pak mkii€¦ · · 2014-03-28pak mkii investigate dynamic signals the pak mkii is a compact,...

P A K M K I Iinvestigate dynamic signals

The PAK MKII is a compact, highly integrated system for the

measurement and output of precise, high-speed analog and

digital signals. Both standard and complex multi-channel tasks

are addressed by the same modular platform which can be

freely configured as small troubleshooting solutions or large,

distributed systems.

PAK MKII

4 |

a d d r e s s i n g

single structured

solution

| 5

t roubleshoot ing

mobile appl icat ions

high channel density appl icat ions

testbench appl icat ions

distr ibuted systems

6 |

Systems start at 2 channels

Measures analog parameters such as:

Voltage

Acceleration

Pulse-period

Sound

Strain

Force

Pressure

Displacement

Temperature

Interfaces with

GPS

IRIG

CAN

FlexRay™

EtherCAT®

Accommodates all of the above in any

combination, in any Mainframe

Rugged, conduction cooled and compact

with an extremely high channel density

Synchronizes multiple distributed Mainframes

located up to 1000 m from a central switch

High dynamic range with optimized low noise

performance and distortion

204.8 kSa/s with 24-bit dynamic range

Readily expandable

Local storage on an internal Solid-State Disk

ACQUIRE

and more

Outputs analog voltage

| 7

systemTIGHT INTEGRATION FOR RESULTS OF high QUALITY

ANALYZE

PAK MKII hardware is tightly integrated with PAK software and forms a formidable hardware/software partnership. The resulting system environment combines highly modular, multi-channel data acquisition hardware with high performance analysis, graphical processing and integrated data management. PAK software supports:

• High-performance real-time analysis with different sampling groups in parallel

• A wide range of applications addressing standard to highly specialized measurements

• PAK Easy Measurement interface with interactive graphic parameters provides simplified operation

• Storage of raw time domain data as well as analyzed data

• Close monitoring of test candidate behavior while post-processing results quickly

• Standard data formats for importing and exporting measurement data easily

MANAGE

A reliable and accessible data base solution is available for storing, browsing, filtering and viewing ASAM ODS compatible data. As time domain or throughput data is stored, it is possible to use the acquired data for online analysis or for offline analysis at a later stage.

8 |

All PAK MKII Mainframes

are rugged, lightweight and

portable. With its compact

form factor, channel

footprint and density is

optimized.

This image shows a 2, 3,

4, 6 and 10-slot Mainframe

placed behind one another

in real size. Scale 1:1

0-10 10 20 30 40 50 60 70 80 90 100 110 120 130 140 150 160 170 180 190 200 210 220 230 240 250 260 270 280

mm

60

70

50

40

20

30

10

0

mm

140

150

130

120

100

110

90

80

220

231

210

200

180

190

170

160

real s ize

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MEASUREMENT AND monitoring of

sIGNALS

Modules to accommodate every signal typeBy having access to all required parameters in one system, a high level of phase accuracy is achieved as analog and digital signals are sampled at exactly the same time. A wide range of Signal Conditioning Modules exist to:

• Measure parameters such as voltage, acceleration, pulse-period, sound, strain, force, pressure, displacement and temperature

• Output analog voltages

• Interface with GPS, IRIG, CAN, FlexRay™ and EtherCAT®

Signal integr i ty bui l t upon strong infrastructureGood signal conditioning combined with high speed data handling is paramount to any front end. The PAK MKII accomplishes this through advanced signal conditioning supported by powerful digital circuitry and data handling capabilities. This enables the PAK MKII to achieve high-speed data acquisition with the highest analog and digital signal quality, translating into a high dynamic range with low noise performance and distortion.

Apart from regularly scheduled calibration, all input Modules are automatically calibrated upon start-up using an internal precision voltage reference, sampled at the current system temperature. To further underline measurement quality, internal automatic calibration can be requested at any time.

| 1 11 0 |

++ Pulse rate for sum of both channelsNA Not Applicable

1 2 |

to our range of signal condit ioning ampli f iers

SENSORMATCH YOUR

PARAMETERNO. OF

CHANNELSMAXIMUM DATA RATE RESOLUTION MODULE

ICP® based microphones, accelerometers, load cells and pressure sensors

2 102.4 kSa/s 24-bit ICT42

4 102.4 kSa/s 24-bit ICP42

2 204.8 kSa/s 24-bit ICP42B; ICT42S; MIC42X

4 204.8 kSa/s 24-bit ICP42S

16 204.8 kSa/s 24-bit ICM42S

±10 V voltage input

2 102.4 kSa/s 24-bit ICT42

4 102.4 kSa/s 24-bit ICP42; WSB42

2 204.8 kSa/s 24-bit ICP42B; ICT42S; MIC42X


16 204.8 kSa/s 24-bit ICM42S

±60 V voltage input2 204.8 kSa/s 24-bit ICP42B; ICT42S


Tacho pulse input with 100 kSa/s Scope mode 2 up to 700 kPulses/s++ 20 ns ICT42

Tacho pulse input with 5 MSa/s Scope mode 2 up to 700 kPulses/s++ 20 ns ICT42S

200 V or non-polarized microphones 2 204.8 kSa/s 24-bit MIC42X

Piezoelectric based accelerometers, load cells and pressure sensors 4 102.4 kSa/s 24-bit CHG42

Strain gauges, load cells, pressure sensors, strain based accelerometers, inductive displacement (LVDT) and rope displacement sensors

4 102.4 kSa/s 24-bit WSB42

E, J, K and T thermocouples as well as Pt100 sensors 8 24 kSa/s 24-bit THM42

±10 V voltage output, Module status output and Device Under Control monitoring

4 204.8 kSa/s 24-bit ALO42S

Output Monitoring capability 16 Analog NA ICM42S

Internal GPS 1 4 Pulses/s NA GPS42; IRG42

External GPS 1 1 kPulses/s NA IRG42

IRIG-A / IRIG-B 1 Standard specific NA IRG42

CAN 2 networks 500 kbit/s NA CAN42

FlexRay™ 1 pair 10 Mbit/s NA FLX42

EtherCAT® 1 slave 400 kbit/s NA ECT42

Digital audio receiver 2 stereo 96 kFrames/s 24-bit DAR42

Choose from our broad range of 17 Modules.

Each is optimized for a specific task whilst some

combine different functions in one Module. New

Modules are continuously under development to

accommodate new user requirements and new

technologies.

| 1 3

Proven to withstand f luctuat ions in technologyWith a heritage dating back to 1989, the PAK MKII has maintained the same solid foundation since its inception. Today our single structured platform remains unchanged with only improvements and continuous expansions made to incorporate on-going pathbreaking technology. Standards incorporated like VMEbus and Ethernet, are not only powerful and versatile but most importantly stable and sustainable. This is mainly due to these standards’ common use in aerospace, defense as well as professional instrumentation and control systems.

Robust mechanicsMachined from aluminum, the PAK MKII is designed to withstand shock and vibration whilst operating in environmental temperatures from -20 °C up to +55 °C. All Mainframes are internally conduction cooled ensuring that no dusty air circulates within the Mainframe. Some Mainframes never require fan cooling whilst others contain fans which only operate under high temperatures. In all cases fans can be switched off during sensitive acoustic measurements.

All signal conditioning Modules are encased in aluminum providing good thermal management and protection. For ease of use, both sensor and power cables are plugged into the front panel of all Modules and VMEbus boards. An optional battery is housed in the rear of the Mainframe.

Modular configurat ion All Modules have been designed to be readily interchangeable. This allows each measurement test to be perfectly configured with only relevant Modules. Many users order more Modules than can fit into their Mainframes so that the perfect Module configuration, for certain tests, is achieved. Other users order a larger Mainframe than what is initially required with empty Module slots closed off by blank front panels. These blank front panels are easily replaced with new Modules as the need arises. To reduce power consumption, Modules which are not used for a particular test can be switched off.

stability. SUSTAINABILITY. FLEXIBILITY

design

The PAK MKII’s stability and

inherent longevity encourages

users to grow their systems

according to their changing

requirements in measurement

demands and technology.

1 4 | | 1 5

5tModularity®

The PAK MKII system takes the concept of modularity to

an uncommonly deep level with it being repeated in 5 sub-

system levels or tiers. These 5 tiers of PAK MKII modularity

are collectively known as 5tModularity®.

The central Core or backbone of this stable approach is

tier 3. The stability of the core allows complex boards to be

developed on an ongoing basis, without compromising their

sophistication and performance, through the disciplined

compliance to international standards, in this case the

VMEbus.

Sensor signals enter the system through tier 1 (only if

required) or more often, through tier 2. Tier 4 provides

Mainframes which accommodate tier 3’s VMEbus boards.

Tier 5 defines systems containing distributed Mainframes

for an unlimited channel count and greater geographical

reach.

12345CLUSTER

MAINFRAMES

CORE

MODULES

SubMODULES

1 6 |

4H o u s i n g s i g n a l s .

MAINFRAMES Currently 5 Mainframes are available to accommodate the number of VMEbus boards (see CORE) required to configure a suitable system. Any number of slots can be left open for planned later expansion. An optional battery is housed at the rear. This is tier 4.

2A c q u i r i n g s i g n a l s

MODULES To address nearly all sensor types and dynamic parameters, a more compact tier of modularity is required for signal conditioning amplifiers than a large VMEbus board (see CORE). A Sub-VMEbus concept was therefore devised where 4 Modules fit onto a single Signal Conditioning VMEbus board which provides the mechanical and electronic infrastructure for these Modules. There are currently 17 Modules to choose from in order to fit a user’s sensors. This is tier 2.

CLUSTER The PAK MKII Cluster concept allows any number of distributed Mainframes to be synchronized together, operating as one virtual Mainframe.

5 S y n c h r o n i z i n g d i s t r i b u t e d s y s t e m s

SubMODULES SubModules are used to personalize a Module and may be required if a special interface to an individual sensor is needed. An example of this is when both a Pt100 temperature sensor and K-type thermocouple are plugged into the same Module, each with its specific signal and connector needs. This is tier 1.

1R o u t i n g s e n s o r s

COREThe VMEbus was chosen to be the core of the PAK MKII concept as the basis of any modular concept should be powerful and versatile but most importantly stable and sustainable. There are currently 4 types of VMEbus boards: Combined System Controllers with Mainframe Power Supplies, Signal Conditioning boards (to accommodate MODULES), Synchronization Engines (for the distribution of MAINFRAMES) and blank VMEbus boards for planned later expansion. This is tier 3.

3P r o c e s s i n g s i g n a l s

These Clusters reduce sensor cable lengths, increase the data rate coming from a test, allow for greater geographical reach and accommodate a limitless channel count. This is tier 5.

1 8 | | 1 9

Mult i faceted mobil i t yDue to the PAK MKII’s compactness, extremely high channel density and the ability to easily synchronize with other Mainframes, some users choose our largest Mainframe with 128 channels for mobile applications whilst others, in similar applications, prefer 4 smaller Mainframes clustered together. Integrated handles and specially designed protective suitcases reinforce the PAK MKII’s mobility.

Meet the demands of mult i -channel high-speed measurementsFor even higher channel counts, create a Cluster which provides an unlimited number of synchronized Mainframes operating together as a single Mainframe. Physical placement of Mainframes is flexible as they can be positioned up to 1 km from the central Synchronization Engine.

Users consequently benefit from shorter signal cables, reduced cable noise and reduced cabling faults as each Mainframe can be positioned exactly where it needs to be, close to the measurement position or test candidate.

Local Storage is an optional feature for the latest series of Controller boards. This feature allows the PAK MKII user to capture the measurement data on an internal Solid-State Disk. Data can then be retrieved and analyzed independently from data acquisition at a later stage. PAK Easy Measurement provides an easy-to-use data recorder.

Expandable in par tTo provide more channels in a particular system or to support a new sensor, additional Modules can be easily added. In this way, users benefit from consistent improvements like higher dynamic ranges, higher sampling rates, finer performance balances, improved analog quality as well as lower noise and distortion. Partial upgrades are possible, allowing users to upgrade their existing configurations.

As our standards based concept is extremely sustainable, components of different generations can coexist in the same Mainframe. Users are able to take advantage of this concept by refreshing their system on a regular basis for different or more advanced measurement tasks.

empowernew technology. more channels

Join us as we guide you through our 5 tiers of 5tModularity® and

personal configuration.

More than 4 Mainframes can also be synchronized. This requires additional Synchronization Engines which can also be housed in one of the Mainframes.

If more channels are required than what can be accommodated in a single Mainframe or if it is better to place a Mainframe closer to where the measurement takes place, 2 Mainframes can be synchronized together. The Synchronization Engine is housed in one of the 2 Mainframes.

Here 4 Mainframes are synchronized together. The Synchronization Engine is housed in one of the 4 Mainframes.

There is no limit to the number of Mainframes that can be synchronized, provided the appropriate number of Synchronization Engines are added.

This is an example of an entry configuration using only 1 Mainframe, shown here as a 3-slot. The same could apply to any Mainframe. The connection to the notebook is through Ethernet.

4Housing signals

2 0 | | 2 1

5 Mainframes al l for both mobile and laboratory useThe PAK MKII Mainframe series consists of a 2, 3, 4, 6 and 10-slot VMEbus based Mainframe. Their mechanical design has been optimized for thermal performance together with resistance to shock and vibration whilst retaining an attractive appearance. A convenient carrying handle is provided on all Mainframes (except the 10-slot) for enhanced portability which can be removed if required.

The external surfaces of the smaller Mainframes, 2 and 3-slot, are cooled through natural convection alone. The 4 and 6-slot Mainframes are cooled through a combination of natural and forced convection while the 10-slot Mainframe’s external surfaces are cooled by forced convection only. The fan speed is controlled by software to maintain a suitable running temperature. For noise sensitive measurements the fan can be switched off. During this time the Mainframe acts as a large heat sink.

All Mainframes have been designed for both mobile and laboratory applications. Battery backup is provided using a battery housed in the rear of the Mainframe which allows operation without an external power supply.

MF10

MF06

MF04

2 2 |

The tables below show a few important

parameters when selecting your Mainframe.

This includes the recommended Combined

System Controller and Power Supply board

for providing the digital and electrical power to

the Mainframe. All other VMEbus boards and

Modules fit into any of the 5 Mainframes.

MF03MF03: 3-slot Mainframe

Number of VMEbus slots:

3Power Supply and System Controller:

PQ12 or PQ20

Maximum number of channels (if 4 ch/module):

32Number of slots for SC42 boards:

2

Fan: NoneCooling of external surfaces:

NaturalConvection

Dimensions (W H D):

307 x 88x 267 mm

Cooling of internal surfaces:

Conduction

Mass, fully populated with battery:

6.4 kgMass, fully populated without battery:

5.6 kg

Volume: 7.2 L Battery capacity: 33 Wh

MF02MF02: 2-slot Mainframe



PQ12 or PQ20

Number of channels (if 4 ch/module):

4 - 16Number of slots for SC42 boards:

1

Fan: NoneCooling of external surfaces:

NaturalConvection

Dimensions (W H D):

291 x 68x 267 mm


Conduction



4.0 kg


MF02

MF03 MF10

MF06

MF10: 10-slot Mainframe



PQ30



8 or 9*

Fan: YesCooling of external surfaces:

ForcedConvection

Dimensions (W H D):

291 x 231x 333 mm


Conduction



17.3 kg




PQ20 or PQ30



5


Natural/ ForcedConvection

Dimensions (W H D):

307 x 151x 287 mm


Conduction



10.8 kg





PQ20 or PQ30



3


Natural/ForcedConvection

Dimensions (W H D):

307 x 109x 287 mm


Conduction



8.5 kg



MF04

* depending on Module configuration

3processing signals

| 2 5

Stable CoreAll Core (tier 3) VMEbus boards are inserted into a Mainframe (tier 4) which provides a stable infrastructure to house 4 types of VMEbus boards:

• Combined System Controller and Power Supply. This is a dual function board which combines a VMEbus System Controller with a Power Supply for all other boards in its Mainframe. The choice of combined Power Supply and VMEbus System Controller depends only on its data processing ability and the size of its power supply. Combining the Power Supply and Controller on a single VMEbus board enhances the modularity of the whole system as the power supply can be readily maintained and upgraded. Each board also contains a slot for a mezzanine board which allows new features to be added including WLAN, Solid-State Disk and more

• Signal Conditioning Engine and Infrastructure. This provides isolated power, digital signal processing using 5 powerful DSPs, automatic internal calibration and the mechanical infrastructure for 4 Modules (tier 2)

• Synchronization Engine. This board enables the synchronization of multiple Mainframes. It contains a VMEbus 5 port Gigabit Ethernet switch and a 5 port SyncLink hub. Only one board is required per cluster of 4 Mainframes

• Blank VMEbus board. This VMEbus board is used to close off an empty slot and is sometimes used when configuring systems with future expansion in mind. The blank VMEbus board is then either replaced by a Signal Conditioning Engine and Infrastructure board or a Synchronization Engine

2 6 |

The PQ12 is a dual function board combining a VMEbus System Controller, Master, Arbiter and Interrupt Handler with a 90 W VMEbus Power Supply for use in MF02 and MF03 Mainframes.

W h e r e u s e d :

• In slot 1 of MF02 or MF03

Fe a t u r e s :

• Combined VMEbus System Controller, Master, Arbiter and Interrupt Handler

• PowerPC processor with 128 Mbyte SDRAM

• 100 BASE-T Ethernet port providing continuous 5 Mbyte/s to Workstation

• WLAN to Workstation

• SyncLink input for operation in Cluster or SuperCluster

• Dual RS232F port for use with MiniTerminal

• 90 W VMEbus Power Supply

• 10-32 V DC input from external power source

• UPS between external power source and internal battery

• Over-voltage and under-voltage lockout

• Input power protection circuitry for use within motor vehicles

• Fast battery charger for internal battery

• Comprehensive monitoring of internal Power Supply circuits

VMEbus System Controller with 90 W Power Supply for MF02 and MF03

10 series

PQ12PQ12: VMEbus System Controller and 90 W Power Supply

The PQ20 is a dual function board combining a VMEbus System Controller, Master, Arbiter and Interrupt Handler with a 150 W VMEbus Power Supply for use in MF04 and MF06 Mainframes. It can also be used in MF02 and MF03 Mainframes when higher data rates are required.

W h e r e u s e d :

• In slot 1 of MF04 or MF06 (or in MF02 or MF03 when higher data rates are required)

Fe a t u r e s :

• Combined VMEbus System Controller, Master, Arbiter and Interrupt Handler

• PowerPC processor with 256 Mbyte SDRAM

• 100 BASE-T Ethernet port providing continuous 7.2 Mbyte/s to Workstation

• WLAN to Workstation

• SyncLink input for operation in Cluster or SuperCluster

• Dual RS232F port for use with MiniTerminal

• 150 W VMEbus Power Supply

• 10-32 V DC input from external power source

• UPS between external power source and internal battery




• Adjustable 12 V fan power

• Comprehensive monitoring of internal Power Supply circuits

VMEbus System Controller with 150 W Power Supply for MF02, MF03, MF04 and MF06

20 series


| 2 7

2 8 |

VMEbus System Controller with 200 W Power Supply for MF04, MF06 and MF10

30 series


The PQ30 is a dual function board combining a VMEbus System Controller and a 200 W VMEbus Power Supply. The PQ30 features the latest 2eVME specifications and should be used in combination with the SC42S to maximize its capabilities. An optional internal Solid-State Disk is available for local storage.

W h e r e u s e d :

• In slot 1 of MF04, MF06 or MF10

P Q 3 0 f e a t u r e s :

• Combined VMEbus System Controller and 200 W Power Supply

• Supports 2eVME standard

• 1 GHz PowerPC processor with 0.5 GB DDR2 memory

• Advanced computational ability

• 2 Gigabit Ethernet ports with one allocated for future use

• Continuous 40 Mbyte/s over 1000 BASE-T to Workstation

• Second 1000 BASE-T for peripherals

• Optional internal Solid-State Disk (SSD) for local data storage in different sizes

• Optional eSATAp port for external SATA hard drive. Includes Power over eSATA

• PCI Mezzanine Card expansion slot (PMC)

• SyncLink input for synchronization in Cluster or SuperCluster

• 10-32 V DC input (continuous) from external power source

• UPS between external power and internal battery




• On/off function via front panel, MiniTerminal or external power

| 2 9

The SC42 board provides the isolated power, signal processing and mechanical infrastructure for up to 4 signal conditioning Modules. It is a highly complex board using 5 powerful 24-bit DSPs to process large volumes of data transferred between the VMEbus and each Module. It also provides isolated power for each Module, sample timing infrastructure as well as internal communication interfaces used to set parameters for each channel.

The flexibility of easy interchangeability of Modules within the same Mainframe or between Mainframes is provided by the SC42 board. This empowers users to economically purchase additional Modules to satisfy their measurement and control requirements. Modules are plugged in through the front panel of the SC42 and can be inserted and removed without removing the SC42 board itself.

VMEbus Signal Conditioning Engine and Infrastructure for all Mainframes

SC42SC42: VMEbus Signal Conditioning Engine and Infrastructure

The SC42S is an advanced Signal Conditioning Engine for use in all Mainframes when higher sampling rates are required. When combined with a PQ30, the SC42S is able to deliver enhanced performance due to the 2eVME specification. The SC42S is especially recommended for all S and X series Modules.

SC42SSC42S: Advanced VMEbus Signal Conditioning Engine and Infrastructure

S C 4 2S fe a t u r e s :

• All SC42 features

A d d i t i o n a l f e a t u r e s t o S C 4 2 :

• 24-bit, 204.8 kSa/s per channel for 4 channel Module

• Supports the latest 2eVME specifications

Fe a t u r e s :

• VMEbus Slave and Interrupter

• Mechanics to accommodate 4 Modules

• Provides accurate timing infrastructure for 4 Module slots

• 5 separate 24-bit DSPs, one per Module slot and one on the board

• 4 isolated power supplies, one per Module slot

• Houses the Module slot’s internal automatic calibration engine

• Thermally optimized and encased in aluminum

2acquiring signals

Modules to accommodate every signal typeWhereas the VMEbus Signal Conditioning Engine (tier 3), provides the common infrastructure for 4 Module slots, the individual Modules (tier 2), provide the unique signal conditioning detail. This concept affords the most effective solution for those users who configure and reconfigure their measurement systems differently for specific tests.

Modules are innovatively packaged in an aluminum casing so as to optimize both size and thermal performance.

All Modules include the following features:

• 50 V galvanic isolation from one Module to another

• Automatic internal calibration capability

• All settings are software configurable

• Very high channel density

• Very good signal to noise performance

• Excellent spurious free-dynamic range, total harmonic distortion and crosstalk

Users can choose between Standard, S or X series Modules to satisfy their requirements.

S is for SpeedThe S series forms an elite series of Modules with various additional features of which an enhanced speed of 204.8 kSa/s and a bandwidth of 90 kHz is the most common. Standard series Modules may be combined with S series Modules as multiple sample rate groups are accommodated in all PAK MKII systems.

X is for eXtra featuresThe X series extends the functionality of the standard series to include a major eXtra feature, for instance the MIC42X also includes ICP® mode. Often the speed is also increased. The X series is especially useful in extreme mobile or compact systems when a low channel count is required as the same Module can be used with a number of different sensors.

| 3 13 0 |

ICP42SICP42S: Advanced 4 Channel ICP® and Voltage Input Amplifier

The ICP42S Module contains all the functions of the ICP42 but additionally provides double the sampling rate, a further input voltage range of ±60 V and Lemo connectors.

W h e r e u s e d :

• With any ICP® based sensor commonly used to measure acceleration, force or pressure

• With any voltage source up to ±60 V

I C P4 2S fe a t u r e s :

• All ICP42 features

A d d i t i o n a l f e a t u r e s t o I C P4 2 :

• 204.8 kSa/s sampling rate per channel, 90 kHz bandwidth

• ± (60 V, 10 V, 1 V and 100 mV) input ranges

• 0.6 MΩ differential input impedance for ±60 V input range

• 3-way Lemo EHG 0B connectors for differential low noise cable types

ICP42ICP42: 4 Channel ICP® and Voltage Input Amplifier

The ICP42 Module can be used with ICP® based accelerometers, force and pressure sensors as well as to measure analog voltages. All 4 channels operate independently of each other, each with their own setting of mode, gain, coupling and so forth.

W h e r e u s e d :



I C P4 2 f e a t u r e s :

• 4 channels

• 2 input modes of operation: ICP® mode and voltage input mode (AC or DC coupling)

• Supports TEDS IEEE 1451.4 V0.9, V1.0 (Class 1)

• 24-bit resolution, 102.4 kSa/s sampling rate per channel, 45 kHz bandwidth

• <0.2° @ 10 kHz phase accuracy between channels of the same or any other Module

• ± (10 V, 1 V and 100 mV) input ranges

• 4 mA ICP® current

• Short and open circuit cable monitoring

• Pre and post filter overflow monitoring

• Selectable low and high pass digital filters

• Differential or single-ended inputs for voltage input mode

• 2 MΩ differential input impedance

• 1 MΩ single-ended input impedance

• SMB connectors

3 2 |

ICM42SICM42S: Advanced 16 Channel ICP® and Voltage Input Amplifier with 16 Monitoring Output channelsICP42BICP42B: Advanced 2 Channel ICP® and Voltage Input Amplifier

The ICP42B Module is a 2 channel BNC connector version of the ICP42S Module. This Module supports a input voltage range of ±60 V and sampling rates of up to 204.8 kSa/s. Both channels operate independently from each other, each with its own software configurable settings.

W h e r e u s e d :



I C P4 2 B fe a t u r e s :

• All ICP42S features besides being limited to 2 channels and using BNC connectors

As a compound Module, the ICM42S integrates 4 high speed ICP® Modules with a SC42S Signal Conditioning board. The ICM42S has a single DB50 connector with 16 ICP® input channels. Four 7-pin LEMO connectors provide an analog monitoring output channel for every conditioned input channel resulting in a total of 16 monitoring output channels.

W h e r e u s e d :



• When the conditioned input signal needs to be provided to external equipment

I C M 4 2S fe a t u r e s :

• 16 channels

• 2 input modes of operation: ICP® mode and voltage input mode (AC or DC coupling)



• <0.2° @ 10 kHz phase accuracy between channels of the same or any other Module

• ±(10 V, 1 V and 100 mV) input ranges

• 4 mA ICP® current

• Short and open circuit cable monitoring



• Differential, pseudo differential or single-ended inputs



• Output gain: 1, 10, 100 V/V

• 16 Monitoring output channels of conditioned signal inputs

• DB50 with 16 input channels

A d d i t i o n a l c o m p o u n d M o d u l e f e a t u r e s :

• Includes SC42S Signal Conditioning Board (see SC42S for more details)

| 3 5

ICT42ICT42: 2 Channel ICP® and Voltage Input Amplifier with 2 Channel Tacho Input Amplifier

The ICT42 Module is a hybrid Module which combines 2 channels from the ICP42 Module with 2 tacho input channels. The tacho channels provide tacho measurements with a 20 ns resolution, determined by the intersection of the signal and its trigger level settings. Triggering of tacho signals can be set for rising or falling edges with adjustable hysteresis whilst additionally providing AC coupling for sensors with varyin g DC voltage offsets. A scope mode is provided to view the tacho signals, to assist with the definition of trigger levels.

W h e r e u s e d :

• When measuring the pulse rate and time between pulses such as rpm and crank angle

• With any ICP® based sensor as well as commonly used to measure acceleration, force or pressure and with any voltage source up to ±10 V

I C T4 2 f e a t u r e s : I C P ® c h a n n e l s

• 2 input modes of operation: ICP® mode, and voltage input mode (AC or DC coupling)

• See ICP42 for more details

I C T4 2 f e a t u r e s : Ta c h o c h a n n e l s

• 2 tacho channels

• Tacho input can be DC/AC coupled

• 20 ns tacho resolution

• 700 kPulses/s rate for sum of 2 tacho channels

• 16-bit resolution on tacho trigger levels

• Software adjustable triggering on rising or falling edge as well as hysteresis

• ±(60 V, 15 V and 2 V) input ranges

• 240 kΩ differential input impedance

• 12 V or 24 V DC output for providing power to sensors or external sensor conditioning

• Scope mode for viewing tacho signals with 102.4 kSa/s sampling rate per channel

• 4-way Lemo EHG 0B connectors

ICT42SICT42S: Advanced 2 Channel ICP® and Voltage Input Amplifier with 2 Channel Tacho Input Amplifier

The ICT42S Module is a hybrid Module containing 2 ICP42S channels and 2 advanced tacho input channels. The tacho channels have been enhanced by providing higher tacho rates and a high speed scope mode which can sample the tacho signal at 5 MSa/s.

W h e r e u s e d :

• When measuring the pulse rate and time between pulses such as rpm and crank angle


I C T4 2S f e a t u r e s : I C P ® c h a n n e l s

• 2 input modes of operation: ICP® mode, and voltage input mode (AC or DC coupling)

• See ICP42S for more details

I C T4 2S f e a t u r e s : Ta c h o c h a n n e l s

• 2 tacho channels

• See ICT42 for more details

A d d i t i o n a l f e a t u r e s t o I C T4 2 Ta c h o c h a n n e l s :

• 700 kPulses/s rate for sum of 2 tacho channels

• Scope mode for viewing tacho signals with 5 MSa/s sampling rate per channel

CHG42CHG42: 4 Channel Charge Input Amplifier

The CHG42 Module has 4 independent, single-ended input channels for piezoelectric sensors.

W h e r e u s e d :

• With charge output piezoelectric sensors commonly used to measure vibration, acceleration, force, torque or pressure

• When measuring with sensors placed under high temperature conditions or in the presence of radiation

• When improved signal performance (low noise, low distortion, etc) is required

C H G 4 2 f e a t u r e s :

• 4 channels


• <0.5° @ 10 kHz phase accuracy between channels of the same or other Module

• 2 Sensitivity settings (1 mV/pC and 10 mV/pC) are combined with 3 voltage gain ranges (100 mV, 1 V and 10 V) to achieve maximum charge input ranges from ±10 pC to ±10 000 pC

• These sensitivity and voltage gain settings can be made independently of each other

• 2 discharge time constants: 1 and 10 seconds


• 10-32 Microdot connectors

The THM42 Module contains 8 channels for use with E, J, K and T type thermocouples as well as Pt100 sensors. Internal cold junction compensation and linearization are available for E (NiCr/CuNi), J (Fe/CuNi), K (NiCr/NiAl), T (Cu/CuNi) and U (Cu/Cu) thermocouple types (other types on request). The Module also includes 0.5 mA current sources for Pt100 sensor excitation which are continuously calibrated to prevent drift and offset errors. SubModules are available which contain a pair of commonly used miniature E, J, K and T thermocouple connectors with cold junction circuitry for thermocouple applications or a pair of Lemo connectors for Pt100 applications. Any combination of THM42 SubModules can be connected to the THM42 Module.

W h e r e u s e d :

• When measuring E, J, K, and T thermocouples

• When measuring Pt100 sensors in constant current mode

• With any rope transducers in constant current mode

T H M 4 2 f e a t u r e s :

• 8 channels, grouped into 4 pairs

• 2 input modes of operation: (E, J, K and T) thermocouples and Pt100

• 24-bit resolution, 24 kSa/s sampling rate per channel, 1.5 kHz bandwidth

• ±250 mV input range

• 0.5 mA Pt100 excitation current

• 1 GΩ differential input impedance


• 7-way Lemo EHG 0B connectors with 2 channels sharing one connector

THM42THM42: 8 Channel E, J, K and T Thermocouple and Pt100 Input Amplifier

3 4 |

WSB42WSB42: 4 Channel Bridge and Voltage Input Amplifier

The WSB42 Module is used with AC and DC bridge measurements including inductive displacement transducers (LVDT) and strain gauges configured as full, half or quarter bridges. The Module offers numerous software selectable features such as excitation (AC/DC), bridge sensing, enabling of internal bridge completion resistors and calibration through an internal shunt resistor. The bridge can be balanced automatically or a previous balance value can be recalled.

W h e r e u s e d :

• With any strain gauge, load cell, pressure transducer and inductive displacement transducer (LVDT)


WS B 4 2 f e a t u r e s :

• 4 channels

• 3 input modes of operation: bridge DC, bridge AC and voltage input mode



• <0.2° @10 kHz phase accuracy between channels of same or other Module

• ±(200 mV, 20 mV, 2 mV) input ranges for bridge mode

• ±10 V input range for voltage input mode

• Full, half and quarter bridges

• Local or remote sensing

• Internal half bridge and 120 Ω / 350 Ω quarter bridge completion resistors

• 100 kΩ calibration shunt resistor

• 0 to 5 V excitation, DC to 10 kHz

• 1 GΩ differential input impedance for bridge mode


• Supports auto balancing


3 6 | | 3 7

MIC42XMIC42X: Advanced 2 Channel Microphone, ICP® and Voltage Input Amplifier

Aside from providing excellent performance for microphone measurements, the MIC42X Module offers the eXtra features of ICP® and voltage input modes. For the measurement of small signals in the presence of large DC offsets the MIC42X includes AC coupling and hardware gain stages. Voltage output is also included, typically used to inject test signals into microphone preamplifiers.

The 24-bit ADC has excellent performance with a low passband ripple and a sharp roll-off for maximum usable bandwidth as well as lowest stopband attenuation.

W h e r e u s e d :

• With any 200 V or self polarized microphone with preamplifier



M I C 4 2 X fe a t u r e s :

• 2 channels

• 2 input modes of operation: voltage input (AC or DC coupling) and ICP® mode

• Supports TEDS IEEE 1451.4 V0.9, V1.0 (Class 1 & 2)


• <0.2° @ 10 kHz phase accuracy between channels of the same or other Module

• ±(12 V, 1.2 V, 120 mV) input ranges

• ±14.5 V preamplifier excitation

• 200 V or 0 V Polarization voltage


• Differential, single-ended (isolated), or single-ended (non-isolated) for voltage input mode



• Short and open circuit monitoring


• 7-way Lemo EGG 1B connectors

The CAN42 Module provides interfaces to 2 independent Controller Area Networks (CAN), conforming to CAN 2.0 A and 2.0 B (11-bit and 29-bit identifiers) and physical layer specified to ISO 11898-2 (high-speed CAN). Messages received from the CAN are time-stamped to synchronize their reception with analog and digital measurements from other Modules in the system. Fully implemented features include Listen-Only mode, Self-Reception of CAN messages and transmission of Remote Frames.

W h e r e u s e d :

• When monitoring CAN based messages

• When controlling CAN based devices

CA N 4 2 f e a t u r e s :

• 2 CAN interfaces

• Conforms to CAN 2.0 A, 2.0 B, ISO 11898-2

• 10 kbit/s to 1 Mbit/s bit rates

• Time-stamping of received CAN messages to 5 µs resolution

• Incoming data filter receives only specified identifiers

• Remote Frame Transmission and Reception

• Data and Remote Frames supported

• RJ45 connectors for CAN42 Module

CAN42CAN42: 2 Controller Area Network Interfaces (CAN)

The ALO42S Module provides 4 output channels for generating analog signals. By providing its own Module status to the Device Under Control (DUC), the status of the ALO42S Module can be detected and fault conditions handled safely. The ALO42S Module can also monitor the DUC by monitoring the test chamber control signals or relays. Should the DUC enter a fault condition, the PAK MKII has various options to safely handle the fault condition.

W h e r e u s e d :

• When driving analog signals into electro-dynamic, hydraulic shaker and other controllers

• When driving analog signals into other circuits requiring a ±10 V static or dynamic signal

A LO 4 2S fe a t u r e s :

• 4 channels

• 24-bit resolution, 204.8 kSa/s sampling rate per channel, 20 kHz -0.1 dB bandwidth

• Excellent DC gain and offset stability

• ±10 V @ 50 mA output

• 10 Ω output impedance

• Provides Module Status output

• Monitors Device Under Control input

• Automatic safe shutdown upon fault condition


ALO42SALO42S: 4 Channel Voltage Output Source

The FLX42 Module provides an interface to connect to a FlexRay™ network for the monitoring of FlexRay™ based messages and testing with FlexRay™ based sensors. The FLX42 Module contains two dependent FlexRay™ channel interfaces to support either single channel or dual channel topologies, for the transmission and reception of FlexRay™ messages with selectable bit rates of 2.5, 5, 8 or 10 Mbit/s. The FLX42 Module provides independent channel filtering and provides status and error information to the User.

W h e r e u s e d :

• When monitoring FlexRay™ based messages

• When testing with FlexRay™ based sensors

F L X4 2 f e a t u r e s :

• 2 dependent channels – Dual Channel Device or Single Channel Device (connector 2 disabled)

• 3 Modes of operation: Listen-Only Mode, Operational Mode and Self-Test Mode

• FlexRay™ Protocol Specification V2.1A and FlexRay™ Electrical Physical Layer Specification V2.1A compliant

• FlexRay™ Bit Rate Range of 2.5, 5, 8 or 10 Mbit/s

• Time-stamped reception of FlexRay™ messages

• Configurable cold start ability


FLX42FLX42: Interface to FlexRay™ network ECT42ECT42: Interface to EtherCAT® network

Data which is acquired by other Modules in the PAK MKII system and by other third party systems can be shared synchronously with one another via the high speed Ethernet backbone and highly-accurate EtherCAT® system time.

The acquired data is presented along with miscellaneous parameters including units and scaling factors amongst others. This functionality represents a ‘passive mode’ of operation in which the primary goal is to monitor variables external to the PAK MKII system.

W h e r e u s e d :

• Provides the ability to interface to other networked EtherCAT®

slave devices within a factory, laboratory or test chamber environment

• When acquiring data via networked EtherCAT® slave devices

EC T4 2 f e a t u r e s :

• Supports slave-to-slave communication in passive mode

• Supports CANopen over EtherCAT® (CoE) and Service Delivery Object (SDO) access for extensibility

• Conforms to EtherCAT® standards (IEC 61158, ISO 15745-4, SEMI E54.20)

• Full duplex 100-Base-TX (100 Mbit/s) in upstream and downstream directions, with galvanic isolation on each interface

• 2x ERNI M12 Connectors (234041) for IP67 conformance

3 8 |

IRG42IRG42: Interface to IRIG, External GPS and Internal GPS

The GPS42 Module contains a GPS receiver unit which interfaces to an external GPS antenna and provides position and time information. This is recorded and synchronized to analog and digital measurements from other Modules in the system.

W h e r e u s e d :

• When requiring time and position information to synchronize other measurements

G PS 4 2 f e a t u r e s :

• Internal GPS channel

• All settings made by software

• NMEA Protocol

• 1 Hz and 4 Hz position updates

• 4 m CEP (Circular Error Probability)

• 5 m SEP (Spherical Error Probability)

• Time-stamping of received GPS time and position data to 5 µs resolution

• 3.3 V or 5 V antenna voltage

• SMA connector for antenna

In addition to the GPS functionality the IRG42 Module provides two additional functional units namely external GPS and IRIG. Support for an external GPS is through 2 RS232 communication channels and an input to receive a time pulse. IRIG-A and IRIG-B data (both analog and digital formats) are digitized by a high speed ADC and decoded. Both the external GPS and IRIG data are time-stamped to synchronize their data with analog and digital measurements from other Modules in the system.

W h e r e u s e d :

• When requiring time and position information to synchronize other measurements

I R G 4 2 f e a t u r e s :

• 3 modes of operation: internal GPS, external GPS channel and IRIG

• For internal GPS features see GPS42

• External GPS support through dual RS232 channels and time pulse input

• IRIG-A support for A132, A133, A136 and A137 with an update rate of 10 Hz

• IRIG-B support for B122, B123, B126, B127 with an update rate of 1 Hz

• Time-stamping of GPS time and position data to 5 µs resolution

• Time-stamping of IRIG messages to 5 µs resolution

• 7 way Lemo EHG 0B connector for external GPS/SMB connector for IRIG

GPS42GPS42: Internal GPS Interface

DAR42The DAR42 Module provides interfaces to receive two AES3 digital audio streams. For synchronization between the DAR42 and external digital audio transmission equipment, the DAR42 transmits a synchronization signal which can be selected to be either an AES3 output signal (data at digital zero) or word clock signal.

DA R 4 2 f e a t u r e s :

• 2 stereo input channels each independently configured

• Frame rates of 44.1, 48, 88.2 and 96 kHz

• Single AES3 or master word clock output

• 3 way Lemo EGG 0B connectors for AES3 input

• 3 way Lemo FAG 0B connector for synchronization output

W h e r e u s e d :

• When measuring devices providing an AES3 based digital audio signal such as a digital artificial head

DAR42: Digital Audio Receiver

| 3 9

1Routing

sensorsPersonal ize signalsA SubModule is sometimes required to provide a special interface to an individual sensor. SubModules are thus used to personalize a Module as the final interface to a sensor or provide features like additional over-voltage protection and digital bus termination.

4 0 |

4 2 |

The ICPM10 personalizes ICP42S Modules by providing 2 DB50 Connectors. As a compound SubModule, it takes the form of a breakout box which is secured on the top of any Mainframe. These breakout boxes are stackable with the option to secure two compound Modules on top of each other. The strength of the SubModule concept lies in its flexibility, as the ICPM10 with its DB50 Interface may be easily removed if not required for certain tests.

W h e r e u s e d :

• Customers who require a large amount of ICP42S modules with DB50 connectors for a specific test (32 ICP42S channels = 2 DB50 connectors)

ICPM10ICPM10: Compound SubModule DB50 connectors from ICP42S channels

The FLXB10 SubModule is a connection cable that gives users the option to terminate the cable at the FLX42 Module with a 110 Ω resistance. Additionally, the FLXB10 provides an interface to a 9-pin D-sub connection.

W h e r e u s e d :

• For FLX42

FLXB10FLXB10: Interface to 9-pin D-sub connection and bus termination

The Quad BNC (QBNC) SubModule is used to split signals from a 7-pin Lemo connector to 4 BNC connectors.

W h e r e u s e d :

• For ALO42S, QBNC provides: Analog Signal Output, Module Status Output, Device Under Control input and 5/12 V output

• For ICM42S, QBNC provides: Monitoring Output

QBNC11QBNC11: Interface to 4 BNC connectors

The ICTV11 is used to protect the ICT42 Module’s tacho inputs from excessively high voltages. These may occur when inductive devices are discharged or when measuring close to high voltage circuitry.

The SubModule contains high energy over-voltage dissipation devices. These devices limit the output voltage to reasonable values which will not destroy the internal circuitry of the ICT42 Modules.

A BNC connector is provided on the SubModule to interface to the appropriate tacho sensor. The SubModule connects to the ICT42 Module through a 300 mm fly-lead ending with a 4 way Lemo FGG 0B connector.

W h e r e u s e d :

• For ICT42 and ICT42S

ICTV11ICTV11: 1 Channel SubModule for tacho input over-voltage protection

7 thermocouple based SubModules exist, each containing dedicated thermocouple connectors. Each SubModule contains a pair of miniature thermocouple connectors, of the appropriate alloy and color, according to either IEC or ANSI standards. Cold-junction-compensation is facilitated through the use of a 0.5 °C accurate temperature sensor in thermal contact with the connectors’ contacts. The SubModule type is identified through a TEDS interface. Each SubModule connects to the THM42 Module through a 300 mm fly-lead ending with a 7-way Lemo FGG 0B connector.

T h e s e 7 S u b M o d u l e s c a n b e l i s t e d a s f o l l o w s :

• The THME10P SubModule contains Chromel/Constantan (NiCr/CuNi) alloys and has lilac connectors (IEC 584-3 and ANSI MC 96.1)

• The THMJ10B SubModule contains Iron/Constantan (Fe/CuNi) alloys and has black connectors (both IEC 584-3 and ANSI MC 96.1)

• The THMK10G SubModule contains Chromel/Alumel (NiCr/NiAl) alloys and has green connectors (IEC 584-3)

• The THMK10Y SubModule contains Chromel/Alumel (NiCr/NiAl) alloys and has yellow connectors (ANSI MC 96.1)

• The THMT10E SubModule contains Copper/Constantan (Cu/CuNi) alloys and has blue connectors (ANSI MC 96.1)

• The THMT10N SubModule contains Copper/Constantan (Cu/CuNi) alloys and has brown connectors (IEC 584-3)

• The THMU10W SubModule contains Copper/Copper (Cu/Cu) alloys and has white connectors

THMS10THMS10: 2 Channel SubModule with Screw Terminals for general Thermocouple and Pt100 Use

The THMS10 SubModule is used in conjunction with a THM42 Module to provide 2 sets of 4-way general purpose screw terminals to connect to a pair of E, J, K or T thermocouples or a pair of Pt100 sensors. Cold-junction-compensation is facilitated through the use of a 0.5 °C accurate temperature sensor in thermal contact with the connectors’ contacts. Constant current is provided for Pt100 use. The SubModule type is identified through a TEDS interface. The THMS10 SubModule connects to the THM42 Module through a 300 mm fly-lead ending with a 7-way Lemo FGG 0B connector.

THMP10THMP10: 2 Channel SubModule for Pt100 Temperature Sensors

The THMP10 SubModule is used in conjunction with a THM42 Module to provide 2 sets of 4-way Lemo EGG 0B connectors for use with 2 Pt100 sensors. These connectors provide current to a Pt100 sensor and sense the voltage across it. The SubModule type is identified through a TEDS interface.

The THMP10 SubModule connects to the THM42 Module through a 300 mm fly-lead ending with a 7-way Lemo FGG 0B connector.

| 4 3

THMx10THME10, THMJ10, THMK10, THMT10 and THMU10: 2 Channel SubModules for Thermocouple Connectors

Increase channel count.Limitless number of synchronized Mainframes provide an unlimited channel count

Shorter signal cables.By placing Mainframes exactly where they are required, shorter signal cables contribute to lower cable costs, reduced cable noise and reduced cable faults

Optimize measurement infrastructure and cost.Multiple systems can be used separately in smaller applications but can also work together for larger tests

Avoid data bottlenecks.Deploy multiple measurement PCs on the same network

Reach remotely placed sensors.Measurements within one Cluster can be spread over a large area with a 1000 m radius

4 4 |

5distributed

clusters

Limitless Mainframes synchronized for an

unlimited channel count, greater geographical

reach and an efficient use of available hardware

C l u s t e r s

Bring your Mainframes together for multi-channel testing. SyncLink takes the concept of modularity one step further by grouping up to 4 Mainframes together to form a Cluster and up to 4 Clusters together to form a SuperCluster and so on. There is no limit to adding more Mainframes as long as the appropriate SL21 Synchronization engines are added.

S u p r e m e l y a c c u r a t e

Clusters are perfectly synchronized using a common clock transmitted over a single fiber-optic cable from a SL21 Synchronization engine VMEbus board to each Controller. A fibre-optic cable is used to ensure sub-10 ns timing resolution and immunity to external electromagnetic noise.

S i m p l i f i e d c a b l i n g

By placing the PAK MKII exactly where it needs to be, for example alongside the test candidate, the acquisition system can be positioned as close as possible to the sensor. This reduces cable lengths between sensor and input module. Fiber-optic, Ethernet and power cables run along the same path and could be easily placed in a single cable sheath for even simpler cable management.

5 p o r t G i g a b i t E t h e r n e t s w i t c h :

• 1 port on the far left which is connected to the Workstation or to another SL21 board at a higher level (in a higher level Cluster)

• 4 ports to the right which service the 4 Mainframes in the Cluster or another 4 SL21 boards in a SuperCluster

5 p o r t S y n c L i n k h u b:

• 1 port fibre-optic SyncLink receiver which is the port on the far right. This is left open if there is only one Cluster or in the case of a SuperCluster is connected to another SL21 board at a higher level

• 4 port fibre-optic SyncLink source which provides the SyncLink signal to the 4 Mainframes in the Cluster or to 4 further SL21 boards in a SuperCluster

sl21 SYNCHRONIZATION ENGINE

The SL21 VMEbus board can be inserted into

all Mainframes as an integrated Synchronization

Engine for building distributed acquisition systems

in any combination

1000 m 1000 m

Ethernet +SyncLink

Cluster Cluster Cluster Cluster

up to 4 Mainframesup to 4 Mainframes up to 4 Mainframesup to 4 Mainframes

Thousands of channels

SuperCluster

1000 m 1000 m

Ethernet +SyncLinkCluster

hundreds of channels

Cluster

| 4 5

4 6 |

S e a t Fr a m e

The PAK MKII SeatFrame optimally secures a PAK MKII 2, 3, 4 or 6-slot Mainframe and notebook onto a car seat for mobile measurements. It consists of machined aluminum members which can be adjusted to optimally fit the seat, Mainframe and notebook.

To prevent sideways movement, once placed on the seat, the side and rear feet can be adjusted to best hug the seat. The rear SeatFrame handle can also be adjusted to push against the seat’s backrest to prevent it flipping over. It is strapped to the seat using the safety belt.

A notebook is placed on an adjustable base mounted above the PAK MKII which can fit any notebook size. It is fastened into position by restraining posts which can be easily loosened to remove the notebook. Multiple settings and adjustments allow the notebook to be placed in the position that best suits the user.

The SeatFrame is ergonomically designed, easy to carry and extremely robust.

Accessorize

M i n i Te r m i n a l

Users can monitor and control measurements with a PAK MKII remote control. The MiniTerminal provides a large, bright LED display as a practical solution (even in daylight conditions) to show test information as well as to receive commands from a user. It connects to any one of the System Controller and Power Supply boards found in any Mainframe.

In Pass By measurements for example, users are able to control all connected Mainframes with a single button. The MiniTerminal also provides the user with valuable test information, such as instructions to a vehicle driver, or acts as a remote control when the operational environment does not allow direct access to the PAK MKII system, such as in confined areas.

User input is provided through 6 buttons which can be labeled as soft keys. These buttons are easy to operate even whilst driving. A piezoelectric buzzer is contained within the unit to alert the user of certain conditions.

The communication cable to the System Controller and Power Supply can be plugged into one of 2 sockets found on both the left and right sides of the MiniTerminal. This affords the user the choice of the most comfortable position to insert the cable.

The MiniTerminal is compact and machined from aluminum with a tripod screw thread on its rear lid for easy mounting through third party mounting systems.

Tr a n s p o r t a t i o n C a s e s

For enhanced portability of the PAK MKII measurement system, different protective cases and backpacks are available.

Backpacks are recommended for a highly mobile situation, snuggly fitting a troubleshooting 2-slot based system and a 17 inch laptop.

Protective rigid cases for transportation over long distances are also available for all Mainframe sizes. These robust cases are made of HPX® high-tech plastic and are water, dust and air proof. Depending on the interior configuration of the transportation case, users have a secure place for not only a PAK MKII system, but also for cables, sensors and even a notebook. Smaller cases may be taken on board of an airplane as hand luggage.

| 4 7

Copyright 2011 Müller-BBM VibroAkustik Systeme GmbH. PAK is a registered trademark of Müller-BBM VibroAkustik Systeme GmbH. All other names marked with TM or ® are trademarks or registered trademarks of other manufacturers in their respective countries. Information listed in this brochure is subject to change without notice due to product development. We accept no responsibility for the accuracy of the information provided. PAKMKIIHB1104.

HeadquartersMüller-BBM VibroAkustik Systeme GmbHRobert-Koch-Strasse 11-13, 82152 Planegg/Munich, GermanyTel. +49-89-85602-400 • Fax +49-89-85602-444E-Mail: info.de@MuellerBBM-vas.dewww.MuellerBBM-vas.dewww.MuellerBBM-vas.com

SubsidiariesBeNeLux & UK: Müller-BBM VibroAkustik Systeme B.V.Rechterensedijk 8, 7722 HB Dalfsen, The NetherlandsTel. +31 529 795 036 • Fax +31 38 8450-177E-Mail: [email protected]

China: Müller-BBM VibroAkustik Systeme Beijing LtdUnit 1002-1003, North Ring Center, #18 Yumin Road, Xicheng District, Beijing 100029, ChinaTel. +86-10-5128-5118 • Fax +86-10-8225-1626E-Mail: [email protected]

France: Müller-BBM VibroAkustik Systeme S.A.R.L.Parc Saint Christophe, 10 avenue de l’Entreprise, 95865 Cergy-Pontoise Cedex, FranceTel: +33-1-3422-5884 • Fax: +33-1-3422-5885E-Mail: [email protected]

Italy: Müller-BBM VibroAkustik Systems Italia S.r.l.Via Livorno 60, 10144 Turin, ItalyTel. +39-011-2257394 • Fax +39-011-2257207E-Mail: [email protected]

Scandinavia: Müller-BBM Scandinavia ABMarieholmsgatan 9, 41502 Gothenburg, SwedenTel. +46-10-4808500 • Fax +46-10-4808599E-Mail: [email protected]

South Africa: Mecalc (Pty) Limited125 Witch-Hazel Avenue, Highveld Technopark, Centurion 0157, South AfricaTel. +27-12-682-9000 • Fax +27-12-682-9050E-Mail: [email protected]

South Korea: Müller-BBM VibroAkustik Systeme Korea LtdRM 201, Amin B/D, 110-1, YangJae-Dong, Seocho-Gu, Seoul, 137-130, South KoreaTel. +82-2-529-0375 • Fax +82-2-529-0378E-Mail: [email protected]

USA: Müller-BBM VibroAkustik Systeme, Inc.455 E. Eisenhower Parkway, Suite 210, Ann Arbor, MI 48108, USATel. +1-734-327-4147 • Fax +1-734-327-4143E-Mail: [email protected]

DistributorsAustralia: Vipac Engineers and Scientists Ltd279 Normanby Road, Port Melbourne, Victoria 3207, AustraliaTel. +61-3-9647-9700 • Fax +61-3-9646-4370E-Mail: [email protected]

India: Welan Technologies‘Nissim’, Plot 10A, Lane No 13, Ganesh Kripa Society, Paud Road, Pune 411038, IndiaTel. +91-9225510908 • Fax +91-20-25393126E-Mail: [email protected]

Japan: TOYO Corporation1-6, Yaesu 1-chome, Chuo-ku, Tokyo 103-8284, JapanTel. +81-3-3279-0771 • Fax +81-3-5205-2030E-Mail: [email protected]

Malaysia: INFO-TRAX Sdn. Bhd.42-3 Jalan Sulaiman 1, Taman Putra Sulaiman, 68000 Ampang, Selangor, MalaysiaTel. +60-3-42706085 • Fax +60-3-42706054E-Mail: [email protected]

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