44.9 7.72 kA 3.24 4.59 3.70 Gatehouse 33/0. Gatehouse 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Feeder RMU001 t RMU001 209.88 MVA 3.67 kA 135.3 3.20 135.1 7.72 kA Gatehouse TX LV 0.43 0.00 0.00 1.00 22.12 MVA 29.50 kA -26.1 29.06 -25.9 74.31 kA 29.09 44.19 30.09 Gatehouse 33/0. Gatehouse 22.12 MVA 29.50 kA 153.9 29.06 154.1 74.31 kA Ops Office 33kV 33.00 0.00 0.00 1.00 133.49 MVA 2.34 kA -37.4 2.13 -37.8 4.35 kA 2.15 3.04 2.35 Ops Office 33/0 Ops Office 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA OHL PL4008 to O PL4008 133.49 MVA 2.34 kA 142.6 2.13 142.2 4.35 kA PL4017 33.00 0.00 0.00 1.00 133.71 MVA 2.34 kA -37.5 2.13 -38.0 4.37 kA 2.15 3.04 2.35

Page 236: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 17 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Feeder PL4008 t PL4008 133.71 MVA 2.34 kA 142.5 2.13 142.0 4.37 kA Feeder PL4017 t RMU017 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA SK703-TF01 Stacke 0.43 0.00 0.00 1.00 25.43 MVA 33.91 kA -52.6 30.91 -51.8 79.07 kA 31.16 44.72 34.30 SK703-TF01 11/0 SK703-TF01 23.54 MVA 31.38 kA 128.1 30.91 128.2 73.18 kA L-DOL 250kW 0.94 MVA 1.25 kA 115.3 0.00 0.0 2.91 kA 288.3kW Lumped 0.99 MVA 1.31 kA 122.2 0.00 0.0 3.07 kA Static Load - 1 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA VVF Lumped 49kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA SK703-TF01 TX HV 11.00 0.00 0.00 1.00 333.60 MVA 17.51 kA -48.4 14.58 -53.3 27.42 kA 14.82 20.96 17.55 SK703-TF01 11/0 SK703-TF01 1.75 MVA 0.09 kA 88.5 0.00 0.0 0.14 kA Feeder to SK703 HV901 332.32 MVA 17.44 kA 131.8 14.58 126.7 27.31 kA RMU012/SUB012 33.00 0.00 0.00 1.00 133.22 MVA 2.33 kA -34.7 2.14 -35.7 4.18 kA 2.15 3.04 2.34 Feeder RMU011 t Constructi 133.22 MVA 2.33 kA 145.3 2.14 144.3 4.18 kA TF012 33/0.418k LV SUB012 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA RC031-MC02 Reclai 0.41 0.00 0.00 1.00 23.44 MVA 32.61 kA -51.7 32.11 -51.6 76.44 kA 32.15 45.99 33.00 RC031-TF01 11kV RC031 Recl 23.43 MVA 32.60 kA 128.4 32.11 128.4 76.40 kA 4kW Motor 0.01 MVA 0.02 kA 110.8 0.00 0.0 0.04 kA VSD/SS 920.55kW 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Static Loads - 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA PS Services 0.43 0.00 0.00 1.00 19.35 MVA 25.80 kA -45.2 25.48 -45.2 53.49 kA 25.50 36.08 25.97 TF005 11/0.433k PowerStati 19.35 MVA 25.80 kA 134.8 25.48 134.8 53.49 kA Lumped Load 63k 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA Kandama Village R 33.00 0.00 0.00 1.00 142.64 MVA 2.50 kA -40.4 2.27 -40.9 4.84 kA 2.29 3.24 2.51 Feeder PL1081 t PL1081 142.64 MVA 2.50 kA 139.6 2.27 139.1 4.84 kA 08TF002 33/11kV RMU-05 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 11MCC202B 690V 0.69 0.00 0.00 1.00 73.06 MVA 61.13 kA -16.0 57.63 -15.6 128.71 kA 57.92 81.96 61.56 11TX202C 700/43 11MCC202C 0.88 MVA 0.73 kA 137.7 0.00 0.0 1.55 kA Bustie 11MCC202 11MCC202A 36.14 MVA 30.24 kA 164.3 28.82 164.4 63.68 kA Feeder to OLC D 11TX202B L 36.13 MVA 30.23 kA 164.3 28.81 164.4 63.65 kA OLC Drive 4 Sto 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 11MCC202A 690V 0.69 0.00 0.00 1.00 73.06 MVA 61.13 kA -16.0 57.63 -15.6 128.71 kA 57.92 81.96 61.56 Bustie 11MCC202 11MCC202B 36.92 MVA 30.89 kA 163.7 28.81 164.4 65.04 kA Feeder to OLC D 11TX202A L 36.14 MVA 30.24 kA 164.3 28.82 164.4 63.68 kA Overland Convey 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA TF035 LV 0.41 0.00 0.00 1.00 25.53 MVA 35.51 kA -20.4 34.84 -20.3 78.85 kA 34.90 49.48 35.83 TF035 33/0.433k TF035 HV 25.53 MVA 35.51 kA 159.6 34.84 159.7 78.85 kA

Page 237: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 18 rtd.V. Voltage c- Sk" Ik" Ik' ip Ib ib Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA] [deg] [kA/kA] [kA] [kA] [kA] Ops Office 415V 0.41 0.00 0.00 1.00 4.46 MVA 6.21 kA -12.6 6.19 -12.6 12.01 kA 6.19 8.75 6.24 Ops Office 33/0 Ops Office 4.46 MVA 6.21 kA 167.4 6.19 167.4 12.01 kA Ops Office Load 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA HPGR Follower Sta 0.69 0.00 0.00 1.00 15.61 MVA 13.06 kA -18.2 12.94 -18.2 27.53 kA 12.95 18.32 13.15 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.61 MVA 13.06 kA 161.8 12.94 161.8 27.53 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.0 0.00 0.0 0.00 kA 11TX202B LV 0.69 0.00 0.00 1.00 74.12 MVA 62.02 kA -16.6 58.52 -16.2 131.62 kA 58.81 83.25 62.46 Feeder to OLC D 11MCC202B 29.72 MVA 24.87 kA 165.4 23.19 166.2 52.78 kA 11TX202B 33/0.7 REC032 OLC 44.43 MVA 37.17 kA 162.0 35.36 162.2 78.89 kA 11TX202A LV 0.69 0.00 0.00 1.00 74.12 MVA 62.02 kA -16.6 58.53 -16.2 131.64 kA 58.82 83.26 62.47 11TX202A 33/0.7 REC031 OLC 44.44 MVA 37.19 kA 162.0 35.38 162.2 78.93 kA Feeder to OLC D 11MCC202A 29.71 MVA 24.86 kA 165.4 23.19 166.2 52.77 kA TX-003 LV 0.41 0.00 0.00 1.00 14.19 MVA 19.74 kA 7.8 19.54 7.8 45.70 kA 19.56 27.89 19.96 Tx-003 11/0.415 RMU-03 14.19 MVA 19.74 kA -172.2 19.54 -172.2 45.70 kA TX-002 LV 0.41 0.00 0.00 1.00 14.17 MVA 19.72 kA 7.9 19.52 7.9 45.55 kA 19.53 27.84 19.93 Tx-002 11/0.415 RMU-02 14.17 MVA 19.72 kA -172.1 19.52 -172.1 45.55 kA TX-001 LV 0.41 0.00 0.00 1.00 14.15 MVA 19.69 kA 7.9 19.49 8.0 45.41 kA 19.51 27.79 19.90 Tx-001 11/0.415 RMU-01 14.15 MVA 19.69 kA -172.1 19.49 -172.0 45.41 kA Waste Water Treat 0.41 0.00 0.00 1.00 14.21 MVA 19.77 kA 7.7 19.57 7.7 45.85 kA 19.59 27.94 19.99 Tx-004 11/0.415 RMU-04 14.21 MVA 19.77 kA -172.3 19.57 -172.3 45.85 kA

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105

D.4 Short Circuit SC-4

The short circuit simulations performed in SC-4 have been conducted with 20 generators in

service, where the load has been ignored due to the difficulty of adjusting the loads evenly.

These calculations are performed using the complete method with a voltage factor selected to

simulate the under and over voltage situations at each bus.

SC-4 Minimum 3 Phase Short-Circuit Fault Currents

The results for scenario SC-4 for the minimum short circuit currents at busbars greater than

1000 volts with a voltage factor of 0.95 can be seen in Table 5.2.3 below. The components

listed are all cable feeders, meaning that the fault current flowing through them in the event

of a balanced three phase short circuit is greater than 80% of their thermal rating.

The highest loading of current occurs on the downstream feeders from HV901 stockyard bus

with 266.10%. The overloaded cables are not a concern at this stage of analysis, although this

is something to note that with proper protection devices in place using overcurrent protection

will allow for these to not appear on the results section as the current will be interrupted

before reaching high magnitudes that exceed the cable damage curve.

It can be seen that having two cables in parallel in the case of HV901 to CV601 and HV901

to CV801 reduces the loading by half due to the current dividing over two conductors. Not

only does this allow for larger currents to flow, but reduces the loading and thermal stresses

that are a result of high magnitude currents.

Overloaded Feeders

Thermal

Current

Rating

(kA)

Actual

Current

(kA)

Loading

(%)

20MCC206A to 12TX203 8.99 18.81 209.24

20MCC206A to 15TX204A 8.99 18.81 209.24

20MCC206A to 12TX204B 8.99 18.81 209.24

20MCC206A to 20TX205 8.99 18.81 209.24

20MCC206A to 20TX206A 17.10 18.81 110.01

20MCC206A to HPGR Master

20TX206B 8.99 18.81 209.24

20MCC206A to HPGR Follower

20TX206C 8.99 18.81 209.24

20MCC206A to Desands 30TX207A 8.99 18.81 209.24

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20MCC206A to Desands 30TX207B 8.99 18.81 209.24

20MCC206A to Desands 30TX207C 8.99 18.81 209.24

20MCC206A to Jigging 35TX208A 8.99 18.81 209.24

20MCC206A to Jigging 35TX208B 8.99 18.81 209.24

20MCC206A to Jigging 35TX208C 8.99 18.81 209.24

20MCC206B to Tails Pump D 8.99 8.69 96.67

20MCC206B to Tails Pump E 8.99 8.69 96.67

HV901 to CV201 7.15 19.03 266.10

HV901 to CV401 7.15 19.03 266.10

HV901 to CV601 14.30 19.03 133.05

HV901 to CV801 14.30 19.03 133.05

HV901 to RC031 7.15 19.03 266.10

HV901 to TF801 7.15 19.03 266.10

HV901 to TF901 7.15 19.03 266.10

HV901 to SK703 7.15 19.03 266.10

Table 23 SC-4 Minimum Verification Report Cables

The two components identified in the simulation of minimum short circuit currents in SC-4

for busbars under 1000 volts, using a voltage factor of 0.95 can be seen in the table below.

They have been identified as being over 80% thermal loading. These results occur when 20

generators are running and enough load to drop down the bus voltage 5% from their nominal

rating. The feeders during this simulation did not have large enough currents to trigger an

over loading situation due to the lower voltage which reduces the fault current.

It is a significant concern that these sections are being identified during a minimum fault

current calculation where they are only going to increase in loading as the voltage increases.

During the calculation, the loads have been ignored and there is no contribution from the

DOL motors, thus eliminating a source of discrepancy.

Overloaded Busbars

Thermal

Current

Rating

(kA)

Actual

Current

(kA)

Loading

(%)

Kiosk Substation Sub018 30.00 (1s) 24.28 80.92

Secondary & Tertiary Crushing

(20MCC205) 65.00 (1s) 53.62 82.49

Table 24 SC-4 Minimum Busbars

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107

It is recommended to conduct further short circuit simulations in order to verify the

surrounding areas and thermal current ratings of equipment. These results suggest that this

particular sizing of equipment was chosen in order to reduce capital costs.

The fault ratings of the buses should be double checked as they can often differ from the

drawings. The drawing used for Kiosk Substation SUB018 is approved for construction,

500CC-0900-DR-EL-0112. There are only preliminary drawings for the OPF2, so the

secondary & Tertiary Crushing bus needs to be verified by CSI or visual inspection of the

nameplate.

SC-4 Maximum 3 Phase Short-Circuit Fault Currents

The maximum balanced three phase short circuit currents, based on a voltage factor of 1.1

can be seen below in table 5.2.5. Motor contribution from the connected DOL motors are

included in this calculation, so may provide an unreasonably higher fault current contribution.

Overloaded Busbars

Thermal

Current

Rating

(kA)

Actual

Current

(kA)

Loading

(%)

30TX207A LV 65.00 (1s) 54.03 83.13

30TX207B LV 65.00 (1s) 56.04 86.22

30TX207C LV 65.00 (1s) 56.66 87.17

Jigging 35TX208B LV 80.00 (1s) 68.16 85.20

Kiosk Substation Sub018 30.00 (1s) 27.80 92.66

Secondary & Tertiary Crushing

(20MCC205) 65.00 (1s) 64.51 99.24

Table 25 SC-4 Maximum Overloaded Busbars

The highest loading is found to be the secondary & tertiary crushing bus where there are a lot

of motors connected to this. As this section is owned and operated by CSI, it may need to be

verified of the connection topology for motors and use a revised maximum demand for the

loads. The main component in the flow from generator to load that contributed directly to the

fault level is the transformers. The upstream step-down transformer 20TX205 has a primary

to secondary voltage of 11/0.433kV, sized at 3500kVA, vector group Dyn11 and most

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108

importantly an impedance of 7.5%. The higher this impedance value, the lower the maximum

fault current rating will be on the low voltage side. During the design phase a non-standard

impedance would have been selected in order to reduce this fault current. A higher cost, size

and weight is associated with increasing the impedance, so there needs to be a happy medium

that is both cost effective and economical.

The motor contribution for the Secondary & Tertiary Crushing bus is 64.51 – 58.141 = 6.369

kA and has been calculated by selecting all loads to be out of service. This figure seems to be

quite unrealistic as not all motors will be running at once. Even eliminating the motor

contribution as a source of error, the bus is still 58.141 kA and 89.45% loading.

Kiosk Substation Sub018 has a loading of 92.66% during this maximum short circuit

simulation. The fault current is getting very close to the thermal limit of 30 kA for the

equipment. Similarly the motor contribution is taken into account for this calculation and

therefore may be increasing the fault level slightly. Running a simulation without the load

connected, eliminating the motor contribution results in 26.247 kA and 87.49% loading. The

motor contribution at this bus is only very small in comparison to the Secondary and Tertiary

Crushing bus.

To be able to accurately calculate the motor contribution to fault currents, a more detailed

realistic maximum demand load needs to be used in the model. Instead of using one lumped

DOL motor and then scaled down, the only motors that should be present are the ones

running at the same time.

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109

D.4 Output

Page 243: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Min. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Always Considered Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Max. Loading (Peak) 80.00 % Max. Loading (Interrupting) 80.00 % Max. Loading (Thermal) 80.00 % Fortescue SC-4 DIgSILENT Project: XMAS CREEK Metals Group 6 Generators in Service (No Load Flow) PowerFactory Minimum Short Circuit Currents 14.1.4 Date: 4/24/2013 Study Case: Study Case Annex: / 1 Overloaded Branches Thermal equivalent Current Name Type Terminal i Terminal j Nominal(1s) ( 1.0 s) Actual Loading [kA] [kA] [kA] [%] Feeder HV901 to CV201-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Plant Output C.. 7.15 7.15 6.38 89.24 Feeder HV901 to CV401-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. CV401-EM01/EM02 7.15 7.15 6.38 89.24 Feeder HV901 to RC031 600 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. RC031 Reclaimer 7.15 7.15 6.38 89.24 Feeder HV901 to TF801 Tx Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF801 HV - Tra.. 7.15 7.15 6.38 89.24 Feeder HV901 to TF901 20m Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF901 HV 7.15 7.15 6.38 89.24 Feeder to SK703 Med Point Olex 6.35/11kV 50mm Lne HV901/Stockyar.. SK703-TF01 TX HV 7.15 7.15 6.38 89.24

Page 244: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Fortescue SC-4 DIgSILENT Project: XMAS CREEK Metals Group 6 Generators in Service (No Load Flow) PowerFactory Minimum Short Circuit Currents 14.1.4 Date: 4/24/2013 Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Min. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Always Considered Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Grid: Christmas Creek System Stage: Christmas Creek Annex: / 1 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] HV901 Stockyard Subst 11.00 0.00 0.00 1.00 118.85 MVA 6.24 kA -86.66 15.93 kA 4.53 86.24 6.24 6.38 Alternate Feede HV902-11kV 47.37 MVA 2.49 kA 88.46 6.35 kA FE-04 - PS to H PowerStati 71.76 MVA 3.77 kA 96.56 9.62 kA Feeder HV901 to Plant Outp 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to CV401-EM01 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Train Load 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to RC031 Recl 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to TF801 HV - 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to TF901 HV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder to SK703 SK703-TF01 0.00 MVA 0.00 kA 0.00 0.00 kA HV902-11kV Stockyard Subst 11.00 0.00 0.00 1.00 118.80 MVA 6.24 kA -86.66 15.92 kA 4.53 86.23 6.24 6.38 Alternate Feede HV901 58.28 MVA 3.06 kA 96.56 7.81 kA OPF1 Incomer 1 OPF1 0.00 MVA 0.00 kA 0.00 0.00 kA Power Station F PowerStati 60.70 MVA 3.19 kA 90.25 8.13 kA MC901 MC901 415V 0.41 0.00 0.00 0.95 8.00 MVA 11.13 kA -84.43 27.53 kA 11.13 8.00 11.13 11.32 TF901 11/0.433k TF901 HV 8.00 MVA 11.13 kA 95.57 27.53 kA 19.5kW Lumped D 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 15kW 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902 Turkeys Nest 0.41 0.00 0.00 0.95 8.05 MVA 11.20 kA -64.72 19.91 kA 11.20 8.05 11.20 11.24 MCC902-P-01 Sub018 8.05 MVA 11.20 kA 115.28 19.91 kA 22kW DOL 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 245: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 2 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] L-DOL 132kW 0.00 MVA 0.00 kA 0.00 0.00 kA OPF1 20MCC04 11.00 0.00 0.00 1.00 118.52 MVA 6.22 kA -86.58 15.86 kA 4.52 86.16 6.22 6.36 Feeder HV902 to 20MCC04 0.00 MVA 0.00 kA 0.00 0.00 kA OPF1 Incomer 1 HV902-11kV 118.52 MVA 6.22 kA 93.42 15.86 kA TF008 11/0.433k Sub018 0.00 MVA 0.00 kA 0.00 0.00 kA OPF2 SS 20MCC206A OPF2 11.00 0.00 0.00 1.00 118.44 MVA 6.22 kA -86.66 15.87 kA 4.52 86.14 6.22 6.36 FE-07 to OPF2-A PowerStati 59.22 MVA 3.11 kA 93.34 7.94 kA FE-08 to OPF2-B PowerStati 59.22 MVA 3.11 kA 93.34 7.94 kA Feeder 20MCC206 12TX203 HV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 15TX204A H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 12TX204B H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20TX205 HV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20TX206A H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 35TX208C H 0.00 MVA 0.00 kA 0.00 0.00 kA PowerStation Power Station B 11.00 0.00 0.00 1.00 119.55 MVA 6.27 kA -86.88 16.10 kA 4.54 86.40 6.27 6.43 FE-04 - PS to H HV901 0.00 MVA 0.00 kA 0.00 0.00 kA FE-07 to OPF2-A OPF2 SS 0.00 MVA 0.00 kA 0.00 0.00 kA FE-08 to OPF2-B OPF2 SS 0.00 MVA 0.00 kA 0.00 0.00 kA FE-09 PS to TF0 OHL East T 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PS to TF OHL West T 0.00 MVA 0.00 kA 0.00 0.00 kA Power Station F HV902-11kV 0.00 MVA 0.00 kA 0.00 0.00 kA TF005 11/0.433k PS Service 0.00 MVA 0.00 kA 0.00 0.00 kA Eathing Tx ZigZ 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 01 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 02 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 03 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 04 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 05 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 06 19.92 MVA 1.05 kA -86.88 2.68 kA Generator 07 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 08 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 09 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 10 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 246: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 3 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Generator 11 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 12 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 13 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 14 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 15 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 16 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 17 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 18 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 19 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 20 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 21 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 22 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 23 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 24 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 25 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 26 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 27 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 28 0.00 MVA 0.00 kA 0.00 0.00 kA RMU001 Power StationRM 33.00 0.00 0.00 1.00 91.71 MVA 1.60 kA -86.41 4.09 kA 1.34 76.33 1.60 1.64 Feeder RMU001 t Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU010 Pow 45.87 MVA 0.80 kA 93.60 2.05 kA Feeder TF001 to PL10XX (Fu 0.00 MVA 0.00 kA 0.00 0.00 kA TF001 11/33kV 1 OHL West T 45.85 MVA 0.80 kA 93.58 2.05 kA RMU017 CCY1 33.00 0.00 0.00 1.00 68.42 MVA 1.20 kA -74.13 2.41 kA 1.10 62.98 1.20 1.20 CCY1-RMU017-P1 HV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P2 HV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P3 HV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P4 HV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4017 t PL4017 68.42 MVA 1.20 kA 105.87 2.41 kA SWB004 Switchroom Tels 0.43 0.00 0.00 0.95 2.36 MVA 3.15 kA -67.61 5.81 kA 3.15 2.36 3.15 3.16 Feeder TF004 to Telstra Hu 0.00 MVA 0.00 kA 0.00 0.00 kA TF004 100kvA 33 TF004 HV 2.36 MVA 3.15 kA 112.39 5.81 kA Sub018 Kiosk Substatio 0.41 0.00 0.00 0.95 15.37 MVA 21.39 kA -76.65 45.30 kA 21.39 15.37 21.39 21.54 MCC902-P-01 MCC902 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902-P-02 EPCM Offic 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902-P-03 Laboratory 0.00 MVA 0.00 kA 0.00 0.00 kA TF008 11/0.433k OPF1 15.37 MVA 21.39 kA 103.35 45.30 kA

Page 247: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 4 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] THLoad Telstra Hut Loa 0.43 0.00 0.00 0.95 1.16 MVA 1.54 kA -33.54 2.25 kA 1.54 1.16 1.54 1.55 SB004 to Telstr Telstra Hu 1.16 MVA 1.54 kA 146.46 2.25 kA TLO MC801 415V MC801 0.41 0.00 0.00 0.95 7.63 MVA 10.61 kA -82.42 25.14 kA 10.61 7.63 10.61 10.75 Feeder TF801 to TF801 LV - 7.63 MVA 10.61 kA 97.58 25.14 kA 105.4kW Lumped 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 75kW 0.00 MVA 0.00 kA 0.00 0.00 kA Telstra Hut Telstra Hut DB 0.43 0.00 0.00 0.95 2.35 MVA 3.14 kA -67.42 5.77 kA 3.14 2.35 3.14 3.15 Feeder TF004 to SWB004 2.35 MVA 3.14 kA 112.58 5.77 kA SB004 to Telstr THLoad 0.00 MVA 0.00 kA 0.00 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 118.41 MVA 6.21 kA -86.50 15.81 kA 4.52 86.13 6.21 6.35 Feeder HV901 to HV901 118.41 MVA 6.21 kA 93.50 15.81 kA TF801 HV - Train 11.00 0.00 0.00 1.00 108.06 MVA 5.67 kA -74.09 11.38 kA 4.42 84.22 5.67 5.70 Feeder HV901 to HV901 108.06 MVA 5.67 kA 105.91 11.38 kA TF801 - Train L TF801 LV - 0.00 MVA 0.00 kA 0.00 0.00 kA TF801 LV - Train 0.41 0.00 0.00 0.95 7.95 MVA 11.06 kA -83.43 26.78 kA 11.06 7.95 11.06 11.22 TF801 - Train L TF801 HV - 7.95 MVA 11.06 kA 96.57 26.78 kA Feeder TF801 to TLO MC801 0.00 MVA 0.00 kA 0.00 0.00 kA Train Loadout Con 11.00 0.00 0.00 1.00 114.96 MVA 6.03 kA -81.34 13.77 kA 4.49 85.58 6.03 6.10 Feeder HV901 to HV901 114.96 MVA 6.03 kA 98.66 13.77 kA Reclaimer Conveyo 11.00 0.00 0.00 1.00 118.13 MVA 6.20 kA -85.57 15.45 kA 4.52 86.11 6.20 6.31 Feeder HV901 to HV901 118.13 MVA 6.20 kA 94.43 15.45 kA Plant Output Conv 11.00 0.00 0.00 1.00 114.96 MVA 6.03 kA -81.34 13.77 kA 4.49 85.58 6.03 6.10 Feeder HV901 to HV901 114.96 MVA 6.03 kA 98.66 13.77 kA CV401-EM01/EM02 11.00 0.00 0.00 1.00 96.86 MVA 5.08 kA -64.90 8.99 kA 4.24 80.73 5.08 5.10 Feeder HV901 to HV901 96.86 MVA 5.08 kA 115.10 8.99 kA TF901 HV 11.00 0.00 0.00 1.00 118.49 MVA 6.22 kA -86.11 15.68 kA 4.52 86.18 6.22 6.35 Feeder HV901 to HV901 118.49 MVA 6.22 kA 93.89 15.68 kA TF901 11/0.433k MC901 0.00 MVA 0.00 kA 0.00 0.00 kA 20MCC04 11.00 0.00 0.00 1.00 117.22 MVA 6.15 kA -86.20 15.55 kA 4.51 85.84 6.15 6.28 10TX01 11/0.433 10MCC01 Pr 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV902 to OPF1 117.22 MVA 6.15 kA 93.80 15.55 kA 15TX02A 11/0.43 15MCC02A S 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 248: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 5 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 15Tx02B 11/0.43 15MCC02B S 0.00 MVA 0.00 kA 0.00 0.00 kA 20Tx03 3500kVA 20MCC03 Se 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04A 11/3.3k Desands Ar 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04B 11/1.90 20TX04B De 20TX04B St 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04C 11/1.90 20TX04C De 20TX04C St 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX05A 11/0.43 30MCC05A 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX05B 11/0.43 30MCC05B 0.00 MVA 0.00 kA 0.00 0.00 kA SK703-TF01 TX HV 11.00 0.00 0.00 1.00 106.83 MVA 5.61 kA -72.97 11.06 kA 4.40 83.92 5.61 5.64 SK703-TF01 11/0 SK703-TF01 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder to SK703 HV901 106.83 MVA 5.61 kA 107.03 11.06 kA SK703-TF01 Stacke 0.43 0.00 0.00 0.95 19.72 MVA 26.29 kA -82.10 61.76 kA 26.29 19.72 26.29 26.61 SK703-TF01 11/0 SK703-TF01 19.72 MVA 26.29 kA 97.90 61.76 kA L-DOL 250kW 0.00 MVA 0.00 kA 0.00 0.00 kA 288.3kW Lumped 0.00 MVA 0.00 kA 0.00 0.00 kA RC031 Reclaimer 11.00 0.00 0.00 1.00 105.60 MVA 5.54 kA -71.87 10.75 kA 4.39 83.60 5.54 5.57 Feeder HV901 to HV901 105.60 MVA 5.54 kA 108.13 10.75 kA RC031-TF01 11kV RC031-MC02 0.00 MVA 0.00 kA 0.00 0.00 kA OHL West TF001 LV 11.00 0.00 0.00 1.00 119.44 MVA 6.27 kA -86.86 16.08 kA 4.53 86.38 6.27 6.42 Feeder PS to TF PowerStati 119.34 MVA 6.26 kA 93.16 16.06 kA TF001 11/33kV 1 RMU001 0.10 MVA 0.01 kA 71.98 0.01 kA OHL East TF012 LV 11.00 0.00 0.00 1.00 119.48 MVA 6.27 kA -86.86 16.08 kA 4.53 86.39 6.27 6.42 FE-09 PS to TF0 PowerStati 119.43 MVA 6.27 kA 93.16 16.07 kA TF012 11/33kV 1 RMU010 Pow 0.07 MVA 0.00 kA 53.70 0.01 kA RMU010 Power Stat 33.00 0.00 0.00 1.00 91.71 MVA 1.60 kA -86.41 4.09 kA 1.34 76.33 1.60 1.64 TF012 11/33kV 1 OHL East T 45.88 MVA 0.80 kA 93.59 2.05 kA PL4001-P1 U/G 1 PL4001 REC 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU001 45.83 MVA 0.80 kA 93.59 2.04 kA PL4001 REC001 33.00 0.00 0.00 1.00 91.61 MVA 1.60 kA -86.31 4.08 kA 1.33 76.28 1.60 1.64 PL4001-P1 U/G 1 RMU010 Pow 91.61 MVA 1.60 kA 93.69 4.08 kA OHL PL4001 to P PL4003 33k 0.00 MVA 0.00 kA 0.00 0.00 kA PL4003 33kV 33.00 0.00 0.00 1.00 86.80 MVA 1.52 kA -83.82 3.66 kA 1.29 73.92 1.52 1.54 OHL PL4001 to P PL4001 REC 86.80 MVA 1.52 kA 96.18 3.66 kA TF042 33/0.418k PL4426 Fue 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU010 t PL4004 OLC 0.00 MVA 0.00 kA 0.00 0.00 kA Tx HV Fuel Unload 33.00 0.00 0.00 1.00 83.90 MVA 1.47 kA -82.39 3.44 kA 1.27 72.40 1.47 1.49 Fuel Unload 33/ Tx LV Fuel 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder from OHL PL10XX (Fu 83.90 MVA 1.47 kA 97.61 3.44 kA

Page 249: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 6 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Tx LV Fuel Unload 0.41 0.00 0.00 0.95 4.22 MVA 5.87 kA -71.68 11.48 kA 5.87 4.22 5.87 5.90 Fuel Unload 33/ Tx HV Fuel 4.22 MVA 5.87 kA 108.32 11.48 kA 150mm Cu XLPE 4 Fuel Unloa 0.00 MVA 0.00 kA 0.00 0.00 kA PL1075 33.00 0.00 0.00 1.00 77.67 MVA 1.36 kA -79.33 3.00 kA 1.21 68.88 1.36 1.37 Feeder PL10062 PL10062 77.67 MVA 1.36 kA 100.67 3.00 kA Feeder PL1075 t PL1081 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t Constructi 0.00 MVA 0.00 kA 0.00 0.00 kA PL10062 33.00 0.00 0.00 1.00 80.49 MVA 1.41 kA -80.71 3.19 kA 1.23 70.52 1.41 1.42 Feeder PL10062 PL1075 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10XX (Fu 80.49 MVA 1.41 kA 99.29 3.19 kA Feeder PL10062 TF004 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL1081 33.00 0.00 0.00 1.00 74.34 MVA 1.30 kA -77.74 2.79 kA 1.17 66.84 1.30 1.31 Feeder PL1075 t PL1075 74.34 MVA 1.30 kA 102.26 2.79 kA Feeder PL1081 t Kandama Vi 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Harridan Hill Tow 33.00 0.00 0.00 1.00 72.40 MVA 1.27 kA -76.83 2.67 kA 1.15 65.61 1.27 1.28 Harridan Hill P Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H PL1081 72.40 MVA 1.27 kA 103.17 2.67 kA REC031 OLC 33.00 0.00 0.00 1.00 73.31 MVA 1.28 kA -77.00 2.71 kA 1.16 66.20 1.28 1.29 Feeder PL4004 t PL4004 OLC 73.14 MVA 1.28 kA 103.21 2.71 kA 11TX202A 33/0.7 11TX202A L 0.32 MVA 0.01 kA 45.96 0.01 kA HV TF017-1 33.00 0.00 0.00 1.00 68.20 MVA 1.19 kA -73.95 2.40 kA 1.10 62.84 1.19 1.20 CCY1-RMU017-P1 RMU017 68.20 MVA 1.19 kA 106.05 2.40 kA TF017-1 33/0.43 LV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-2 33.00 0.00 0.00 1.00 68.26 MVA 1.19 kA -74.00 2.40 kA 1.10 62.88 1.19 1.20 CCY1-RMU017-P2 RMU017 68.26 MVA 1.19 kA 106.00 2.40 kA TF017-2 33/0.43 LV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-3 33.00 0.00 0.00 1.00 68.29 MVA 1.19 kA -74.03 2.41 kA 1.10 62.90 1.19 1.20 CCY1-RMU017-P3 RMU017 68.29 MVA 1.19 kA 105.97 2.41 kA TF017-3 33/0.43 LV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-4 33.00 0.00 0.00 1.00 68.19 MVA 1.19 kA -73.95 2.40 kA 1.10 62.83 1.19 1.20 CCY1-RMU017-P4 RMU017 68.19 MVA 1.19 kA 106.05 2.40 kA TF017-4 33/0.43 LV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA LV TF017-1 Admin 0.43 0.00 0.00 0.95 12.45 MVA 16.59 kA -82.14 39.06 kA 16.59 12.45 16.59 16.80 TF017-1 33/0.43 HV TF017-1 12.45 MVA 16.59 kA 97.86 39.06 kA

Page 250: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 7 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] LV TF017-2 Ancill 0.43 0.00 0.00 0.95 12.45 MVA 16.60 kA -82.15 39.07 kA 16.60 12.45 16.60 16.80 TF017-2 33/0.43 HV TF017-2 12.45 MVA 16.60 kA 97.85 39.07 kA LV TF017-3 HV W/S 0.43 0.00 0.00 0.95 17.80 MVA 23.74 kA -82.94 56.75 kA 23.74 17.80 23.74 24.05 TF017-3 33/0.43 HV TF017-3 17.80 MVA 23.74 kA 97.06 56.75 kA LV TF017-4 Gulf W 0.43 0.00 0.00 0.95 12.45 MVA 16.59 kA -82.14 39.06 kA 16.59 12.45 16.59 16.80 TF017-4 33/0.43 HV TF017-4 12.45 MVA 16.59 kA 97.86 39.06 kA Kandama Village R 33.00 0.00 0.00 1.00 73.00 MVA 1.28 kA -77.11 2.71 kA 1.15 65.99 1.28 1.29 Feeder PL1081 t PL1081 73.00 MVA 1.28 kA 102.89 2.71 kA 08TF002 33/11kV RMU-05 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-05 11.00 0.00 0.00 1.00 38.42 MVA 2.02 kA -79.77 4.51 kA 2.01 38.33 2.02 2.04 08TF002 33/11kV Kandama Vi 38.42 MVA 2.02 kA 100.23 4.51 kA Connectin RMU-0 RMU-06 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-04 11.00 0.00 0.00 1.00 38.26 MVA 2.01 kA -79.62 4.48 kA 2.00 38.19 2.01 2.03 Tx-004 11/0.415 Waste Wate 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder from Tx0 RMU-06 38.26 MVA 2.01 kA 100.38 4.48 kA Feeder RMU-04 t RMU-03 0.00 MVA 0.00 kA 0.00 0.00 kA Waste Water Treat 0.41 0.00 0.00 0.95 12.13 MVA 16.88 kA -81.47 39.18 kA 16.88 12.13 16.88 17.07 Tx-004 11/0.415 RMU-04 12.13 MVA 16.88 kA 98.53 39.18 kA RMU-06 11.00 0.00 0.00 1.00 38.42 MVA 2.02 kA -79.77 4.51 kA 2.01 38.33 2.02 2.04 Feeder from Tx0 RMU-04 0.00 MVA 0.00 kA 0.00 0.00 kA Connectin RMU-0 RMU-05 38.42 MVA 2.02 kA 100.23 4.51 kA RMU-03 11.00 0.00 0.00 1.00 38.10 MVA 2.00 kA -79.30 4.43 kA 2.00 38.04 2.00 2.02 Feeder RMU-04 t RMU-04 38.10 MVA 2.00 kA 100.70 4.43 kA Feeder RMU-03 t RMU-02 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-003 11/0.415 TX-003 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-02 11.00 0.00 0.00 1.00 37.94 MVA 1.99 kA -78.99 4.39 kA 1.99 37.89 1.99 2.01 Feeder RMU-03 t RMU-03 37.94 MVA 1.99 kA 101.01 4.39 kA Feeder RMU-02 t RMU-01 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-002 11/0.415 TX-002 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-01 11.00 0.00 0.00 1.00 37.77 MVA 1.98 kA -78.68 4.34 kA 1.98 37.74 1.98 2.00 Feeder RMU-02 t RMU-02 37.77 MVA 1.98 kA 101.32 4.34 kA Tx-001 11/0.415 TX-001 LV 0.00 MVA 0.00 kA 0.00 0.00 kA TX-003 LV 0.41 0.00 0.00 0.95 12.12 MVA 16.86 kA -81.36 39.04 kA 16.86 12.12 16.86 17.04 Tx-003 11/0.415 RMU-03 12.12 MVA 16.86 kA 98.64 39.04 kA

Page 251: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 8 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TX-002 LV 0.41 0.00 0.00 0.95 12.10 MVA 16.83 kA -81.25 38.90 kA 16.83 12.10 16.83 17.02 Tx-002 11/0.415 RMU-02 12.10 MVA 16.83 kA 98.75 38.90 kA TX-001 LV 0.41 0.00 0.00 0.95 12.08 MVA 16.81 kA -81.14 38.76 kA 16.81 12.08 16.81 16.99 Tx-001 11/0.415 RMU-01 12.08 MVA 16.81 kA 98.86 38.76 kA Harridan Hill Tow 0.41 0.00 0.00 0.95 2.16 MVA 3.01 kA -67.53 5.54 kA 3.01 2.16 3.01 3.02 Harridan Hill P Harridan H 2.16 MVA 3.01 kA 112.47 5.54 kA 10MCC01 Primary C 0.43 0.00 0.00 0.95 30.99 MVA 41.33 kA -84.82 102.70 kA 41.33 30.99 41.33 42.06 10TX01 11/0.433 20MCC04 30.99 MVA 41.33 kA 95.18 102.70 kA L-DOL 45kW 0.00 MVA 0.00 kA 0.00 0.00 kA 108.5kW DOL 0.00 MVA 0.00 kA 0.00 0.00 kA 15MCC02A Screenin 0.43 0.00 0.00 0.95 30.18 MVA 40.24 kA -84.81 99.98 kA 40.24 30.18 40.24 40.95 15TX02A 11/0.43 20MCC04 30.18 MVA 40.24 kA 95.19 99.98 kA DOL Wet Sizing 0.00 MVA 0.00 kA 0.00 0.00 kA 90kW DOL- 0.00 MVA 0.00 kA 0.00 0.00 kA 15MCC02B Screenin 0.43 0.00 0.00 0.95 30.18 MVA 40.24 kA -84.81 99.98 kA 40.24 30.18 40.24 40.95 15Tx02B 11/0.43 20MCC04 30.18 MVA 40.24 kA 95.19 99.98 kA L-DOL-90kW 0.00 MVA 0.00 kA 0.00 0.00 kA 222kW DOL 0.00 MVA 0.00 kA 0.00 0.00 kA 20MCC03 Secondary 0.41 0.00 0.00 0.95 33.44 MVA 46.52 kA -84.91 115.74 kA 46.52 33.44 46.52 47.36 20Tx03 3500kVA 20MCC04 33.44 MVA 46.52 kA 95.09 115.74 kA Feeder Area 15 Area 20 MC 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 90kW 0.00 MVA 0.00 kA 0.00 0.00 kA Area 20 MCC03 20C 0.41 0.00 0.00 0.95 20.08 MVA 27.94 kA -72.58 55.27 kA 27.94 20.08 27.94 28.09 Feeder Area 15 20MCC03 Se 20.08 MVA 27.94 kA 107.42 55.27 kA L-DOL Lube 2 Co 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL Dust Extr 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 74kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 74kW(1) 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL Lube 1 Co 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 163kW 0.00 MVA 0.00 kA 0.00 0.00 kA Desands Area 15/2 3.30 0.00 0.00 1.00 32.98 MVA 5.77 kA -84.83 14.34 kA 5.77 32.98 5.77 5.87 20TX04A 11/3.3k 20MCC04 32.98 MVA 5.77 kA 95.17 14.34 kA PL4426 Fuel Stora 0.42 0.00 0.00 0.95 4.29 MVA 5.93 kA -71.74 11.60 kA 5.93 4.29 5.93 5.96 TF042 33/0.418k PL4003 33k 4.29 MVA 5.93 kA 108.26 11.60 kA L-DOL Loading P 0.00 MVA 0.00 kA 0.00 0.00 kA 94kW Motor Lump 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 252: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 9 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 20TX04B Delta LV 1.90 0.00 0.00 1.00 20.95 MVA 6.35 kA -84.63 15.74 kA 6.35 20.95 6.35 6.46 20TX04B 11/1.90 20MCC04 20TX04B St 20.95 MVA 6.35 kA 95.37 15.74 kA 20TX04B Star LV 1.90 0.00 0.00 1.00 20.95 MVA 6.35 kA -84.63 15.74 kA 6.35 20.95 6.35 6.46 20TX04B 11/1.90 20MCC04 20TX04B De 20.95 MVA 6.35 kA 95.37 15.74 kA 20TX04C Delta LV 1.90 0.00 0.00 1.00 20.95 MVA 6.35 kA -84.63 15.74 kA 6.35 20.95 6.35 6.46 20TX04C 11/1.90 20MCC04 20TX04C St 20.95 MVA 6.35 kA 95.37 15.74 kA 20TX04C Star LV 1.90 0.00 0.00 1.00 20.95 MVA 6.35 kA -84.63 15.74 kA 6.35 20.95 6.35 6.46 20TX04C 11/1.90 20MCC04 20TX04C De 20.95 MVA 6.35 kA 95.37 15.74 kA 30MCC05A 0.43 0.00 0.00 0.95 32.92 MVA 43.90 kA -84.86 109.13 kA 43.90 32.92 43.90 44.68 30TX05A 11/0.43 20MCC04 32.92 MVA 43.90 kA 95.14 109.13 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 181kW 0.00 MVA 0.00 kA 0.00 0.00 kA 30MCC05B 0.43 0.00 0.00 0.95 30.18 MVA 40.24 kA -84.81 99.98 kA 40.24 30.18 40.24 40.95 30TX05B 11/0.43 20MCC04 30.18 MVA 40.24 kA 95.19 99.98 kA L-DOL 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 587kW 0.00 MVA 0.00 kA 0.00 0.00 kA 12TX203 HV 11.00 0.00 0.00 1.00 111.47 MVA 5.85 kA -80.55 13.15 kA 4.44 84.58 5.85 5.91 Feeder 20MCC206 OPF2 SS 111.47 MVA 5.85 kA 99.45 13.15 kA 12TX203 11/0.43 Reclaim Tu 0.00 MVA 0.00 kA 0.00 0.00 kA Reclaim Tunnel Ar 0.43 0.00 0.00 0.95 25.90 MVA 34.53 kA -83.38 83.23 kA 34.53 25.90 34.53 35.02 12TX203 11/0.43 12TX203 HV 25.90 MVA 34.53 kA 96.62 83.23 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 22kW Conv 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 44kW 0.00 MVA 0.00 kA 0.00 0.00 kA 15TX204A HV 11.00 0.00 0.00 1.00 114.87 MVA 6.03 kA -83.39 14.34 kA 4.48 85.37 6.03 6.11 Feeder 20MCC206 OPF2 SS 114.87 MVA 6.03 kA 96.61 14.34 kA 15TX204A 11/0.4 15TX204A S 0.00 MVA 0.00 kA 0.00 0.00 kA 15TX204A Scrubber 0.43 0.00 0.00 0.95 29.16 MVA 38.89 kA -84.05 95.04 kA 38.89 29.16 38.89 39.50 15TX204A 11/0.4 15TX204A H 29.16 MVA 38.89 kA 95.95 95.04 kA L-DOL 90kW(1) 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 193kW 0.00 MVA 0.00 kA 0.00 0.00 kA 12TX204B HV 11.00 0.00 0.00 1.00 114.72 MVA 6.02 kA -83.26 14.28 kA 4.48 85.33 6.02 6.10 Feeder 20MCC206 OPF2 SS 114.72 MVA 6.02 kA 96.74 14.28 kA 12TX204B 11/0.4 12TX204B S 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 253: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 10 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 12TX204B Scrubber 0.43 0.00 0.00 0.95 29.85 MVA 39.81 kA -84.01 97.19 kA 39.81 29.85 39.81 40.42 12TX204B 11/0.4 12TX204B H 29.85 MVA 39.81 kA 95.99 97.19 kA L-DOL- 90kW 0.00 MVA 0.00 kA 0.00 0.00 kA DOL Lumped 225. 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX205 HV 11.00 0.00 0.00 1.00 118.02 MVA 6.19 kA -86.25 15.67 kA 4.52 86.05 6.19 6.32 Feeder 20MCC206 OPF2 SS 118.02 MVA 6.19 kA 93.75 15.67 kA 20TX205 11/0.43 Secondary 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206A HV 11.00 0.00 0.00 1.00 118.05 MVA 6.20 kA -86.34 15.71 kA 4.52 86.05 6.20 6.33 Feeder 20MCC206 OPF2 SS 118.05 MVA 6.20 kA 93.66 15.71 kA 20TX206A 11/3.3 20TX206A L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206A LV 3.30 0.00 0.00 1.00 39.78 MVA 6.96 kA -84.98 17.34 kA 6.95 39.72 6.96 7.09 20TX206A 11/3.3 20TX206A H 39.78 MVA 6.96 kA 95.02 17.34 kA Feeder 20TX206A 20MCC206B 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master 20TX2 11.00 0.00 0.00 1.00 118.02 MVA 6.19 kA -86.25 15.67 kA 4.52 86.05 6.19 6.32 Feeder 20MCC206 OPF2 SS 118.02 MVA 6.19 kA 93.75 15.67 kA 20TX206B 11/1.9 20TX206B L 20TX206B L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206B LV Delta 1.90 0.00 0.00 1.00 19.48 MVA 5.90 kA -84.61 14.64 kA 5.90 19.48 5.90 6.01 20TX206B 11/1.9 HPGR Maste 20TX206B L 19.48 MVA 5.90 kA 95.39 14.64 kA 20TX206B LV Star 1.90 0.00 0.00 1.00 19.48 MVA 5.90 kA -84.61 14.64 kA 5.90 19.48 5.90 6.01 20TX206B 11/1.9 HPGR Maste 20TX206B L 19.48 MVA 5.90 kA 95.39 14.64 kA HPGR Follower 20T 11.00 0.00 0.00 1.00 118.02 MVA 6.19 kA -86.25 15.67 kA 4.52 86.05 6.19 6.32 Feeder 20MCC206 OPF2 SS 118.02 MVA 6.19 kA 93.75 15.67 kA 20TX206C 1kv/2x 20TX206C L 20TX206C L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206C LV Delta 1.90 0.00 0.00 1.00 19.48 MVA 5.90 kA -84.61 14.64 kA 5.90 19.48 5.90 6.01 20TX206C 1kv/2x HPGR Follo 20TX206C L 19.48 MVA 5.90 kA 95.39 14.64 kA 20TX206C LV Star 1.90 0.00 0.00 1.00 19.48 MVA 5.90 kA -84.61 14.64 kA 5.90 19.48 5.90 6.01 20TX206C 1kv/2x HPGR Follo 20TX206C L 19.48 MVA 5.90 kA 95.39 14.64 kA Desands 30TX207A 11.00 0.00 0.00 1.00 111.18 MVA 5.84 kA -80.32 13.06 kA 4.44 84.51 5.84 5.89 Feeder 20MCC206 OPF2 SS 111.18 MVA 5.84 kA 99.68 13.06 kA 30TX207A 11/0.4 30TX207A L 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX207A LV 0.41 0.00 0.00 0.95 26.43 MVA 36.77 kA -83.21 88.26 kA 36.77 26.43 36.77 37.27 30TX207A 11/0.4 Desands 30 26.43 MVA 36.77 kA 96.79 88.26 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 254: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 11 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 310. 0.00 MVA 0.00 kA 0.00 0.00 kA Desands 30TX207B 11.00 0.00 0.00 1.00 111.18 MVA 5.84 kA -80.32 13.06 kA 4.44 84.51 5.84 5.89 30TX207B 11/0.4 30TX207B L 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 OPF2 SS 111.18 MVA 5.84 kA 99.68 13.06 kA 30TX207B LV 0.43 0.00 0.00 0.95 29.61 MVA 39.48 kA -83.18 94.70 kA 39.48 29.61 39.48 40.02 30TX207B 11/0.4 Desands 30 29.61 MVA 39.48 kA 96.82 94.70 kA L-DOL 110kW 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 343. 0.00 MVA 0.00 kA 0.00 0.00 kA Desands 30TX207C 11.00 0.00 0.00 1.00 111.18 MVA 5.84 kA -80.32 13.06 kA 4.44 84.51 5.84 5.89 Feeder 20MCC206 OPF2 SS 111.18 MVA 5.84 kA 99.68 13.06 kA 30TX207C 11/0.4 30TX207C L 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX207C LV 0.43 0.00 0.00 0.95 28.77 MVA 38.36 kA -83.21 92.09 kA 38.36 28.77 38.36 38.89 30TX207C 11/0.4 Desands 30 28.77 MVA 38.36 kA 96.79 92.09 kA L-DOL 120kW 0.00 MVA 0.00 kA 0.00 0.00 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 489k 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208A 11.00 0.00 0.00 1.00 114.14 MVA 5.99 kA -82.76 14.06 kA 4.47 85.20 5.99 6.06 Feeder 20MCC206 OPF2 SS 114.14 MVA 5.99 kA 97.24 14.06 kA 35TX208A 11/0.4 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208A 0.43 0.00 0.00 0.95 28.96 MVA 38.62 kA -83.88 94.05 kA 38.62 28.96 38.62 39.21 35TX208A 11/0.4 Jigging 35 28.96 MVA 38.62 kA 96.12 94.05 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL -110kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 1009 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208B 11.00 0.00 0.00 1.00 114.14 MVA 5.99 kA -82.76 14.06 kA 4.47 85.20 5.99 6.06 Feeder 20MCC206 OPF2 SS 114.14 MVA 5.99 kA 97.24 14.06 kA 35TX208B 11/0.4 Jigging 35 0.00 MVA 0.00 kA 0.00 0.00 kA Jigging 35TX208B 0.43 0.00 0.00 0.95 32.99 MVA 43.99 kA -83.82 106.93 kA 43.99 32.99 43.99 44.65 35TX208B 11/0.4 Jigging 35 32.99 MVA 43.99 kA 96.18 106.93 kA L-DOL - 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped-DOL 1599 0.00 MVA 0.00 kA 0.00 0.00 kA 35TX208C HV 11.00 0.00 0.00 1.00 114.14 MVA 5.99 kA -82.76 14.06 kA 4.47 85.20 5.99 6.06 Feeder 20MCC206 OPF2 SS 114.14 MVA 5.99 kA 97.24 14.06 kA 35TX208C 11/0.4 35TX208C L 0.00 MVA 0.00 kA 0.00 0.00 kA 35TX208C LV 0.43 0.00 0.00 0.95 23.15 MVA 30.86 kA -83.96 75.36 kA 30.86 23.15 30.86 31.34

Page 255: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 12 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 35TX208C 11/0.4 35TX208C H 23.15 MVA 30.86 kA 96.04 75.36 kA L-DOL 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL - 14 0.00 MVA 0.00 kA 0.00 0.00 kA 20MCC206B 3.30 0.00 0.00 1.00 39.77 MVA 6.96 kA -84.97 17.33 kA 6.95 39.72 6.96 7.08 Feeder 20TX206A 20TX206A L 39.77 MVA 6.96 kA 95.03 17.33 kA Feed to Cone Cr Cone Crush 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master VSD 2 0.69 0.00 0.00 0.95 13.77 MVA 11.53 kA -75.17 23.80 kA 11.53 13.77 11.53 11.60 20TX207D 3.3kV/ Tails Pump HPGR Maste 13.77 MVA 11.53 kA 104.83 23.80 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master Star 0.69 0.00 0.00 0.95 13.77 MVA 11.53 kA -75.17 23.80 kA 11.53 13.77 11.53 11.60 20TX207D 3.3kV/ Tails Pump HPGR Maste 13.77 MVA 11.53 kA 104.83 23.80 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump D 3.3 3.30 0.00 0.00 1.00 30.12 MVA 5.27 kA -65.06 9.39 kA 5.27 30.12 5.27 5.29 20TX207D 3.3kV/ HPGR Maste HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 30.12 MVA 5.27 kA 114.94 9.39 kA HPGR Follower Del 0.69 0.00 0.00 0.95 13.76 MVA 11.51 kA -75.08 23.74 kA 11.51 13.76 11.51 11.59 20TX207E 3.3kV/ Tails Pump HPGR Follo 13.76 MVA 11.51 kA 104.92 23.74 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Follower Sta 0.69 0.00 0.00 0.95 13.76 MVA 11.51 kA -75.08 23.74 kA 11.51 13.76 11.51 11.59 20TX207E 3.3kV/ Tails Pump HPGR Follo 13.76 MVA 11.51 kA 104.92 23.74 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump E 3.3k 3.30 0.00 0.00 1.00 30.03 MVA 5.25 kA -64.92 9.35 kA 5.25 30.03 5.25 5.27 20TX207E 3.3kV/ HPGR Follo HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 30.03 MVA 5.25 kA 115.08 9.35 kA 11MCC202B 690V 0.69 0.00 0.00 0.95 45.55 MVA 38.11 kA -78.17 82.60 kA 37.47 44.78 38.11 38.41 11TX202C 700/43 11MCC202C 0.00 MVA 0.00 kA 0.00 0.00 kA Bustie 11MCC202 11MCC202A 22.78 MVA 19.06 kA 101.82 41.31 kA Feeder to OLC D 11TX202B L 22.77 MVA 19.05 kA 101.84 41.29 kA REC032 OLC 33.00 0.00 0.00 1.00 73.28 MVA 1.28 kA -76.99 2.71 kA 1.16 66.18 1.28 1.29 Feeder PL4005 t PL4005 OLC 73.10 MVA 1.28 kA 103.23 2.71 kA 11TX202B 33/0.7 11TX202B L 0.33 MVA 0.01 kA 47.14 0.01 kA 11MCC202C OLC MCC 0.41 0.00 0.00 0.95 8.23 MVA 11.45 kA -83.12 27.52 kA 11.45 8.23 11.45 11.61 11TX202C 700/43 11MCC202B 8.23 MVA 11.45 kA 96.88 27.52 kA L-DOL - 150kW 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 256: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 13 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 219. 0.00 MVA 0.00 kA 0.00 0.00 kA EPCM Office 0.41 0.00 0.00 0.95 7.85 MVA 10.92 kA -66.03 19.71 kA 10.92 7.85 10.92 10.96 MCC902-P-02 Sub018 7.85 MVA 10.92 kA 113.97 19.71 kA Laboratory 0.41 0.00 0.00 0.95 7.85 MVA 10.92 kA -66.03 19.71 kA 10.92 7.85 10.92 10.96 MCC902-P-03 Sub018 7.85 MVA 10.92 kA 113.97 19.71 kA Cone Crushers 3.3 3.30 0.00 0.00 1.00 38.80 MVA 6.79 kA -81.80 15.80 kA 6.79 38.80 6.79 6.87 Feed to Cone Cr 20MCC206B 38.80 MVA 6.79 kA 98.20 15.80 kA HPGR Main Motor 2 0.69 0.00 0.00 0.95 13.50 MVA 11.30 kA -73.73 22.78 kA 11.30 13.50 11.30 11.36 Feeder HPGR Mas HPGR Maste 13.50 MVA 11.30 kA 106.27 22.78 kA HPGR Main Motor 2 0.69 0.00 0.00 0.95 13.50 MVA 11.30 kA -73.73 22.78 kA 11.30 13.50 11.30 11.36 Feeder HPGR Mas HPGR Maste 13.50 MVA 11.30 kA 106.27 22.78 kA HPGR Follower Mot 0.69 0.00 0.00 0.95 13.48 MVA 11.28 kA -73.65 22.72 kA 11.28 13.48 11.28 11.35 Feeder HPGR Fol HPGR Follo 13.48 MVA 11.28 kA 106.35 22.72 kA HPGR Follower Mot 0.69 0.00 0.00 0.95 13.48 MVA 11.28 kA -73.65 22.72 kA 11.28 13.48 11.28 11.35 Feeder HPGR Fol HPGR Follo 13.48 MVA 11.28 kA 106.35 22.72 kA PL10XX (Fuel Unlo 33.00 0.00 0.00 1.00 83.91 MVA 1.47 kA -82.40 3.44 kA 1.27 72.41 1.47 1.49 Feeder TF001 to RMU001 83.91 MVA 1.47 kA 97.60 3.44 kA Feeder from OHL Tx HV Fuel 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10062 0.00 MVA 0.00 kA 0.00 0.00 kA Fuel Unload RCDOS 0.41 0.00 0.00 0.95 2.45 MVA 3.41 kA -50.00 5.30 kA 3.41 2.45 3.41 3.42 150mm Cu XLPE 4 Tx LV Fuel 2.45 MVA 3.41 kA 130.00 5.30 kA L-DOL 30kW(1) 0.00 MVA 0.00 kA 0.00 0.00 kA 120kW Lumped 0.00 MVA 0.00 kA 0.00 0.00 kA TF004 HV 33.00 0.00 0.00 1.00 80.48 MVA 1.41 kA -80.70 3.19 kA 1.23 70.51 1.41 1.42 TF004 100kvA 33 SWB004 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL10062 PL10062 80.48 MVA 1.41 kA 99.30 3.19 kA PL4004 OLC A 33.00 0.00 0.00 1.00 73.68 MVA 1.29 kA -77.40 2.75 kA 1.16 66.42 1.29 1.30 Feeder RMU010 t PL4003 33k 73.68 MVA 1.29 kA 102.60 2.75 kA Feeder PL4004 t REC031 OLC 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4004 to P PL4005 OLC 0.00 MVA 0.00 kA 0.00 0.00 kA PL4005 OLC B 33.00 0.00 0.00 1.00 73.65 MVA 1.29 kA -77.38 2.74 kA 1.16 66.40 1.29 1.30 Feeder PL4005 t REC032 OLC 0.02 MVA 0.00 kA 69.04 0.00 kA OHL PL4004 to P PL4004 OLC 73.63 MVA 1.29 kA 102.63 2.74 kA OHL PL4005 to P PL4007 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 257: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 14 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] PL5059 33.00 0.00 0.00 1.00 66.99 MVA 1.17 kA -74.29 2.37 kA 1.08 61.97 1.17 1.18 OHL PL5043 to P PL5043 66.99 MVA 1.17 kA 105.71 2.37 kA PL5059 to REC03 REC037 0.00 MVA 0.00 kA 0.00 0.00 kA PL5043 33.00 0.00 0.00 1.00 68.24 MVA 1.19 kA -74.86 2.44 kA 1.10 62.84 1.19 1.20 OHL PL5028 to P PL5028 68.24 MVA 1.19 kA 105.14 2.44 kA Feeder PL5043 t TF035 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5043 to P PL5059 0.00 MVA 0.00 kA 0.00 0.00 kA PL5028 33.00 0.00 0.00 1.00 69.53 MVA 1.22 kA -75.46 2.51 kA 1.11 63.71 1.22 1.22 OHL PL5005 to P PL5005 69.53 MVA 1.22 kA 104.54 2.51 kA Feeder PL5028 t TF034 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5028 to P PL5043 0.00 MVA 0.00 kA 0.00 0.00 kA PL5005 33.00 0.00 0.00 1.00 70.86 MVA 1.24 kA -76.07 2.58 kA 1.13 64.60 1.24 1.25 OHL PL5005 to P PL5028 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4007 to P PL4007 70.86 MVA 1.24 kA 103.93 2.58 kA Feeder PL5005 t TF033 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL4007 33.00 0.00 0.00 1.00 72.23 MVA 1.26 kA -76.72 2.66 kA 1.15 65.50 1.26 1.27 OHL PL4005 to P PL4005 OLC 72.23 MVA 1.26 kA 103.28 2.66 kA OHL PL4007 to P PL4008 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4007 to P PL5005 0.00 MVA 0.00 kA 0.00 0.00 kA PL4008 33.00 0.00 0.00 1.00 70.39 MVA 1.23 kA -75.01 2.52 kA 1.13 64.32 1.23 1.24 OHL PL4007 to P PL4007 70.39 MVA 1.23 kA 104.99 2.52 kA OHL PL4008 to O Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4017 0.00 MVA 0.00 kA 0.00 0.00 kA TF033 HV 33.00 0.00 0.00 1.00 70.56 MVA 1.23 kA -75.75 2.56 kA 1.13 64.41 1.23 1.24 TF033 33/0.433k TF033 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5005 t PL5005 70.56 MVA 1.23 kA 104.25 2.56 kA TF034 HV 33.00 0.00 0.00 1.00 69.23 MVA 1.21 kA -75.14 2.48 kA 1.11 63.52 1.21 1.22 TF034 33/0.433k TF034 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5028 t PL5028 69.23 MVA 1.21 kA 104.86 2.48 kA TF035 HV 33.00 0.00 0.00 1.00 67.95 MVA 1.19 kA -74.56 2.41 kA 1.10 62.65 1.19 1.20 TF035 33/0.433k TF035 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5043 t PL5043 67.95 MVA 1.19 kA 105.44 2.41 kA TF033 LV 0.43 0.00 0.00 0.95 22.70 MVA 30.27 kA -79.89 68.00 kA 30.27 22.70 30.27 30.55 TF033 33/0.433k TF033 HV 22.70 MVA 30.27 kA 100.11 68.00 kA TF034 LV 0.43 0.00 0.00 0.95 22.56 MVA 30.08 kA -79.65 67.28 kA 30.08 22.56 30.08 30.36

Page 258: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 15 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF034 33/0.433k TF034 HV 22.56 MVA 30.08 kA 100.35 67.28 kA TF035 LV 0.41 0.00 0.00 0.95 20.60 MVA 28.66 kA -79.42 63.81 kA 28.66 20.60 28.66 28.91 TF035 33/0.433k TF035 HV 20.60 MVA 28.66 kA 100.58 63.81 kA 10TX201 HV 33.00 0.00 0.00 1.00 65.48 MVA 1.15 kA -73.22 2.28 kA 1.07 60.92 1.15 1.15 Feeder REC037 t REC037 65.48 MVA 1.15 kA 106.78 2.28 kA 10TX201 33/0.43 Primary Cr 0.00 MVA 0.00 kA 0.00 0.00 kA Primary Crushing 0.41 0.00 0.00 0.95 20.90 MVA 29.07 kA -80.26 65.79 kA 29.07 20.90 29.07 29.36 10TX201 33/0.43 10TX201 HV 20.90 MVA 29.07 kA 99.74 65.79 kA L-DOL 30kW - 10 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 177. 0.00 MVA 0.00 kA 0.00 0.00 kA REC037 33.00 0.00 0.00 1.00 65.78 MVA 1.15 kA -73.74 2.31 kA 1.07 61.12 1.15 1.16 Feeder REC037 t 10TX201 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL5059 to REC03 PL5059 65.78 MVA 1.15 kA 106.26 2.31 kA Construction Camp 33.00 0.00 0.00 1.00 70.75 MVA 1.24 kA -73.10 2.46 kA 1.13 64.63 1.24 1.24 TF011 33/0.418k LV DB Cons 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU011 t RMU012/SUB 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t PL1075 70.75 MVA 1.24 kA 106.90 2.46 kA RMU012/SUB012 33.00 0.00 0.00 1.00 70.74 MVA 1.24 kA -73.09 2.46 kA 1.13 64.62 1.24 1.24 Feeder RMU011 t Constructi 70.74 MVA 1.24 kA 106.91 2.46 kA TF012 33/0.418k LV SUB012 0.00 MVA 0.00 kA 0.00 0.00 kA Gatehouse RMU 33.00 0.00 0.00 1.00 86.94 MVA 1.52 kA -81.66 3.51 kA 1.30 74.07 1.52 1.54 Gatehouse 33/0. Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU001 86.94 MVA 1.52 kA 98.34 3.51 kA Gatehouse TX LV 0.43 0.00 0.00 0.95 18.83 MVA 25.11 kA -85.22 63.10 kA 25.11 18.83 25.11 25.61 Gatehouse 33/0. Gatehouse 18.83 MVA 25.11 kA 94.78 63.10 kA Ops Office 33kV 33.00 0.00 0.00 1.00 70.21 MVA 1.23 kA -74.84 2.51 kA 1.12 64.20 1.23 1.24 Ops Office 33/0 Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4008 to O PL4008 70.21 MVA 1.23 kA 105.16 2.51 kA Ops Office 415V 0.41 0.00 0.00 0.95 4.17 MVA 5.80 kA -71.29 11.27 kA 5.80 4.17 5.80 5.83 Ops Office 33/0 Ops Office 4.17 MVA 5.80 kA 108.71 11.27 kA PL4017 33.00 0.00 0.00 1.00 70.26 MVA 1.23 kA -74.95 2.51 kA 1.12 64.23 1.23 1.24 Feeder PL4017 t RMU017 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4008 70.26 MVA 1.23 kA 105.05 2.51 kA PS Services 0.43 0.00 0.00 0.95 16.76 MVA 22.35 kA -76.68 47.35 kA 22.35 16.76 22.35 22.51

Page 259: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 16 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF005 11/0.433k PowerStati 16.76 MVA 22.35 kA 103.32 47.35 kA 11MCC202A 690V 0.69 0.00 0.00 0.95 45.55 MVA 38.11 kA -78.17 82.60 kA 37.47 44.78 38.11 38.41 Bustie 11MCC202 11MCC202B 22.77 MVA 19.05 kA 101.84 41.29 kA Feeder to OLC D 11TX202A L 22.78 MVA 19.06 kA 101.82 41.31 kA RC031-MC02 Reclai 0.41 0.00 0.00 0.95 19.68 MVA 27.39 kA -81.87 64.03 kA 27.39 19.68 27.39 27.71 RC031-TF01 11kV RC031 Recl 19.68 MVA 27.39 kA 98.13 64.03 kA 4kW Motor 0.00 MVA 0.00 kA 0.00 0.00 kA 11TX202B LV 0.69 0.00 0.00 0.95 46.20 MVA 38.66 kA -78.59 84.59 kA 37.94 45.34 38.66 38.98 Feeder to OLC D 11MCC202B 18.23 MVA 15.25 kA 105.39 33.37 kA 11TX202B 33/0.7 REC032 OLC 28.05 MVA 23.47 kA 98.82 51.35 kA 11TX202A LV 0.69 0.00 0.00 0.95 46.21 MVA 38.66 kA -78.60 84.60 kA 37.94 45.34 38.66 38.98 11TX202A 33/0.7 REC031 OLC 28.06 MVA 23.48 kA 98.81 51.38 kA Feeder to OLC D 11MCC202A 18.22 MVA 15.25 kA 105.41 33.36 kA Secondary & Terti 0.41 0.00 0.00 0.95 30.17 MVA 41.97 kA -84.86 104.36 kA 41.97 30.17 41.97 42.72 20TX205 11/0.43 20TX205 HV 30.17 MVA 41.97 kA 95.14 104.36 kA L-DOL 150kW Con 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 37kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 34kW 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 37kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 56kW 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL - 37kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL- 56k 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL -132kW 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 45kW 0.00 MVA 0.00 kA 0.00 0.00 kA LV DB Constructio 0.41 0.00 0.00 0.95 27.89 MVA 38.80 kA -79.60 86.62 kA 38.80 27.89 38.80 39.15 TF011 33/0.418k Constructi 27.89 MVA 38.80 kA 100.40 86.62 kA LV SUB012 0.41 0.00 0.00 0.95 27.89 MVA 38.80 kA -79.60 86.61 kA 38.80 27.89 38.80 39.15 TF012 33/0.418k RMU012/SUB 27.89 MVA 38.80 kA 100.40 86.61 kA

Page 260: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Max. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Always Considered Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Max. Loading (Peak) 80.00 % Max. Loading (Interrupting) 80.00 % Max. Loading (Thermal) 80.00 % Fortescue SC-4 DIgSILENT Project: XMAS CREEK Metals Group 6 Generators in Service (No Load Flow) PowerFactory Maximum Short Circuit Currents 14.1.4 Date: 4/24/2013 Study Case: Study Case Annex: / 1 Overloaded Busbars/Terminals Nominal Thermal equivalent Current Peak Short-Circuit Current Name Type Voltage Nominal ( 1.0 s) Actual Loading Nominal Actual Loading [kV] [kA] [kA] [kA] [% ] [kA] [kA] [%] 30TX207B LV 415V 65kA 1s 0.43 65.00 (1s) 65.00 52.52 80.80 0.00 121.21 0.00 30TX207C LV 415V 65kA 1s 0.43 65.00 (1s) 65.00 53.09 81.68 0.00 122.67 0.00 Kiosk Substation Sub018 30kA 0.415V 0.41 30.00 (1s) 30.00 26.30 87.67 0.00 54.26 0.00 Secondary & Tertiray Crushing (20MCC2415V 65kA 1s 0.41 65.00 (1s) 65.00 57.09 87.84 0.00 134.69 0.00

Page 261: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Study Case: Study Case Annex: / 2 Overloaded Branches Thermal equivalent Current Name Type Terminal i Terminal j Nominal(1s) ( 1.0 s) Actual Loading [kA] [kA] [kA] [%] Feeder 20MCC206A to 12TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX203 HV 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 15TX204A HV 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 15TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 12TX204B HV 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 20TX205 HV 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Master 20.. 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 20TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. HPGR Follower .. 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Desands 30TX20.. 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. Jigging 35TX20.. 8.99 8.99 9.10 101.18 Feeder 20MCC206A to 30TX2 Olex 6.35/11kV 95mm Lne OPF2 SS/20MCC2.. 35TX208C HV 8.99 8.99 9.10 101.18 Feeder 20MCC206B to 20TX2 Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump D .. 8.99 8.99 8.76 97.44 Feeder 20MCC206B to Tails Olex 6.35/11kV 95mm Lne 20MCC206B Tails Pump E 3.. 8.99 8.99 8.76 97.44 Feeder HV901 to CV201-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. Plant Output C.. 7.15 7.15 9.11 127.48 Feeder HV901 to CV401-EM0 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. CV401-EM01/EM02 7.15 7.15 9.11 127.48 Feeder HV901 to RC031 600 Olex 6.35/11kV 50mm Lne HV901/Stockyar.. RC031 Reclaimer 7.15 7.15 9.11 127.48 Feeder HV901 to TF801 Tx Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF801 HV - Tra.. 7.15 7.15 9.11 127.48 Feeder HV901 to TF901 20m Olex 6.35/11kV 50mm Lne HV901/Stockyar.. TF901 HV 7.15 7.15 9.11 127.48 Feeder to SK703 Med Point Olex 6.35/11kV 50mm Lne HV901/Stockyar.. SK703-TF01 TX HV 7.15 7.15 9.11 127.48

Page 262: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Fortescue SC-4 DIgSILENT Project: XMAS CREEK Metals Group 6 Generators in Service (No Load Flow) PowerFactory Maximum Short Circuit Currents 14.1.4 Date: 4/24/2013 Verification Short-Circuit Calculation according to IEC60909 3-Phase Short-Circuit / Max. Short-Circuit Currents Asynchronous Motors Grid Identification Short-Circuit Duration Always Considered Automatic Break Time 0.10 s Fault Clearing Time (Ith) 1.00 s Decaying Aperiodic Component (idc) Conductor Temperature c-Voltage Factor Using Method C User Defined No User Defined No Grid: Christmas Creek System Stage: Christmas Creek Annex: / 1 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] HV901 Stockyard Subst 11.00 0.00 0.00 1.10 196.48 MVA 10.31 kA -81.16 24.34 kA 6.38 121.59 6.86 9.11 Alternate Feede HV902-11kV 83.22 MVA 4.37 kA 96.39 10.31 kA FE-04 - PS to H PowerStati 107.74 MVA 5.65 kA 100.62 13.35 kA Feeder HV901 to Plant Outp 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to CV401-EM01 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Reclaimer 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to Train Load 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder HV901 to RC031 Recl 0.04 MVA 0.00 kA 95.71 0.00 kA Feeder HV901 to TF801 HV - 1.45 MVA 0.08 kA 95.95 0.18 kA Feeder HV901 to TF901 HV 0.30 MVA 0.02 kA 103.43 0.04 kA Feeder to SK703 SK703-TF01 3.87 MVA 0.20 kA 102.63 0.48 kA HV902-11kV Stockyard Subst 11.00 0.00 0.00 1.10 196.43 MVA 10.31 kA -81.16 24.34 kA 6.38 121.57 6.86 9.11 Alternate Feede HV901 90.85 MVA 4.77 kA 100.37 11.26 kA OPF1 Incomer 1 OPF1 18.26 MVA 0.96 kA 110.99 2.26 kA Power Station F PowerStati 87.99 MVA 4.62 kA 94.74 10.90 kA MC901 MC901 415V 0.41 0.00 0.00 1.05 9.35 MVA 13.01 kA -83.87 31.91 kA 12.66 9.10 12.30 13.21 TF901 11/0.433k TF901 HV 9.08 MVA 12.63 kA 95.91 30.99 kA 19.5kW Lumped D 0.13 MVA 0.18 kA 112.78 0.44 kA L-DOL 15kW 0.15 MVA 0.20 kA 95.71 0.50 kA MCC902 Turkeys Nest 0.41 0.00 0.00 1.05 10.38 MVA 14.43 kA -67.48 26.62 kA 13.37 9.61 12.72 14.50 MCC902-P-01 Sub018 9.37 MVA 13.03 kA 112.49 24.03 kA 22kW DOL 0.14 MVA 0.20 kA 112.78 0.37 kA

Page 263: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 2 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] L-DOL 132kW 0.87 MVA 1.21 kA 112.78 2.22 kA OPF1 20MCC04 11.00 0.00 0.00 1.10 195.84 MVA 10.28 kA -81.10 24.23 kA 6.38 121.50 6.84 9.09 Feeder HV902 to 20MCC04 17.22 MVA 0.90 kA 110.88 2.13 kA OPF1 Incomer 1 HV902-11kV 178.03 MVA 9.34 kA 97.67 22.03 kA TF008 11/0.433k Sub018 1.05 MVA 0.05 kA 112.83 0.13 kA OPF2 SS 20MCC206A OPF2 11.00 0.00 0.00 1.10 196.21 MVA 10.30 kA -81.17 24.31 kA 6.38 121.49 6.84 9.10 FE-07 to OPF2-A PowerStati 79.04 MVA 4.15 kA 96.13 9.79 kA FE-08 to OPF2-B PowerStati 79.04 MVA 4.15 kA 96.13 9.79 kA Feeder 20MCC206 12TX203 HV 0.50 MVA 0.03 kA 112.58 0.06 kA Feeder 20MCC206 15TX204A H 1.51 MVA 0.08 kA 112.25 0.19 kA Feeder 20MCC206 12TX204B H 2.25 MVA 0.12 kA 112.02 0.28 kA Feeder 20MCC206 20TX205 HV 4.05 MVA 0.21 kA 111.52 0.50 kA Feeder 20MCC206 20TX206A H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Desands 30 2.95 MVA 0.15 kA 111.79 0.37 kA Feeder 20MCC206 Desands 30 3.17 MVA 0.17 kA 111.76 0.39 kA Feeder 20MCC206 Desands 30 4.51 MVA 0.24 kA 107.04 0.56 kA Feeder 20MCC206 Jigging 35 7.10 MVA 0.37 kA 110.30 0.88 kA Feeder 20MCC206 Jigging 35 10.60 MVA 0.56 kA 109.72 1.31 kA Feeder 20MCC206 35TX208C H 2.41 MVA 0.13 kA 102.32 0.30 kA PowerStation Power Station B 11.00 0.00 0.00 1.10 197.88 MVA 10.39 kA -81.34 24.61 kA 6.39 121.74 6.90 9.18 FE-04 - PS to H HV901 12.46 MVA 0.65 kA 111.09 1.55 kA FE-07 to OPF2-A OPF2 SS 19.45 MVA 1.02 kA 109.84 2.42 kA FE-08 to OPF2-B OPF2 SS 19.45 MVA 1.02 kA 109.84 2.42 kA FE-09 PS to TF0 OHL East T 2.73 MVA 0.14 kA 109.45 0.34 kA Feeder PS to TF OHL West T 2.73 MVA 0.14 kA 109.45 0.34 kA Power Station F HV902-11kV 11.38 MVA 0.60 kA 105.93 1.42 kA TF005 11/0.433k PS Service 0.00 MVA 0.00 kA 0.00 0.00 kA Eathing Tx ZigZ 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 01 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 02 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 03 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 04 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 05 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 06 21.92 MVA 1.15 kA -86.88 2.73 kA Generator 07 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 08 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 09 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 10 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 264: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 3 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Generator 11 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 12 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 13 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 14 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 15 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 16 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 17 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 18 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 19 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 20 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 21 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 22 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 23 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 24 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 25 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 26 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 27 0.00 MVA 0.00 kA 0.00 0.00 kA Generator 28 0.00 MVA 0.00 kA 0.00 0.00 kA RMU001 Power StationRM 33.00 0.00 0.00 1.10 138.72 MVA 2.43 kA -82.15 5.82 kA 1.84 105.39 1.76 2.21 Feeder RMU001 t Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU010 Pow 71.27 MVA 1.25 kA 98.14 2.99 kA Feeder TF001 to PL10XX (Fu 0.84 MVA 0.01 kA 112.34 0.04 kA TF001 11/33kV 1 OHL West T 66.64 MVA 1.17 kA 97.36 2.80 kA RMU017 CCY1 33.00 0.00 0.00 1.10 96.08 MVA 1.68 kA -71.42 3.31 kA 1.46 83.63 1.33 1.55 CCY1-RMU017-P1 HV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P2 HV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P3 HV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA CCY1-RMU017-P4 HV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4017 t PL4017 96.08 MVA 1.68 kA 108.58 3.31 kA SWB004 Switchroom Tels 0.43 0.00 0.00 1.05 2.63 MVA 3.50 kA -67.43 6.45 kA 3.50 2.63 3.48 3.52 Feeder TF004 to Telstra Hu 0.00 MVA 0.00 kA 0.00 0.00 kA TF004 100kvA 33 TF004 HV 2.63 MVA 3.50 kA 112.57 6.45 kA Sub018 Kiosk Substatio 0.41 0.00 0.00 1.05 18.78 MVA 26.13 kA -75.13 54.26 kA 25.24 18.14 23.64 26.30 MCC902-P-01 MCC902 0.96 MVA 1.34 kA 113.20 2.78 kA MCC902-P-02 EPCM Offic 0.00 MVA 0.00 kA 0.00 0.00 kA MCC902-P-03 Laboratory 0.00 MVA 0.00 kA 0.00 0.00 kA TF008 11/0.433k OPF1 17.83 MVA 24.81 kA 104.42 51.51 kA

Page 265: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 4 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] THLoad Telstra Hut Loa 0.43 0.00 0.00 1.05 1.45 MVA 1.93 kA -38.40 2.85 kA 1.93 1.45 1.93 1.94 SB004 to Telstr Telstra Hu 1.45 MVA 1.93 kA 141.60 2.85 kA TLO MC801 415V MC801 0.41 0.00 0.00 1.05 10.13 MVA 14.09 kA -82.77 33.72 kA 12.22 8.78 11.74 14.28 Feeder TF801 to TF801 LV - 8.65 MVA 12.03 kA 97.49 28.79 kA 105.4kW Lumped 0.86 MVA 1.19 kA 95.71 2.85 kA L-DOL 75kW 0.62 MVA 0.87 kA 95.71 2.07 kA Telstra Hut Telstra Hut DB 0.43 0.00 0.00 1.05 2.62 MVA 3.49 kA -67.28 6.42 kA 3.49 2.62 3.47 3.51 Feeder TF004 to SWB004 2.62 MVA 3.49 kA 112.72 6.42 kA SB004 to Telstr THLoad 0.00 MVA 0.00 kA 0.00 0.00 kA Reclaimer Conveyo 11.00 0.00 0.00 1.10 195.34 MVA 10.25 kA -81.01 24.12 kA 6.38 121.54 6.84 9.07 Feeder HV901 to HV901 195.34 MVA 10.25 kA 98.99 24.12 kA TF801 HV - Train 11.00 0.00 0.00 1.10 169.20 MVA 8.88 kA -68.02 16.85 kA 6.47 123.19 6.32 7.93 Feeder HV901 to HV901 167.80 MVA 8.81 kA 112.12 16.71 kA TF801 - Train L TF801 LV - 1.45 MVA 0.08 kA 95.83 0.14 kA TF801 LV - Train 0.41 0.00 0.00 1.05 10.49 MVA 14.60 kA -83.42 35.40 kA 12.75 9.16 12.23 14.81 TF801 - Train L TF801 HV - 9.02 MVA 12.55 kA 96.70 30.44 kA Feeder TF801 to TLO MC801 1.47 MVA 2.05 kA 95.85 4.96 kA Train Loadout Con 11.00 0.00 0.00 1.10 185.65 MVA 9.74 kA -75.33 20.67 kA 6.48 123.37 6.66 8.63 Feeder HV901 to HV901 185.65 MVA 9.74 kA 104.67 20.67 kA Reclaimer Conveyo 11.00 0.00 0.00 1.10 194.38 MVA 10.20 kA -79.94 23.52 kA 6.41 122.04 6.82 9.01 Feeder HV901 to HV901 194.38 MVA 10.20 kA 100.06 23.52 kA Plant Output Conv 11.00 0.00 0.00 1.10 185.65 MVA 9.74 kA -75.33 20.67 kA 6.48 123.37 6.66 8.63 Feeder HV901 to HV901 185.65 MVA 9.74 kA 104.67 20.67 kA CV401-EM01/EM02 11.00 0.00 0.00 1.10 145.42 MVA 7.63 kA -58.97 12.97 kA 6.19 117.89 5.78 6.93 Feeder HV901 to HV901 145.42 MVA 7.63 kA 121.03 12.97 kA TF901 HV 11.00 0.00 0.00 1.10 195.44 MVA 10.26 kA -80.55 23.92 kA 6.39 121.81 6.84 9.06 Feeder HV901 to HV901 195.13 MVA 10.24 kA 99.45 23.89 kA TF901 11/0.433k MC901 0.30 MVA 0.02 kA 103.43 0.04 kA 20MCC04 11.00 0.00 0.00 1.10 193.15 MVA 10.14 kA -80.78 23.74 kA 6.36 121.19 6.77 8.96 10TX01 11/0.433 10MCC01 Pr 1.12 MVA 0.06 kA 112.40 0.14 kA Feeder HV902 to OPF1 176.29 MVA 9.25 kA 98.09 21.67 kA 15TX02A 11/0.43 15MCC02A S 1.31 MVA 0.07 kA 112.32 0.16 kA

Page 266: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 5 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 15Tx02B 11/0.43 15MCC02B S 2.44 MVA 0.13 kA 106.09 0.30 kA 20Tx03 3500kVA 20MCC03 Se 5.31 MVA 0.28 kA 111.73 0.65 kA 20TX04A 11/3.3k Desands Ar 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04B 11/1.90 20TX04B De 20TX04B St 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX04C 11/1.90 20TX04C De 20TX04C St 0.00 MVA 0.00 kA 0.00 0.00 kA 30TX05A 11/0.43 30MCC05A 2.10 MVA 0.11 kA 112.13 0.26 kA 30TX05B 11/0.43 30MCC05B 4.97 MVA 0.26 kA 111.04 0.61 kA SK703-TF01 TX HV 11.00 0.00 0.00 1.10 167.29 MVA 8.78 kA -67.25 16.49 kA 6.44 122.71 6.26 7.85 SK703-TF01 11/0 SK703-TF01 3.88 MVA 0.20 kA 102.30 0.38 kA Feeder to SK703 HV901 163.47 MVA 8.58 kA 113.00 16.11 kA SK703-TF01 Stacke 0.43 0.00 0.00 1.05 27.39 MVA 36.52 kA -80.97 84.89 kA 32.32 24.24 29.10 33.98 SK703-TF01 11/0 SK703-TF01 23.11 MVA 30.81 kA 98.23 71.63 kA L-DOL 250kW 2.28 MVA 3.03 kA 95.71 7.05 kA 288.3kW Lumped 2.06 MVA 2.75 kA 111.80 6.38 kA RC031 Reclaimer 11.00 0.00 0.00 1.10 163.39 MVA 8.58 kA -65.62 15.74 kA 6.44 122.61 6.20 7.69 Feeder HV901 to HV901 163.36 MVA 8.57 kA 114.38 15.74 kA RC031-TF01 11kV RC031-MC02 0.04 MVA 0.00 kA 95.71 0.00 kA OHL West TF001 LV 11.00 0.00 0.00 1.10 197.61 MVA 10.37 kA -81.33 24.56 kA 6.39 121.72 6.90 9.17 Feeder PS to TF PowerStati 194.77 MVA 10.22 kA 98.54 24.21 kA TF001 11/33kV 1 RMU001 2.87 MVA 0.15 kA 108.00 0.36 kA OHL East TF012 LV 11.00 0.00 0.00 1.10 197.72 MVA 10.38 kA -81.32 24.58 kA 6.39 121.74 6.90 9.17 FE-09 PS to TF0 PowerStati 194.95 MVA 10.23 kA 98.55 24.23 kA TF012 11/33kV 1 RMU010 Pow 2.81 MVA 0.15 kA 108.03 0.35 kA RMU010 Power Stat 33.00 0.00 0.00 1.10 138.73 MVA 2.43 kA -82.15 5.82 kA 1.84 105.39 1.76 2.21 TF012 11/33kV 1 OHL East T 66.69 MVA 1.17 kA 97.36 2.80 kA PL4001-P1 U/G 1 PL4001 REC 4.69 MVA 0.08 kA 109.14 0.20 kA Feeder RMU001 t RMU001 67.44 MVA 1.18 kA 97.55 2.83 kA PL4001 REC001 33.00 0.00 0.00 1.10 138.52 MVA 2.42 kA -82.06 5.80 kA 1.84 105.32 1.76 2.20 PL4001-P1 U/G 1 RMU010 Pow 133.92 MVA 2.34 kA 97.55 5.61 kA OHL PL4001 to P PL4003 33k 4.69 MVA 0.08 kA 109.14 0.20 kA PL4003 33kV 33.00 0.00 0.00 1.10 129.18 MVA 2.26 kA -79.80 5.17 kA 1.78 101.46 1.67 2.06 OHL PL4001 to P PL4001 REC 124.53 MVA 2.18 kA 99.87 4.98 kA TF042 33/0.418k PL4426 Fue 0.88 MVA 0.02 kA 107.53 0.04 kA Feeder RMU010 t PL4004 OLC 3.82 MVA 0.07 kA 109.44 0.15 kA Tx HV Fuel Unload 33.00 0.00 0.00 1.10 122.83 MVA 2.15 kA -78.42 4.78 kA 1.73 98.91 1.62 1.96 Fuel Unload 33/ Tx LV Fuel 0.84 MVA 0.01 kA 112.33 0.03 kA Feeder from OHL PL10XX (Fu 122.00 MVA 2.13 kA 101.51 4.75 kA

Page 267: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 6 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Tx LV Fuel Unload 0.41 0.00 0.00 1.05 5.60 MVA 7.78 kA -70.70 15.10 kA 6.97 5.01 6.49 7.82 Fuel Unload 33/ Tx HV Fuel 4.73 MVA 6.58 kA 108.64 12.75 kA 150mm Cu XLPE 4 Fuel Unloa 0.87 MVA 1.21 kA 112.92 2.35 kA PL1075 33.00 0.00 0.00 1.10 110.91 MVA 1.94 kA -75.71 4.11 kA 1.63 92.98 1.50 1.78 Feeder PL10062 PL10062 110.91 MVA 1.94 kA 104.29 4.11 kA Feeder PL1075 t PL1081 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t Constructi 0.00 MVA 0.00 kA 0.00 0.00 kA PL10062 33.00 0.00 0.00 1.10 116.21 MVA 2.03 kA -76.91 4.40 kA 1.68 95.74 1.55 1.86 Feeder PL10062 PL1075 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder TF001 to PL10XX (Fu 116.21 MVA 2.03 kA 103.09 4.40 kA Feeder PL10062 TF004 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL1081 33.00 0.00 0.00 1.10 104.83 MVA 1.83 kA -74.36 3.80 kA 1.57 89.57 1.44 1.69 Feeder PL1075 t PL1075 104.83 MVA 1.83 kA 105.64 3.80 kA Feeder PL1081 t Kandama Vi 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Harridan Hill Tow 33.00 0.00 0.00 1.10 101.40 MVA 1.77 kA -73.60 3.63 kA 1.53 87.54 1.40 1.64 Harridan Hill P Harridan H 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder OHL to H PL1081 101.40 MVA 1.77 kA 106.40 3.63 kA REC031 OLC 33.00 0.00 0.00 1.10 104.77 MVA 1.83 kA -73.95 3.76 kA 1.55 88.76 1.42 1.68 Feeder PL4004 t PL4004 OLC 103.42 MVA 1.81 kA 106.17 3.72 kA 11TX202A 33/0.7 11TX202A L 1.37 MVA 0.02 kA 96.27 0.05 kA HV TF017-1 33.00 0.00 0.00 1.10 95.70 MVA 1.67 kA -71.26 3.29 kA 1.46 83.40 1.33 1.55 CCY1-RMU017-P1 RMU017 95.70 MVA 1.67 kA 108.74 3.29 kA TF017-1 33/0.43 LV TF017-1 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-2 33.00 0.00 0.00 1.10 95.80 MVA 1.68 kA -71.30 3.30 kA 1.46 83.46 1.33 1.55 CCY1-RMU017-P2 RMU017 95.80 MVA 1.68 kA 108.70 3.30 kA TF017-2 33/0.43 LV TF017-2 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-3 33.00 0.00 0.00 1.10 95.86 MVA 1.68 kA -71.33 3.30 kA 1.46 83.50 1.33 1.55 CCY1-RMU017-P3 RMU017 95.86 MVA 1.68 kA 108.67 3.30 kA TF017-3 33/0.43 LV TF017-3 0.00 MVA 0.00 kA 0.00 0.00 kA HV TF017-4 33.00 0.00 0.00 1.10 95.69 MVA 1.67 kA -71.25 3.29 kA 1.46 83.40 1.33 1.55 CCY1-RMU017-P4 RMU017 95.69 MVA 1.67 kA 108.75 3.29 kA TF017-4 33/0.43 LV TF017-4 0.00 MVA 0.00 kA 0.00 0.00 kA LV TF017-1 Admin 0.43 0.00 0.00 1.05 14.36 MVA 19.15 kA -82.08 45.18 kA 19.15 14.36 18.36 19.39 TF017-1 33/0.43 HV TF017-1 14.36 MVA 19.15 kA 97.92 45.18 kA

Page 268: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 7 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] LV TF017-2 Ancill 0.43 0.00 0.00 1.05 14.36 MVA 19.15 kA -82.09 45.20 kA 19.15 14.36 18.36 19.39 TF017-2 33/0.43 HV TF017-2 14.36 MVA 19.15 kA 97.91 45.20 kA LV TF017-3 HV W/S 0.43 0.00 0.00 1.05 20.94 MVA 27.92 kA -82.89 67.05 kA 27.92 20.94 26.27 28.31 TF017-3 33/0.43 HV TF017-3 20.94 MVA 27.92 kA 97.11 67.05 kA LV TF017-4 Gulf W 0.43 0.00 0.00 1.05 14.36 MVA 19.15 kA -82.08 45.18 kA 19.15 14.36 18.36 19.39 TF017-4 33/0.43 HV TF017-4 14.36 MVA 19.15 kA 97.92 45.18 kA Kandama Village R 33.00 0.00 0.00 1.10 102.44 MVA 1.79 kA -73.83 3.68 kA 1.54 88.17 1.41 1.65 Feeder PL1081 t PL1081 102.44 MVA 1.79 kA 106.17 3.68 kA 08TF002 33/11kV RMU-05 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-05 11.00 0.00 0.00 1.10 48.36 MVA 2.54 kA -78.46 5.61 kA 2.53 48.25 2.23 2.56 08TF002 33/11kV Kandama Vi 48.36 MVA 2.54 kA 101.54 5.61 kA Connectin RMU-0 RMU-06 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-04 11.00 0.00 0.00 1.10 48.13 MVA 2.53 kA -78.34 5.57 kA 2.52 48.03 2.22 2.55 Tx-004 11/0.415 Waste Wate 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder from Tx0 RMU-06 48.13 MVA 2.53 kA 101.66 5.57 kA Feeder RMU-04 t RMU-03 0.00 MVA 0.00 kA 0.00 0.00 kA Waste Water Treat 0.41 0.00 0.00 1.05 14.00 MVA 19.48 kA -81.16 45.11 kA 19.48 14.00 18.67 19.69 Tx-004 11/0.415 RMU-04 14.00 MVA 19.48 kA 98.84 45.11 kA RMU-06 11.00 0.00 0.00 1.10 48.35 MVA 2.54 kA -78.46 5.61 kA 2.53 48.25 2.23 2.56 Feeder from Tx0 RMU-04 0.00 MVA 0.00 kA 0.00 0.00 kA Connectin RMU-0 RMU-05 48.35 MVA 2.54 kA 101.54 5.61 kA RMU-03 11.00 0.00 0.00 1.10 47.90 MVA 2.51 kA -78.07 5.51 kA 2.51 47.80 2.21 2.54 Feeder RMU-04 t RMU-04 47.90 MVA 2.51 kA 101.93 5.51 kA Feeder RMU-03 t RMU-02 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-003 11/0.415 TX-003 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-02 11.00 0.00 0.00 1.10 47.68 MVA 2.50 kA -77.81 5.46 kA 2.50 47.57 2.20 2.52 Feeder RMU-03 t RMU-03 47.68 MVA 2.50 kA 102.19 5.46 kA Feeder RMU-02 t RMU-01 0.00 MVA 0.00 kA 0.00 0.00 kA Tx-002 11/0.415 TX-002 LV 0.00 MVA 0.00 kA 0.00 0.00 kA RMU-01 11.00 0.00 0.00 1.10 47.45 MVA 2.49 kA -77.55 5.41 kA 2.49 47.35 2.19 2.51 Feeder RMU-02 t RMU-02 47.45 MVA 2.49 kA 102.45 5.41 kA Tx-001 11/0.415 TX-001 LV 0.00 MVA 0.00 kA 0.00 0.00 kA TX-003 LV 0.41 0.00 0.00 1.05 13.98 MVA 19.45 kA -81.07 44.97 kA 19.45 13.98 18.65 19.66 Tx-003 11/0.415 RMU-03 13.98 MVA 19.45 kA 98.93 44.97 kA

Page 269: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 8 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TX-002 LV 0.41 0.00 0.00 1.05 13.96 MVA 19.42 kA -80.99 44.83 kA 19.42 13.96 18.63 19.63 Tx-002 11/0.415 RMU-02 13.96 MVA 19.42 kA 99.01 44.83 kA TX-001 LV 0.41 0.00 0.00 1.05 13.94 MVA 19.40 kA -80.90 44.69 kA 19.40 13.94 18.60 19.60 Tx-001 11/0.415 RMU-01 13.94 MVA 19.40 kA 99.10 44.69 kA Harridan Hill Tow 0.41 0.00 0.00 1.05 2.40 MVA 3.35 kA -67.37 6.16 kA 3.35 2.40 3.32 3.36 Harridan Hill P Harridan H 2.40 MVA 3.35 kA 112.63 6.16 kA 10MCC01 Primary C 0.43 0.00 0.00 1.05 38.76 MVA 51.69 kA -83.13 125.41 kA 50.72 38.04 45.68 52.45 10TX01 11/0.433 20MCC04 37.71 MVA 50.28 kA 96.42 122.00 kA L-DOL 45kW 0.32 MVA 0.43 kA 112.78 1.04 kA 108.5kW DOL 0.78 MVA 1.03 kA 112.78 2.51 kA 15MCC02A Screenin 0.43 0.00 0.00 1.05 37.85 MVA 50.47 kA -83.06 122.34 kA 49.34 37.01 44.48 51.21 15TX02A 11/0.43 20MCC04 36.61 MVA 48.82 kA 96.39 118.35 kA DOL Wet Sizing 0.64 MVA 0.86 kA 112.78 2.08 kA 90kW DOL- 0.64 MVA 0.86 kA 112.78 2.08 kA 15MCC02B Screenin 0.43 0.00 0.00 1.05 38.99 MVA 51.98 kA -82.96 125.86 kA 49.64 37.23 44.48 52.74 15Tx02B 11/0.43 20MCC04 36.57 MVA 48.76 kA 96.40 118.06 kA L-DOL-90kW 0.89 MVA 1.19 kA 95.71 2.89 kA 222kW DOL 1.59 MVA 2.11 kA 112.78 5.12 kA 20MCC03 Secondary 0.41 0.00 0.00 1.05 46.07 MVA 64.10 kA -81.69 152.53 kA 60.00 43.12 51.42 64.93 20Tx03 3500kVA 20MCC04 41.19 MVA 57.31 kA 96.50 136.37 kA Feeder Area 15 Area 20 MC 4.48 MVA 6.23 kA 113.24 14.83 kA L-DOL 90kW 0.59 MVA 0.82 kA 112.78 1.96 kA Area 20 MCC03 20C 0.41 0.00 0.00 1.05 28.98 MVA 40.32 kA -72.81 80.80 kA 35.43 25.47 31.35 37.02 Feeder Area 15 20MCC03 Se 24.13 MVA 33.57 kA 106.07 67.28 kA L-DOL Lube 2 Co 0.98 MVA 1.37 kA 112.78 2.74 kA L-DOL Dust Extr 0.87 MVA 1.21 kA 112.78 2.42 kA DOL 74kW 0.49 MVA 0.68 kA 112.78 1.35 kA DOL 74kW(1) 0.49 MVA 0.68 kA 112.78 1.35 kA L-DOL Lube 1 Co 0.98 MVA 1.37 kA 112.78 2.74 kA DOL 163kW 1.07 MVA 1.49 kA 112.78 2.98 kA Desands Area 15/2 3.30 0.00 0.00 1.10 40.03 MVA 7.00 kA -83.56 17.09 kA 7.00 40.03 6.35 7.11 20TX04A 11/3.3k 20MCC04 40.03 MVA 7.00 kA 96.44 17.09 kA PL4426 Fuel Stora 0.42 0.00 0.00 1.05 5.74 MVA 7.92 kA -71.62 15.58 kA 6.86 4.96 6.55 7.97 TF042 33/0.418k PL4003 33k 4.81 MVA 6.64 kA 108.60 13.06 kA L-DOL Loading P 0.30 MVA 0.42 kA 95.71 0.83 kA 94kW Motor Lump 0.63 MVA 0.88 kA 112.78 1.72 kA

Page 270: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 9 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 20TX04B Delta LV 1.90 0.00 0.00 1.10 24.50 MVA 7.43 kA -83.84 18.20 kA 7.43 24.50 6.98 7.55 20TX04B 11/1.90 20MCC04 20TX04B St 24.50 MVA 7.43 kA 96.16 18.20 kA 20TX04B Star LV 1.90 0.00 0.00 1.10 24.50 MVA 7.43 kA -83.84 18.20 kA 7.43 24.50 6.98 7.55 20TX04B 11/1.90 20MCC04 20TX04B De 24.50 MVA 7.43 kA 96.16 18.20 kA 20TX04C Delta LV 1.90 0.00 0.00 1.10 24.50 MVA 7.43 kA -83.84 18.20 kA 7.43 24.50 6.98 7.55 20TX04C 11/1.90 20MCC04 20TX04C St 24.50 MVA 7.43 kA 96.16 18.20 kA 20TX04C Star LV 1.90 0.00 0.00 1.10 24.50 MVA 7.43 kA -83.84 18.20 kA 7.43 24.50 6.98 7.55 20TX04C 11/1.90 20MCC04 20TX04C De 24.50 MVA 7.43 kA 96.16 18.20 kA 30MCC05A 0.43 0.00 0.00 1.05 42.27 MVA 56.36 kA -82.75 136.04 kA 54.63 40.97 48.52 57.16 30TX05A 11/0.43 20MCC04 40.27 MVA 53.69 kA 96.45 129.60 kA L-DOL 110kW 0.79 MVA 1.05 kA 112.78 2.53 kA DOL 181kW 1.29 MVA 1.72 kA 112.78 4.16 kA 30MCC05B 0.43 0.00 0.00 1.05 41.55 MVA 55.40 kA -81.59 131.65 kA 51.51 38.63 44.48 56.12 30TX05B 11/0.43 20MCC04 36.47 MVA 48.63 kA 96.36 115.56 kA L-DOL 150kW 1.07 MVA 1.43 kA 112.78 3.40 kA DOL 587kW 4.19 MVA 5.59 kA 112.78 13.29 kA 12TX203 HV 11.00 0.00 0.00 1.10 178.15 MVA 9.35 kA -74.76 19.63 kA 6.39 121.81 6.46 8.30 Feeder 20MCC206 OPF2 SS 177.66 MVA 9.32 kA 105.22 19.57 kA 12TX203 11/0.43 Reclaim Tu 0.50 MVA 0.03 kA 112.57 0.06 kA Reclaim Tunnel Ar 0.43 0.00 0.00 1.05 31.49 MVA 41.99 kA -82.32 99.92 kA 41.52 31.14 38.19 42.53 12TX203 11/0.43 12TX203 HV 31.02 MVA 41.36 kA 97.44 98.44 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL 22kW Conv 0.16 MVA 0.22 kA 112.78 0.52 kA DOL 44kW 0.32 MVA 0.43 kA 112.78 1.02 kA 15TX204A HV 11.00 0.00 0.00 1.10 186.78 MVA 9.80 kA -77.70 21.66 kA 6.40 121.97 6.64 8.67 Feeder 20MCC206 OPF2 SS 185.29 MVA 9.73 kA 102.22 21.49 kA 15TX204A 11/0.4 15TX204A S 1.51 MVA 0.08 kA 112.23 0.18 kA 15TX204A Scrubber 0.43 0.00 0.00 1.05 36.70 MVA 48.93 kA -82.36 116.95 kA 47.64 35.73 43.00 49.59 15TX204A 11/0.4 15TX204A H 35.26 MVA 47.02 kA 97.00 112.38 kA L-DOL 90kW(1) 0.64 MVA 0.86 kA 112.78 2.05 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA DOL 193kW 0.84 MVA 1.13 kA 112.78 2.69 kA 12TX204B HV 11.00 0.00 0.00 1.10 186.50 MVA 9.79 kA -77.59 21.58 kA 6.40 121.95 6.63 8.66 Feeder 20MCC206 OPF2 SS 184.28 MVA 9.67 kA 102.29 21.33 kA 12TX204B 11/0.4 12TX204B S 2.25 MVA 0.12 kA 111.99 0.26 kA

Page 271: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 10 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 12TX204B Scrubber 0.43 0.00 0.00 1.05 38.33 MVA 51.10 kA -82.03 121.55 kA 49.25 36.93 44.01 51.77 12TX204B 11/0.4 12TX204B H 36.15 MVA 48.20 kA 97.06 114.65 kA L-DOL- 90kW 0.64 MVA 0.86 kA 112.78 2.04 kA DOL Lumped 225. 1.61 MVA 2.15 kA 112.78 5.11 kA 20TX205 HV 11.00 0.00 0.00 1.10 195.10 MVA 10.24 kA -80.74 23.97 kA 6.38 121.57 6.82 9.04 Feeder 20MCC206 OPF2 SS 191.14 MVA 10.03 kA 99.00 23.48 kA 20TX205 11/0.43 Secondary 4.05 MVA 0.21 kA 111.51 0.50 kA 20TX206A HV 11.00 0.00 0.00 1.10 195.13 MVA 10.24 kA -80.82 24.01 kA 6.38 121.55 6.82 9.05 Feeder 20MCC206 OPF2 SS 195.13 MVA 10.24 kA 99.18 24.01 kA 20TX206A 11/3.3 20TX206A L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206A LV 3.30 0.00 0.00 1.10 49.33 MVA 8.63 kA -83.41 21.01 kA 8.63 49.31 7.66 8.76 20TX206A 11/3.3 20TX206A H 49.33 MVA 8.63 kA 96.59 21.01 kA Feeder 20TX206A 20MCC206B 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master 20TX2 11.00 0.00 0.00 1.10 195.04 MVA 10.24 kA -80.73 23.96 kA 6.38 121.59 6.82 9.04 Feeder 20MCC206 OPF2 SS 195.04 MVA 10.24 kA 99.27 23.96 kA 20TX206B 11/1.9 20TX206B L 20TX206B L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206B LV Delta 1.90 0.00 0.00 1.10 22.68 MVA 6.87 kA -83.88 16.86 kA 6.87 22.68 6.49 6.98 20TX206B 11/1.9 HPGR Maste 20TX206B L 22.68 MVA 6.87 kA 96.12 16.86 kA 20TX206B LV Star 1.90 0.00 0.00 1.10 22.68 MVA 6.87 kA -83.88 16.86 kA 6.87 22.68 6.49 6.98 20TX206B 11/1.9 HPGR Maste 20TX206B L 22.68 MVA 6.87 kA 96.12 16.86 kA HPGR Follower 20T 11.00 0.00 0.00 1.10 195.04 MVA 10.24 kA -80.73 23.96 kA 6.38 121.59 6.82 9.04 Feeder 20MCC206 OPF2 SS 195.04 MVA 10.24 kA 99.27 23.96 kA 20TX206C 1kv/2x 20TX206C L 20TX206C L 0.00 MVA 0.00 kA 0.00 0.00 kA 20TX206C LV Delta 1.90 0.00 0.00 1.10 22.68 MVA 6.87 kA -83.88 16.86 kA 6.87 22.68 6.49 6.98 20TX206C 1kv/2x HPGR Follo 20TX206C L 22.68 MVA 6.87 kA 96.12 16.86 kA 20TX206C LV Star 1.90 0.00 0.00 1.10 22.68 MVA 6.87 kA -83.88 16.86 kA 6.87 22.68 6.49 6.98 20TX206C 1kv/2x HPGR Follo 20TX206C L 22.68 MVA 6.87 kA 96.12 16.86 kA Desands 30TX207A 11.00 0.00 0.00 1.10 177.98 MVA 9.34 kA -74.65 19.56 kA 6.38 121.64 6.44 8.29 Feeder 20MCC206 OPF2 SS 175.04 MVA 9.19 kA 105.24 19.24 kA 30TX207A 11/0.4 30TX207A L 2.95 MVA 0.16 kA 111.70 0.32 kA 30TX207A LV 0.41 0.00 0.00 1.05 34.55 MVA 48.07 kA -81.13 112.42 kA 45.76 32.89 40.67 48.63 30TX207A 11/0.4 Desands 30 31.88 MVA 44.35 kA 97.68 103.72 kA L-DOL 110kW 0.72 MVA 1.00 kA 112.78 2.35 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA

Page 272: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 11 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 310. 2.04 MVA 2.84 kA 112.78 6.64 kA Desands 30TX207B 11.00 0.00 0.00 1.10 178.03 MVA 9.34 kA -74.66 19.57 kA 6.38 121.64 6.44 8.29 30TX207B 11/0.4 30TX207B L 3.18 MVA 0.17 kA 111.66 0.35 kA Feeder 20MCC206 OPF2 SS 174.87 MVA 9.18 kA 105.22 19.22 kA 30TX207B LV 0.43 0.00 0.00 1.05 38.94 MVA 51.92 kA -81.02 121.21 kA 49.34 37.00 43.67 52.52 30TX207B 11/0.4 Desands 30 35.80 MVA 47.74 kA 97.74 111.45 kA L-DOL 110kW 0.79 MVA 1.05 kA 112.78 2.45 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 343. 2.45 MVA 3.27 kA 112.78 7.63 kA Desands 30TX207C 11.00 0.00 0.00 1.10 178.27 MVA 9.36 kA -74.76 19.63 kA 6.38 121.60 6.44 8.30 Feeder 20MCC206 OPF2 SS 173.75 MVA 9.12 kA 105.20 19.13 kA 30TX207C 11/0.4 30TX207C L 4.52 MVA 0.24 kA 106.89 0.50 kA 30TX207C LV 0.43 0.00 0.00 1.05 39.36 MVA 52.48 kA -81.06 122.67 kA 48.31 36.23 42.43 53.09 30TX207C 11/0.4 Desands 30 34.65 MVA 46.20 kA 97.68 108.00 kA L-DOL 120kW 1.33 MVA 1.77 kA 95.71 4.13 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA Lumped DOL 489k 3.49 MVA 4.66 kA 112.78 10.89 kA Jigging 35TX208A 11.00 0.00 0.00 1.10 185.70 MVA 9.75 kA -77.25 21.34 kA 6.40 121.95 6.60 8.62 Feeder 20MCC206 OPF2 SS 178.64 MVA 9.38 kA 102.46 20.53 kA 35TX208A 11/0.4 Jigging 35 7.12 MVA 0.37 kA 110.16 0.82 kA Jigging 35TX208A 0.43 0.00 0.00 1.05 42.56 MVA 56.75 kA -80.00 131.17 kA 51.17 38.38 42.70 51.95 35TX208A 11/0.4 Jigging 35 34.81 MVA 46.41 kA 97.08 107.28 kA Static Var Syst 0.00 MVA 0.00 kA 0.00 0.00 kA L-DOL -110kW 0.79 MVA 1.05 kA 112.78 2.42 kA Lumped DOL 1009 7.21 MVA 9.61 kA 112.78 22.22 kA Jigging 35TX208B 11.00 0.00 0.00 1.10 186.17 MVA 9.77 kA -77.38 21.43 kA 6.40 121.99 6.60 8.63 Feeder 20MCC206 OPF2 SS 175.61 MVA 9.22 kA 102.21 20.21 kA 35TX208B 11/0.4 Jigging 35 10.64 MVA 0.56 kA 109.52 1.23 kA Jigging 35TX208B 0.43 0.00 0.00 1.05 52.12 MVA 69.50 kA -79.06 158.34 kA 61.24 45.93 48.65 62.21 35TX208B 11/0.4 Jigging 35 39.97 MVA 53.30 kA 97.26 121.44 kA L-DOL - 150kW 1.07 MVA 1.43 kA 112.78 3.26 kA Lumped-DOL 1599 11.42 MVA 15.23 kA 112.78 34.70 kA 35TX208C HV 11.00 0.00 0.00 1.10 185.01 MVA 9.71 kA -77.10 21.23 kA 6.40 121.95 6.60 8.59 Feeder 20MCC206 OPF2 SS 182.59 MVA 9.58 kA 102.91 20.95 kA 35TX208C 11/0.4 35TX208C L 2.41 MVA 0.13 kA 102.27 0.28 kA 35TX208C LV 0.43 0.00 0.00 1.05 29.90 MVA 39.87 kA -82.67 95.76 kA 37.40 28.05 34.12 40.42

Page 273: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 12 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] 35TX208C 11/0.4 35TX208C H 27.44 MVA 36.58 kA 96.84 87.87 kA L-DOL 150kW 1.47 MVA 1.96 kA 95.71 4.70 kA Lumped DOL - 14 1.04 MVA 1.38 kA 112.78 3.32 kA 20MCC206B 3.30 0.00 0.00 1.10 49.32 MVA 8.63 kA -83.40 21.00 kA 8.63 49.30 7.66 8.76 Feeder 20TX206A 20TX206A L 49.32 MVA 8.63 kA 96.60 21.00 kA Feed to Cone Cr Cone Crush 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 Tails Pump 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master VSD 2 0.69 0.00 0.00 1.05 16.00 MVA 13.39 kA -76.40 28.35 kA 13.39 16.00 12.85 13.48 20TX207D 3.3kV/ Tails Pump HPGR Maste 16.00 MVA 13.39 kA 103.60 28.35 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Master Star 0.69 0.00 0.00 1.05 16.00 MVA 13.39 kA -76.40 28.35 kA 13.39 16.00 12.85 13.48 20TX207D 3.3kV/ Tails Pump HPGR Maste 16.00 MVA 13.39 kA 103.60 28.35 kA Feeder HPGR Mas HPGR Main 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump D 3.3 3.30 0.00 0.00 1.10 37.09 MVA 6.49 kA -66.60 11.87 kA 6.49 37.09 5.98 6.52 20TX207D 3.3kV/ HPGR Maste HPGR Maste 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 37.09 MVA 6.49 kA 113.40 11.87 kA HPGR Follower Del 0.69 0.00 0.00 1.05 15.98 MVA 13.37 kA -76.33 28.29 kA 13.37 15.98 12.84 13.47 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.98 MVA 13.37 kA 103.67 28.29 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA HPGR Follower Sta 0.69 0.00 0.00 1.05 15.98 MVA 13.37 kA -76.33 28.29 kA 13.37 15.98 12.84 13.47 20TX207E 3.3kV/ Tails Pump HPGR Follo 15.98 MVA 13.37 kA 103.67 28.29 kA Feeder HPGR Fol HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Tails Pump E 3.3k 3.30 0.00 0.00 1.10 36.99 MVA 6.47 kA -66.48 11.82 kA 6.47 36.99 5.96 6.50 20TX207E 3.3kV/ HPGR Follo HPGR Follo 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder 20MCC206 20MCC206B 36.99 MVA 6.47 kA 113.52 11.82 kA 11MCC202B 690V 0.69 0.00 0.00 1.05 61.06 MVA 51.09 kA -76.70 109.47 kA 49.33 58.95 42.36 51.48 11TX202C 700/43 11MCC202C 2.12 MVA 1.78 kA 109.77 3.81 kA Bustie 11MCC202 11MCC202A 29.48 MVA 24.67 kA 103.06 52.85 kA Feeder to OLC D 11TX202B L 29.47 MVA 24.66 kA 103.07 52.83 kA REC032 OLC 33.00 0.00 0.00 1.10 104.72 MVA 1.83 kA -73.94 3.76 kA 1.55 88.73 1.42 1.68 Feeder PL4005 t PL4005 OLC 103.36 MVA 1.81 kA 106.19 3.71 kA 11TX202B 33/0.7 11TX202B L 1.39 MVA 0.02 kA 96.00 0.05 kA 11MCC202C OLC MCC 0.41 0.00 0.00 1.05 11.71 MVA 16.29 kA -79.82 37.53 kA 14.23 10.23 12.66 15.05 11TX202C 700/43 11MCC202B 9.36 MVA 13.02 kA 96.94 29.99 kA L-DOL - 150kW 0.98 MVA 1.37 kA 112.78 3.15 kA

Page 274: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 13 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] Lumped DOL 219. 1.44 MVA 2.01 kA 112.78 4.62 kA EPCM Office 0.41 0.00 0.00 1.05 9.33 MVA 12.98 kA -68.29 24.22 kA 12.78 9.19 12.36 13.04 MCC902-P-02 Sub018 9.33 MVA 12.98 kA 111.71 24.22 kA Laboratory 0.41 0.00 0.00 1.05 9.33 MVA 12.98 kA -68.29 24.22 kA 12.78 9.19 12.36 13.04 MCC902-P-03 Sub018 9.33 MVA 12.98 kA 111.71 24.22 kA Cone Crushers 3.3 3.30 0.00 0.00 1.10 47.98 MVA 8.39 kA -80.68 19.32 kA 8.39 47.98 7.48 8.48 Feed to Cone Cr 20MCC206B 47.98 MVA 8.39 kA 99.32 19.32 kA HPGR Main Motor 2 0.69 0.00 0.00 1.05 15.70 MVA 13.14 kA -75.24 27.26 kA 13.14 15.70 12.63 13.22 Feeder HPGR Mas HPGR Maste 15.70 MVA 13.14 kA 104.76 27.26 kA HPGR Main Motor 2 0.69 0.00 0.00 1.05 15.70 MVA 13.14 kA -75.24 27.26 kA 13.14 15.70 12.63 13.22 Feeder HPGR Mas HPGR Maste 15.70 MVA 13.14 kA 104.76 27.26 kA HPGR Follower Mot 0.69 0.00 0.00 1.05 15.68 MVA 13.12 kA -75.17 27.21 kA 13.12 15.68 12.61 13.21 Feeder HPGR Fol HPGR Follo 15.68 MVA 13.12 kA 104.83 27.21 kA HPGR Follower Mot 0.69 0.00 0.00 1.05 15.68 MVA 13.12 kA -75.17 27.21 kA 13.12 15.68 12.61 13.21 Feeder HPGR Fol HPGR Follo 15.68 MVA 13.12 kA 104.83 27.21 kA PL10XX (Fuel Unlo 33.00 0.00 0.00 1.10 122.86 MVA 2.15 kA -78.42 4.79 kA 1.73 98.93 1.62 1.96 Feeder TF001 to RMU001 122.03 MVA 2.13 kA 101.50 4.75 kA Feeder from OHL Tx HV Fuel 0.84 MVA 0.01 kA 112.33 0.03 kA Feeder TF001 to PL10062 0.00 MVA 0.00 kA 0.00 0.00 kA Fuel Unload RCDOS 0.41 0.00 0.00 1.05 3.82 MVA 5.31 kA -58.47 9.15 kA 4.17 2.99 3.99 4.81 150mm Cu XLPE 4 Tx LV Fuel 2.88 MVA 4.01 kA 126.19 6.91 kA L-DOL 30kW(1) 0.30 MVA 0.42 kA 95.71 0.72 kA 120kW Lumped 0.68 MVA 0.95 kA 112.78 1.64 kA TF004 HV 33.00 0.00 0.00 1.10 116.18 MVA 2.03 kA -76.90 4.40 kA 1.67 95.72 1.55 1.86 TF004 100kvA 33 SWB004 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL10062 PL10062 116.18 MVA 2.03 kA 103.10 4.40 kA PL4004 OLC A 33.00 0.00 0.00 1.10 105.43 MVA 1.84 kA -74.33 3.81 kA 1.56 89.09 1.43 1.69 Feeder RMU010 t PL4003 33k 101.59 MVA 1.78 kA 105.53 3.67 kA Feeder PL4004 t REC031 OLC 1.13 MVA 0.02 kA 109.61 0.04 kA OHL PL4004 to P PL4005 OLC 2.72 MVA 0.05 kA 109.17 0.10 kA PL4005 OLC B 33.00 0.00 0.00 1.10 105.38 MVA 1.84 kA -74.32 3.81 kA 1.56 89.06 1.43 1.69 Feeder PL4005 t REC032 OLC 1.15 MVA 0.02 kA 109.04 0.04 kA OHL PL4004 to P PL4004 OLC 102.64 MVA 1.80 kA 105.59 3.71 kA OHL PL4005 to P PL4007 1.59 MVA 0.03 kA 108.84 0.06 kA

Page 275: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 14 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] PL5059 33.00 0.00 0.00 1.10 93.85 MVA 1.64 kA -71.79 3.25 kA 1.43 81.92 1.30 1.52 OHL PL5043 to P PL5043 92.26 MVA 1.61 kA 108.20 3.20 kA PL5059 to REC03 REC037 1.59 MVA 0.03 kA 108.80 0.06 kA PL5043 33.00 0.00 0.00 1.10 95.96 MVA 1.68 kA -72.25 3.35 kA 1.46 83.29 1.33 1.55 OHL PL5028 to P PL5028 94.37 MVA 1.65 kA 107.73 3.30 kA Feeder PL5043 t TF035 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5043 to P PL5059 1.59 MVA 0.03 kA 108.81 0.06 kA PL5028 33.00 0.00 0.00 1.10 98.16 MVA 1.72 kA -72.73 3.46 kA 1.48 84.69 1.35 1.58 OHL PL5005 to P PL5005 96.57 MVA 1.69 kA 107.24 3.40 kA Feeder PL5028 t TF034 HV 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL5028 to P PL5043 1.59 MVA 0.03 kA 108.82 0.06 kA PL5005 33.00 0.00 0.00 1.10 100.46 MVA 1.76 kA -73.24 3.57 kA 1.51 86.12 1.38 1.62 OHL PL5005 to P PL5028 1.59 MVA 0.03 kA 108.82 0.06 kA OHL PL4007 to P PL4007 98.87 MVA 1.73 kA 106.73 3.51 kA Feeder PL5005 t TF033 HV 0.00 MVA 0.00 kA 0.00 0.00 kA PL4007 33.00 0.00 0.00 1.10 102.86 MVA 1.80 kA -73.76 3.68 kA 1.53 87.58 1.40 1.65 OHL PL4005 to P PL4005 OLC 101.28 MVA 1.77 kA 106.19 3.63 kA OHL PL4007 to P PL4008 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4007 to P PL5005 1.59 MVA 0.03 kA 108.83 0.06 kA PL4008 33.00 0.00 0.00 1.10 99.56 MVA 1.74 kA -72.15 3.47 kA 1.50 85.77 1.37 1.60 OHL PL4007 to P PL4007 99.56 MVA 1.74 kA 107.85 3.47 kA OHL PL4008 to O Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4017 0.00 MVA 0.00 kA 0.00 0.00 kA TF033 HV 33.00 0.00 0.00 1.10 99.93 MVA 1.75 kA -72.93 3.53 kA 1.50 85.84 1.37 1.61 TF033 33/0.433k TF033 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5005 t PL5005 99.93 MVA 1.75 kA 107.07 3.53 kA TF034 HV 33.00 0.00 0.00 1.10 97.65 MVA 1.71 kA -72.43 3.42 kA 1.48 84.41 1.35 1.57 TF034 33/0.433k TF034 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5028 t PL5028 97.65 MVA 1.71 kA 107.57 3.42 kA TF035 HV 33.00 0.00 0.00 1.10 95.47 MVA 1.67 kA -71.96 3.32 kA 1.45 83.01 1.32 1.54 TF035 33/0.433k TF035 LV 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL5043 t PL5043 95.47 MVA 1.67 kA 108.04 3.32 kA TF033 LV 0.43 0.00 0.00 1.05 27.17 MVA 36.23 kA -79.43 81.22 kA 36.20 27.15 33.53 36.57 TF033 33/0.433k TF033 HV 27.17 MVA 36.23 kA 100.57 81.22 kA TF034 LV 0.43 0.00 0.00 1.05 27.00 MVA 36.01 kA -79.24 80.42 kA 35.97 26.98 33.33 36.33

Page 276: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 15 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF034 33/0.433k TF034 HV 27.00 MVA 36.01 kA 100.76 80.42 kA TF035 LV 0.41 0.00 0.00 1.05 24.65 MVA 34.29 kA -79.06 76.33 kA 34.26 24.63 31.76 34.60 TF035 33/0.433k TF035 HV 24.65 MVA 34.29 kA 100.94 76.33 kA 10TX201 HV 33.00 0.00 0.00 1.10 91.36 MVA 1.60 kA -70.88 3.12 kA 1.40 80.30 1.28 1.48 Feeder REC037 t REC037 89.77 MVA 1.57 kA 109.12 3.07 kA 10TX201 33/0.43 Primary Cr 1.59 MVA 0.03 kA 108.78 0.05 kA Primary Crushing 0.41 0.00 0.00 1.05 26.36 MVA 36.67 kA -79.56 82.71 kA 35.22 25.32 32.22 37.03 10TX201 33/0.43 10TX201 HV 24.93 MVA 34.68 kA 99.92 78.21 kA L-DOL 30kW - 10 0.30 MVA 0.42 kA 95.71 0.94 kA Lumped DOL 177. 1.16 MVA 1.62 kA 112.78 3.65 kA REC037 33.00 0.00 0.00 1.10 91.83 MVA 1.61 kA -71.35 3.16 kA 1.41 80.57 1.28 1.48 Feeder REC037 t 10TX201 HV 1.59 MVA 0.03 kA 108.79 0.05 kA PL5059 to REC03 PL5059 90.23 MVA 1.58 kA 108.64 3.11 kA Construction Camp 33.00 0.00 0.00 1.10 98.54 MVA 1.72 kA -69.88 3.33 kA 1.51 86.27 1.38 1.59 TF011 33/0.418k LV DB Cons 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU011 t RMU012/SUB 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL1075 t PL1075 98.54 MVA 1.72 kA 110.12 3.33 kA RMU012/SUB012 33.00 0.00 0.00 1.10 98.52 MVA 1.72 kA -69.88 3.33 kA 1.51 86.26 1.38 1.59 Feeder RMU011 t Constructi 98.52 MVA 1.72 kA 110.12 3.33 kA TF012 33/0.418k LV SUB012 0.00 MVA 0.00 kA 0.00 0.00 kA Gatehouse RMU 33.00 0.00 0.00 1.10 128.48 MVA 2.25 kA -77.33 4.91 kA 1.79 102.03 1.68 2.05 Gatehouse 33/0. Gatehouse 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder RMU001 t RMU001 128.48 MVA 2.25 kA 102.67 4.91 kA Gatehouse TX LV 0.43 0.00 0.00 1.05 22.13 MVA 29.51 kA -84.67 73.66 kA 29.51 22.13 27.77 30.06 Gatehouse 33/0. Gatehouse 22.13 MVA 29.51 kA 95.33 73.66 kA Ops Office 33kV 33.00 0.00 0.00 1.10 99.24 MVA 1.74 kA -71.99 3.45 kA 1.50 85.59 1.36 1.60 Ops Office 33/0 Ops Office 0.00 MVA 0.00 kA 0.00 0.00 kA OHL PL4008 to O PL4008 99.24 MVA 1.74 kA 108.01 3.45 kA Ops Office 415V 0.41 0.00 0.00 1.05 4.68 MVA 6.51 kA -71.09 12.62 kA 6.51 4.68 6.42 6.54 Ops Office 33/0 Ops Office 4.68 MVA 6.51 kA 108.91 12.62 kA PL4017 33.00 0.00 0.00 1.10 99.32 MVA 1.74 kA -72.10 3.46 kA 1.50 85.63 1.37 1.60 Feeder PL4017 t RMU017 0.00 MVA 0.00 kA 0.00 0.00 kA Feeder PL4008 t PL4008 99.32 MVA 1.74 kA 107.90 3.46 kA PS Services 0.43 0.00 0.00 1.05 19.44 MVA 25.93 kA -75.59 54.16 kA 25.93 19.44 24.70 26.10

Page 277: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Grid: Christmas Creek System Stage: Christmas Creek Annex: / 16 rtd.V. Voltage c- Sk" Ik" ip Ib Sb Ik Ith [kV] [kV] [deg] Factor [MVA/MVA] [kA/kA] [deg] [kA/kA] [kA] [MVA] [kA] [kA] TF005 11/0.433k PowerStati 19.44 MVA 25.93 kA 104.41 54.16 kA 11MCC202A 690V 0.69 0.00 0.00 1.05 61.06 MVA 51.09 kA -76.70 109.47 kA 49.33 58.95 42.36 51.48 Bustie 11MCC202 11MCC202B 31.58 MVA 26.42 kA 103.52 56.62 kA Feeder to OLC D 11TX202A L 29.48 MVA 24.67 kA 103.06 52.85 kA RC031-MC02 Reclai 0.41 0.00 0.00 1.05 23.16 MVA 32.23 kA -81.57 75.32 kA 32.17 23.12 30.31 32.60 RC031-TF01 11kV RC031 Recl 23.13 MVA 32.18 kA 98.43 75.20 kA 4kW Motor 0.04 MVA 0.05 kA 95.71 0.12 kA 11TX202B LV 0.69 0.00 0.00 1.05 61.78 MVA 51.69 kA -77.02 111.50 kA 49.91 59.64 42.96 52.09 Feeder to OLC D 11MCC202B 25.44 MVA 21.29 kA 106.02 45.92 kA 11TX202B 33/0.7 REC032 OLC 36.40 MVA 30.46 kA 100.87 65.70 kA 11TX202A LV 0.69 0.00 0.00 1.05 61.78 MVA 51.70 kA -77.02 111.52 kA 49.91 59.65 42.97 52.10 11TX202A 33/0.7 REC031 OLC 36.41 MVA 30.47 kA 100.85 65.73 kA Feeder to OLC D 11MCC202A 25.43 MVA 21.28 kA 106.03 45.90 kA Secondary & Terti 0.41 0.00 0.00 1.05 40.50 MVA 56.34 kA -82.04 134.69 kA 52.80 37.95 46.39 57.09 20TX205 11/0.43 20TX205 HV 36.80 MVA 51.20 kA 96.43 122.41 kA L-DOL 150kW Con 0.98 MVA 1.37 kA 112.78 3.27 kA L-DOL 37kW 0.24 MVA 0.34 kA 112.78 0.81 kA Lumped DOL 34kW 0.22 MVA 0.31 kA 112.78 0.74 kA L-DOL 37kW 0.24 MVA 0.34 kA 112.78 0.81 kA Lumped DOL 56kW 0.37 MVA 0.51 kA 112.78 1.22 kA L-DOL - 37kW 0.24 MVA 0.34 kA 112.78 0.81 kA Lumped DOL- 56k 0.37 MVA 0.51 kA 112.78 1.22 kA L-DOL -132kW 0.87 MVA 1.21 kA 112.78 2.88 kA Lumped DOL 45kW 0.30 MVA 0.41 kA 112.78 0.98 kA LV DB Constructio 0.41 0.00 0.00 1.05 33.89 MVA 47.15 kA -79.07 105.11 kA 47.12 33.87 43.03 47.58 TF011 33/0.418k Constructi 33.89 MVA 47.15 kA 100.93 105.11 kA LV SUB012 0.41 0.00 0.00 1.05 33.89 MVA 47.15 kA -79.07 105.10 kA 47.12 33.87 43.03 47.57 TF012 33/0.418k RMU012/SUB 33.89 MVA 47.15 kA 100.93 105.10 kA

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110

Appendix E Hand Calculations to Verify Software Accuracy

Appendix E.1 20 Generator Operating Scenario

Figure 7 Hand Calculations 20 Generators OHL Power Station to Karntama Village

Type MVA x"d MVA Rating

Combined MVA Rating

(MVA)

MVA Method

Hand Calc Isc (kA)

Simulated Isc IEC 60909 (Min)

Simulated Isc IEC 60909 (Max)

% Error IEC 60909

(Min)

% Error IEC 60909 (Max)

Simulated Isc

Complete (Min)

Simulated Isc

Complete (Max)

% Error Complete

(Min)

% Error Complete

(Max)20 Generators 3.259 0.163 399.8773006 20.988115 20.915 23.007 -0.35% 9.62% 21.023 21.05 0.17% 0.29%

Z Voltage (kV)0.002971 11 122160.6028 398.5726235 20.919637 20.85 22.936 -0.33% 9.64% 20.958 20.985 0.18% 0.31%MVA %Z10 5.00% 200 133.1743577 2.329947 2.305 2.536 -1.07% 8.84% 2.336 2.346 0.26% 0.69%Z Voltage (kV)3.40427 33 319.8923964 94.02911171 1.6450828 1.671 1.86 1.58% 13.06% 1.686 1.712 2.49% 4.07%MVA %Z5 5.00% 100 48.46134216 2.4329712 2.338 2.583 -3.90% 6.17% 2.462 2.476 1.19% 1.77%Z Voltage (kV)0.046038 11.5 8617.943149 48.190353 2.4193664 2.325 2.571 -3.90% 6.27% 2.449 2.465 1.22% 1.89%MVA %Z1 5.40% 18.51851852 13.37774008 18.611185 18.619 19.574 0.04% 5.17% 18.897 18.92 1.54% 1.60%

Average Error -1.13% 8.40%

Average Error 1.01% 1.52%

4.07%Largest

Error -3.90%Largest

Error 2.49%

Cable 3x 321m 240mm 1C CuTransformer WWTP TX004

13.06%

Cable OHL Krypton 11.03 kmTansformer 08TF002 33/11.5kV

Cable 3x 30m 800mm 1C AlTansformer TF001 11/33kV 10MVA

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111

20 Generators= 399.877 MVA

(3.259 * 20)0.163

= 122160.6 MVA

Transformer TF001 – 11/33kV, 10MVA, 5%

100.05

= 200 MVA

Cable – OHL Krypton 11.03km= 319.89 MVA

Transformer 08TF002 – 33/11kV, 5MVA, 5%

50.05

= 100 MVA

Cable –3x 1C Cu 240mm 321m= 8617.94 MVA

Cable 3x 800mm Al 30m3 * 112

0.002971

332

3.40427

3 * 11.52

0.046038

Transformer WWTP TX004 – 11/0.415kV, 1MVA, 5.4%

= 18.52 MVA

10.054

Figure 8 MVA Rating 20 Generators in Service

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112

Appendix E.2 Maximum Demand - 27 Generator Operating Scenario

Figure 9 Hand Calculations 27 Generators OHL Power Station to Karntama Village

Type MVA x"d MVA Rating

Combined MVA Rating

(MVA)

MVA Method

Hand Calc Isc (kA)

Simulated Isc IEC 60909 (Min)

Simulated Isc IEC 60909 (Max)

% Error IEC 60909

(Min)

% Error IEC 60909 (Max)

Simulated Isc

Complete (Min)

Simulated Isc

Complete (Max)

% Error Complete

(Min)

% Error Complete

(Max)27 Generators 3.259 0.163 539.8343558 28.333956 28.235 31.059 -0.35% 9.62% 28.358 28.293 0.08% -0.14%

Z Voltage (kV)0.002971 11 122160.6028 537.4592939 28.209297 28.118 30.93 -0.32% 9.64% 28.239 28.267 0.11% 0.20%MVA %Z10 5.00% 200 145.7597181 2.5501337 2.521 2.773 -1.14% 8.74% 2.555 2.564 0.19% 0.54%Z Voltage (kV)3.40427 33 319.8923964 100.1336063 1.7518838 1.779 1.982 1.55% 13.14% 1.793 1.823 2.35% 4.06%MVA %Z5 5.00% 100 50.03337928 2.5118943 2.414 2.667 -3.90% 6.17% 2.54 2.556 1.12% 1.76%Z Voltage (kV)0.046038 11.5 8617.943149 49.74457612 2.4973952 2.402 2.654 -3.82% 6.27% 2.527 2.543 1.19% 1.83%MVA %Z1 5.40% 18.51851852 13.494786 18.77402 17.861 19.762 -4.86% 5.26% 19.068 19.092 1.57% 1.63%

Average Error -1.84% 8.41%

Average Error 0.94% 1.41%

4.06%

Cable 3x 30m 800mm 1C AlTansformer TF001 11/33kV 10MVACable OHL Krypton 11.03 kmTansformer 08TF002 33/11.5kVCable 3x 321m 240mm 1C CuTransformer WWTP TX004

Largest Error -4.86%

Largest Error 13.14% 2.35%

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113

27 Generators= 539.834 MVA

= 122160.6 MVA

Transformer TF001 – 11/33kV, 10MVA, 5%= 200 MVA

Cable – OHL Krypton 11.03km= 319.89 MVA

Transformer 08TF002 – 33/11kV, 5MVA, 5%= 100 MVA

Cable –3x 1C Cu 240mm 321m= 8617.94 MVA

Cable 3x 800mm Al 30m

Transformer WWTP TX004 – 11/0.415kV, 1MVA, 5.4%

= 18.52 MVA

r x0.189 0.244 0.3086373

Kryptonz = 𝒙𝟐 + 𝒓𝟐

r x0.001101 0.00276 0.0029715

1C Al 800mm²z = 𝒙𝟐 + 𝒓𝟐

r x0.0754 0.122 0.1434195

240mm² 1C Cuz = 𝒙𝟐 + 𝒓𝟐

Figure 10 MVA Rating 27 Generators in Service

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114

Appendix F Generator and Alternator Manufacturers Data Sheet

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A.D.S.

FRAME HV 80 WWINDING 83

RATINGS REFER TO SALES AND SERVICE BRIEFING MAXIMUM ALTITUDE 1000 METRES ABOVE SEA LEVEL MAXIMUM AMBIENT TEMPERATURE 40º C

CONTROL SYSTEM SERIES 3 SEPARATELY EXCITED BY P.M.G. A.V.R. MA330 VOLTAGE REGULATION ± 0.5% WITH 4% ENGINE GOVERNING SUSTAINED SHORT CIRCUIT REFER TO SHORT CIRCUIT DECREMENT CURVES OF THIS SECTION

INSULATION SYSTEM CLASS F PROTECTION IP23 STANDARD RATED POWER FACTOR 0.8 STATOR WINDING DOUBLE LAYER LAP WINDING PITCH TWO THIRDS WINDING LEADS 6 R.F.I. SUPPRESSION BS EN 50081/2-1/2 VDE 0875G VDE 0875N For other standards apply to the factory WAVEFORM DISTORTION NO LOAD < 1.5% NON-DISTORTING BALANCED LINEAR LOAD < 3.0% MAXIMUM OVERSPEED 2250 Rev/Min BEARING DRIVE END ISO 6236 C3 BEARING NON DRIVE END ISO 6324 C3 EFFICIENCY REFER TO EFFICIENCY CURVES OF THIS SECTION

FREQUENCY 50Hz TELEPHONE INTERFERENCE COOLING AIR VOLTAGE STAR (Y) 10500 11000 kVA BASE RATING FOR REACTANCE VALUES Xd DIRECT AXIS SYNCHRONOUS 2.724 2.600 X'd DIRECT AXIS TRANSIENT 0.227 0.221 X''d DIRECT AXIS SUB-TRANSIENT 0.169 0.163 Xq QUADRATURE AXIS REACTANCE 1.760 1.780 X''q QUAD. AXIS SUB-TRANSIENT 0.284 0.277 XL LEAKAGE REACTANCE 0.110 0.102 X2 NEGATIVE PHASE SEQUENCE 0.219 0.212 X0 ZERO PHASE SEQUENCE 0.035 0.035 REACTANCES ARE SATURATED T'd TRANSIENT TIME CONSTANT T''d SUB-TRANSIENT TIME CONSTANT T'do O.C. FIELD TIME CONSTANT Ta ARMATURE TIME CONSTANT SHORT CIRCUIT RATIO STATOR WINDING RESISTANCE (L-N) ROTOR WINDING RESISTANCE EXCITER STATOR FIELD RESISTANCE EXCITER ROTOR RESISTANCE (L-L) PMG STATOR RESISTANCE (L-L)

RESISTANCE VALUES ARE IN OHMS AT 20º C

NO LOAD EXCITATION VOLTAGE 17.0 FULL LOAD EXCITAION VOLTAGE 70.0

ISSUE 5 11/01/04

2.700

0.32941.47017.000.092

1/Xd

THF< 2%4.0 m3/sec

VALUES ARE PER UNIT AT RATING AND VOLTAGE INDICATED0.2250.0164.9500.072

3111 3259

Continuous development of our products entitles us to change specification details without notice,therefore they must not be regarded as binding.

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FRAME HV 80 W WDG 83 50 Hz

THREE PHASE EFFICIENCY CURVES

10500 V

% P.F.

3111.0 kVA

3111 kVA

11000 V

% P.F.

3259 kVA

ISSUE 5 11/01/04

0.8

0.9

1.0

93.0

93.5

94.0

94.5

95.0

95.5

96.0

96.5

97.0

97.5

0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1.0 1.1

0.8

0.9

1.0

93.0

93.5

94.0

94.5

95.0

95.5

96.0

96.5

97.0

97.5

0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1.0 1.1

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FRAME HV 80 W WDG 83 50Hz MA330 AVRLOCKED ROTOR MOTOR STARTING CURVE

X

FRAME HV 80 W WDG 83 50Hz

Three Phase Short Circuit Decrement CurveNo- Load Excitation at Rated Speed

Based on series star (wye) connection

x NOTE 1

THE FOLLOWING MULTIPLICATION FACTORS SHOULD BE USEDTO ADJUST THE VALUES FROM CURVES BETWEEN THE 0.001

SECONDS AND THE MINIMUM CURRENT POINT IN RESPECT OF

NOMINAL OPERATING VOLTAGE :

VOLTAGE FACTOR10500V X 1.0011000V X 1.05

THE SUSTAINED CURRENT VALUE IS CONSTANT IRRESPECTIVE OF VOLTAGE LEVEL.

NOTE 2THE FOLLOWING MULTIPLICATION FACTORS SHOULD BE USED

TO CONVERT THE VALUES CALCULATED IN ACCORDANCE

WITH NOTE 1 TO THOSE APPLICABLE TO THE VARIOUS TYPES OF SHORT CIRCUIT :

3 PHASE 2 PHASE L-L 1 PHASE L-N

INSTANTANEOUS X 1.0 X 0.87 X 1.30MINIMUM X 1.0 X 1.80 X 3.20SUSTAINED X 1.0 X 1.50 X 2.50MAX. SUSTAINED 10 SEC 5 SEC 2 SEC

ALL OTHER TIMES ARE UNCHANGED

SUSTAINED SHORT CIRCUIT = 513 Amps

ISSUE 5 11/01/04

0

5

10

15

20

25

30

0 500 1000 1500 2000 2500 3000 3500 4000 4500 5000

LOCKED ROTOR kVA

PER

CEN

T TR

AN

SIEN

T VO

LTA

GE

DIP

10500V 11000V

100

1000

10000

0.001 0.01 0.1 1 10TIME (secs)

CUR

RENT

(Am

ps)

SYMMETRICAL

ASYMMETRICAL

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115

Appendix G Minor Projects

Appendix G.1 Waste Water Treatment Plant (WWTP) Lighting and Small Power Cable

Calculation, SY_P5

Page 287: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

Kantama 240V Lighting + Small Power Distribution Board Feeder Cable SY-P5 (REV_B)

Reference

Length of Cable (L), meters 60 Est. 121209RC - KV HV Aerial Photo Rough Measure 2

Burial Depth, meters 1 Minimum is 1m as per 8.1.5 of 100-sp-el-0001

Ambient Temperature 45°C As Per Construction Camp Cable Calc J. Bunko

Ground Temperature 30 °C 100-sp-el-0001

Voltage Drop Permissible (V p ) 5% AS/NZS 3000:2007 3.6.2 (pg131)

Voltage Drop Feeder to Distribution Board (FMG Spec) 1% 100-sp-el-0001 7.6.2 (pg 24), Refer Calculation Notes

Cable Type/Install Buried one XLPE cable in one conduit 100-sp-el-0001

Max Operating Cable Temperature XLPE Insulated - 90°C 100-sp-el-0001

Thermal Resistivity of the Soil 1.2°C.m/W 100-sp-el-0001

Voltage at Start of Line (V Start ) 415 Using 415 As a More Conservative Figure

Derating Factors Amount Reference

Soil Temperature 0.97 AS/NZS 3008.1.1:2009 Table 27(2) Column 6

Depth of Burial (1m) 0.96 AS/NZS 3008.1.1:2009 Table 28(2) Column 3

Thermal Resistivity of Soil (1.2°C.m/W) 1 AS/NZS 3008.1.1:2009 Table 29 Column 4

Total Derating Factors (D F ) 0.9312 D F = D Temp-Soil x D Depth x D TherRes

Maximum Current Carrying Capacity Required (A) 100 Using CB Pickup Current

25mm² Cable 4C + E (I CCC ) 107 AS/NZS 3008.1.1:2009 Table 14 Column 25 (pg 62)

25mm ² Derated Cable Capacity 99.6384 I D = D F x I CCC

35mm² Cable 4C + E (I CCC ) 130 AS/NZS 3008.1.1:2009 Table 14 Column 25 (pg 62)

35mm ² Derated Cable Capacity 121.056 I D = D F x I CCC

Derating Factors Amount Reference

Air Ambient Temperature 0.94 AS/NZS 3008.1.1:2009 Table 27(1) Column 9

Layout - One Cable Ladder Support, 4 Circuits, 3 Trefoil Single Core

and 1 Multi Core Spaced (See Note 1.0 Layout Below) 1

Extrapolated using AS/NZS 3008.1.1:2009 Table 23, Row 18

and Table 24, Row16.

Total Derating Factors (D F ) 0.94 D F = D TempA x D Layout

Current Carrying Capacity Required(A) 100 Estimating using 0.9 of the CB ratings (loads)

25mm ² Cable 4C+E 91 AS/NZS 3008.1.1:2009 Table 14 Column 11

25mm ² Derated Cable Capacity 85.54 I D = D F x I CCC

35mm ² Cable 4C+E 114 AS/NZS 3008.1.1:2009 Table 14 Column 11

35mm ² Derated Cable Capacity 107.16 I D = D F x I CCC

X C Reactance Ω/km @ 50Hz 0.0786 AS/NZS 3008.1.1:2009 Table 30 Column 10

R C Impedance Ω/km @ 50Hz 0.668 AS/NZS 3008.1.1:2009 Table 34 Column 5

Z C Polar Form at 60m 0.0403565

Voltage Drop Length 60m 5.591960611 Vdrop = √3 x (Imax / n) x Zc with 20% spare

Voltage at End of Line 409.4080394 V = Vstart - Vloss

%Vdrop 1.35% % Voltage Drop

Initial Temperature of Cable (XLPE) X-90 90°C Assume Maximum Operating Temperature

Final Temperature of Cable (XLPE0 X-90 250°C AS/NZS 3008.1.1:2009 Table 53

Constant (K) 143 AS/NZS 3008.1.1:2009 Table 52 (90,250)

Conductor Size (S) mm² 35

XLPE 35mm² 4C+E Cu Conductor

Note 1.0 Layout

35mm ² Cable will produce a voltage drop of <4%.

Short-Circuit Energy Test

Cable Calculation for Cable SY-P5 Connected from CB to DB (Refer CSB-SL-001)Assumptions

Current Carrying Capacity Test

Option A - Installation of Cable Buried 1.5m in Conduit

35mm ² Cable is the minimum size to supply required maximum current to load

XLPE 35mm² 4C+E Cu Conductor

Current Carrying Capacity Test

35mm ² Cable is the minimum size to supply required maximum current to load

Voltage Drop of Conductor Test

Option B - Installation of Cable in Ladder Single Circuit

Generator cables may be in same tray as this cable SY-P5. 4 x 240mm2

Solid 1C Cu XLPE cables are used for generators. Being conservative it is assumed that all cables are in one ladder

support. The derating factor for spaced multicore and spaced singlecore is 1. Calculating the cables diameters permits enough room to space the conductors as per AS3000 and will fit in

the ladder support.

1 21/02/2013

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Kantama 240V Lighting + Small Power Distribution Board Feeder Cable SY-P5 (REV_B)

Max Permissable Energy Through Cable - (x10^6) K2

S2

25.05 AS/NZS 3008.1.1:2009 5.3(1)

Max Short-Circuit Current Through Breaker (I2

t) (x10^6) 4 NHP S160-NJ Terasaki Technical Guide (pg 39)

Is I2

t < K2

S2

?

Maximum Route Length Meters (Lmax) 31.90883191 Reference

Where: AS/NZS 3000:2007 B5.2.2 (pg 363)

U O = nominal phase volts 240

p = resistivity of copper at normal working temperature

(Ωmm2

/m) 0.0225

I a = trip current setting for the instantaneous operation of CB

(Amps) Currently set at 13x 2080

S ph = cross-sectional area of the active conductor (mm2

)35

S pe = cross-sectional area of the earthing conductor (mm2

)

10

\\Intranet\projects\T155 Chichester Expansion\Documents\04

Construction\4.02 Execution Plans\4.02.02

Electrical\Photos\Karntama\Power Station Install\DSC03568.JPG

Is actual distance < L max ? NO

Maximum Route Length Meters (Lmax) 69.13580247 Reference

Where: AS/NZS 3000:2007 B5.2.2 (pg 363)

U O = nominal phase volts 240

p = resistivity of copper at normal working temperature

(Ωmm2

/m) 0.0225

Ia = trip current setting for the instantaneous operation of CB

(Amps) Changed to 6x In 960

S ph = cross-sectional area of the active conductor (mm2

)35

S pe = cross-sectional area of the earthing conductor (mm2

)10

\\Intranet\projects\T155 Chichester Expansion\Documents\04

Construction\4.02 Execution Plans\4.02.02

Electrical\Photos\Karntama\Power Station Install\DSC03568.JPG

Is actual distance < L max ? YES

Maximum Route Length Meters (Lmax) 51.28205128 Reference

Where: AS/NZS 3000:2007 B5.2.2 (pg 363)

U O = nominal phase volts240

p = resistivity of copper at normal working temperature

(Ωmm2

/m) 0.0225

I a = trip current setting for the instantaneous operation of CB

(Amps) 2080

S ph = cross-sectional area of the active conductor (mm2

) 25

S pe = cross-sectional area of the earthing conductor (mm2

)25

\\Intranet\projects\T155 Chichester Expansion\Documents\04

Construction\4.02 Execution Plans\4.02.02

Electrical\Photos\Karntama\Power Station Install\DSC03568.JPG

Is actual distance < L max ? NO

Maximum Route Length Meters (Lmax) 71.79487179 Reference

Where: AS/NZS 3000:2007 B5.2.2 (pg 363)

U O = nominal phase volts 240

p = resistivity of copper at normal working temperature

(Ωmm2

/m) 0.0225

I a = trip current setting for the instantaneous operation of CB

(Amps) 2080

S ph = cross-sectional area of the active conductor (mm2

)35

S pe = cross-sectional area of the earthing conductor (mm2

)35

\\Intranet\projects\T155 Chichester Expansion\Documents\04

Construction\4.02 Execution Plans\4.02.02

Electrical\Photos\Karntama\Power Station Install\DSC03568.JPG

Solution 1 - What Instantaneous Pickup Current (Ii) Setting on Circuit Breaker is Needed to Pass Fault Loop Impedance?

XLPE 35mm² 4C+E Cu Conductor - Change CB Instantaneous Current Setting

Solution 2 - What earth diameter will provide a satisfactory fault loop impedance test?

XLPE 25mm² 4C+E Cu Conductor - Larger Earth Conductor

XLPE 35mm² 4C+E Cu Conductor - Larger Earth Conductor

YES the cable is adequately protected by the CB

Earth Fault Loop Impedance Test

XLPE 35mm² 4C+E Cu Conductor OLEX Catalogue

2 21/02/2013

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Kantama 240V Lighting + Small Power Distribution Board Feeder Cable SY-P5 (REV_B)

Is actual distance < L max ? YES

2) Add a larger earth conductor to replace existing

Calculation Test XLPE 25mm² 4C+E Cu XLPE 35mm² 4C+E Cu

Current Carrying Capacity FAIL PASS

Voltage Drop PASS PASS

Short Circuit Energy PASS PASS

Earth Fault Loop Impedance - With maximum

instantaneous trip setting & no supplemental earth

conductor (existing)

FAIL FAIL

1) Earth Fault Loop Impedance - Solution 1 FAIL PASS

2) Earth Fault Loop Impedance - Solution 2 FAIL PASS

Initial Temperature of Cable (XLPE) X-90 90°C Assume Maximum Operating Temperature

Final Temperature of Cable (XLPE0 X-90 250°C AS/NZS 3008.1.1:2009 Table 53

Constant (K) 143 AS/NZS 3008.1.1:2009 Table 52 (90,250)

Conductor Size (S) mm² 50

Max Permissable Energy Through Cable - (x10^6) K2

S2 51.12 AS/NZS 3008.1.1:2009 5.3(1)

Max Short-Circuit Current Through Breaker (I2

t) (x10^6) 4 NHP S160-NJ Terasaki Technical Guide (pg 39)

Is I2

t < K2

S2

?

Maximum Route Length Meters (Lmax) 64.64646465 Reference

Where: AS/NZS 3000:2007 B5.2.2 (pg 363)

U O = nominal phase volts 240

p = resistivity of copper at normal working temperature

(Ωmm2

/m) 0.0225

I a = trip current setting for the instantaneous operation

of CB (Amps) Changing Dial to 10x 1600

S ph = cross-sectional area of the active conductor

(mm2

) 50

XLPE 50mm² 4C+E Cu Conductor OLEX Catalogue

SY-P5 Cable WWTP visually inspected and confirmed to be 50mm² XLPE 4C+E. The calculation below details the short circuit and earth fault loop

impedance. Current Carrying Capacity and Voltage Drop Tests are not required as previous calculations (above) have determined a minimum

cable smaller than 50mm².

REVISION B

Short-Circuit Energy Test

XLPE 50mm² 4C+E Cu Conductor

YES the cable is adequately protected by the CB

Earth Fault Loop Impedance Test

Final Cable Selection and Solution

XLPE 35mm² 4C+E Cu with Solution 1 (Changing Circuit Breaker Instantaneous Current Dial from 13x to 6x)

These are ordered in favour of reducing cost and time

1) Change Instantaneous Pickup Current (Ii) of the circuit breaker to from 13x to 6x.

Although FMG specs, 100-sp-el-0001, specifies 1% voltage drop from feeder to distribution board, this calculation has been based on a more

reasonable industry standard of 5%, defined by AS/NZS 3000:2007 3.6.2.

Earth fault loop impedance test failed, meaning when there is an earth fault the fault current may not be large enough for the circuit breaker to

operate within the specified time. In order to achieve the maximum route length, as per AS3000, two recommendation solutions have been

offered. These are:

Outcome

Calculation Notes

3 21/02/2013

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Kantama 240V Lighting + Small Power Distribution Board Feeder Cable SY-P5 (REV_B)

S pe = cross-sectional area of the earthing conductor

(mm2

)

16

\\Intranet\projects\T155 Chichester

Expansion\Documents\04 Construction\4.02

Execution Plans\4.02.02

Electrical\Photos\Karntama\Power Station

Install\DSC03568.JPG

Is actual distance < L max ? YES

Calculation TestShort Circuit Energy

Fault Loop Impedance ( CB Ia dial set to 10x)

Prepared by: Nicholas Sweetman Date: 18/02/2013

Checked by: Jason Bunko Date: 18/02/2013

Prepared by: Nicholas Sweetman Date: 21/02/2013

Checked by: Jason Bunko Date: 21/02/2013

XLPE 50mm² 4C+E Cu

PASS

PASS

In order to pass earth fault loop impedance test, the circuit breaker instantaneous trip setting dial needs to be reduced from 13x to 10x.

Outcome

XLPE 50mm² 4C+E Cu passes all tests and complies with Australian Standards

Revision A

Revision B

4 21/02/2013

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117

Appendix G.2 Kandama Generators 240V 6mm2 Cable Calculations

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Derating Factors Amount Reference

Air Ambient Temperature 0.94 AS/NZS 3008.1.1:2009 Table 27(1) Column 9

Layout - One Cable Ladder Support, 6

Circuits Touching (See Note 1.0 above) 0.88

Extrapolated using AS/NZS 3008.1.1:2009 Table 23,

Row 18 and Table 24, Row16.

Total Derating Factors (D F ) 0.8272 D F = D TempA x D Layout

Current Carrying Capacity Required(A) 32 CB size

6mm ² Cable 4C+E 38 AS/NZS 3008.1.1:2009 Table 14 Column 11

6mm ² Derated Cable Capacity 31.4336 I D = D F x I CCC

Derating Factors Amount Reference

Air Ambient Temperature 0.94 AS/NZS 3008.1.1:2009 Table 27(1) Column 9

Layout - One Cable Ladder Support, 6

Circuits, Trefoil Single Cores and 1 Multi

Core Spaced (See Note 1.0 Layout Below) 1

Extrapolated using AS/NZS 3008.1.1:2009 Table 23,

Row 18 and Table 24, Row16.

Total Derating Factors (D F ) 0.94 D F = D TempA x D Layout

Current Carrying Capacity Required(A) 32 CB size

6mm ² Cable 4C+E 38 AS/NZS 3008.1.1:2009 Table 14 Column 11

6mm ² Derated Cable Capacity 35.72 I D = D F x I CCC

Prepared By: Nicholas Sweetman Date: 22/02/2013

Checked By: Jason Bunko Date: 22/02/2013

Outcome

Generator power cables (4 x 240mm2

Solid 1C Cu XLPE and 2 x 400mm2

) are in same ladder support as these cables. This cable is

connected to each generator (G1-P3, G2-P3, G3-P3) at an estimated distance of 10m.

This cable calculation is to check the installation that contractors are performing on site. Final size and cable selection is to be

determined by the contractor. Recommendation is for the cable to be spaced from other circuits by 1 cable diameter as seen in

calculation 2.

Cable Calculation for Kandama 240V 6mm² Cables from Generator to Common Controls Termination Strip

Calculation 2 - Installation of Cable in Ladder Spaced

Note 1.0 Layout

Calculation 1 - Installation of Cable in Ladder Touching

Current Carrying Capacity

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118

Appendix G.3 Recloser 1 (REC001) West OHL Fault

Figure 11 REC001 NuLEC ADVC Cntroller

Figure 12 Trip Settings for REC001

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119

REC001 Phase A Voltage Waveform

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A Current (A)B Current (A)C Current (A)Earth Current (A)A I-side Voltage (V)B I-side Voltage (V)C I-side Voltage (V)A X-side Voltage (V)B X-side Voltage (V)C X-side Voltage (V)

Waveform Capture

Time (msec)1,000950900850800750700650600550500450400350300250200150100500

Vol

tage

(V)

28,000

27,000

26,000

25,000

24,000

23,000

22,000

21,000

20,000

19,000

18,000

17,000

16,000

15,000

14,000

13,000

12,000

11,000

10,000

9,000

8,000

7,000

6,000

5,000

4,000

3,000

2,000

1,000

0

-1,000

-2,000

-3,000

-4,000

-5,000

-6,000

-7,000

-8,000

-9,000

-10,000

-11,000

-12,000

-13,000

-14,000

-15,000

-16,000

-17,000

-18,000

-19,000

-20,000

-21,000

-22,000

-23,000

-24,000

-25,000

-26,000

-27,000

-28,000

-29,000

-30,000

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120

REC001 Phase A Current Waveform

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A Current (A)B Current (A)C Current (A)Earth Current (A)A I-side Voltage (V)B I-side Voltage (V)C I-side Voltage (V)A X-side Voltage (V)B X-side Voltage (V)C X-side Voltage (V)

Waveform Capture

Time (msec)1,000950900850800750700650600550500450400350300250200150100500

Cur

rent

(A)

27

26.5

26

25.5

25

24.5

24

23.5

23

22.5

22

21.5

21

20.5

20

19.5

19

18.5

18

17.5

17

16.5

16

15.5

15

14.5

14

13.5

13

12.5

12

11.5

11

10.5

10

9.5

9

8.5

8

7.5

7

6.5

6

5.5

5

4.5

4

3.5

3

2.5

2

1.5

1

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121

REC001 Phase A Earth Fault Waveform

Page 299: researchrepository.murdoch.edu.au...Title: Power System Modelling and Analysis of Christmas Creek Mine Site Author: Nic Subject: ENG450 Engineering Internship Final Report Created

A Current (A)B Current (A)C Current (A)Earth Current (A)A I-side Voltage (V)B I-side Voltage (V)C I-side Voltage (V)A X-side Voltage (V)B X-side Voltage (V)C X-side Voltage (V)

Waveform Capture

Time (msec)1,000950900850800750700650600550500450400350300250200150100500

Cur

rent

(A)

6

5.95

5.9

5.85

5.8

5.75

5.7

5.65

5.6

5.55

5.5

5.45

5.4

5.35

5.3

5.25

5.2

5.15

5.1

5.05

5

4.95

4.9

4.85

4.8

4.75

4.7

4.65

4.6

4.55

4.5

4.45

4.4

4.35

4.3

4.25

4.2

4.15

4.1

4.05

4

3.95

3.9

3.85

3.8

3.75

3.7

3.65

3.6

3.55

3.5

3.45

3.4

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122

REC001 Waveform Capture Settings (Omitted)

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123

Appendix I Maximum Demand Spreadsheet OPF1 (Omitted)

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124

Appendix J Maximum Demand Spreadsheet OPF2 (Omitted)

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125

Appendix K Transformer Nameplate 10TX201

Figure 13 Transformer Nameplate 10TX201