© groundwork cheshire this project is supported by: resource – process - efficiency how to engage...
TRANSCRIPT
© Groundwork Cheshire
This project is Supported
by:
Resource – Process - Efficiency
How to engage & inspire the client
To be really effective and ultimately successful you need to be perceived by the client as having
• commitment,• knowledge, experience,• be able to communicate• be understood• have empathy• understand synergy• credibility• passion and exuding that passion - transfering the passion
in part or in whole to the audience, (the client(s), to inspire them into action.
© Groundwork Cheshire
This project is Supported
by:
Process Efficiency
So how do you do this?
DEMONSTRATE AND SUPPORT THE POTENTIAL TO PROVIDE COST SAVINGS!!!!!!
© Groundwork Cheshire
This project is Supported
by:
What needs to be improved
• Identifying what needs to be improved is always helpful ie some companies have the mission statement, some companies lead times ;some service levels.
• Companies tend to relate back to the financial plan with some non financial targets such as complaints, customer ppm, hours without a lost time accident etc.
• These targets are then communicated through to all and action the team through policy deployment. This allows activities to be tested on the question- does project X support any of the critical objectives?.
© Groundwork Cheshire
This project is Supported
by:
Process Efficiency
Need to know what, where and how resources are used in the process and controls in place
– Do they have recognised Management procedures eg ISO– Is the process(es) a batch process or continuous or a
mixture– Do they recognize and apply best practice man machines
methods and materials?– Are there perceived bottlenecks, pinch points, rate
determining steps in the process
– Raw materials - records of amounts purchased/used, rejects &rework (plus analysis), complaints. Costs of major raw materials. QA records
– Energy & water- Bills, any monitoring and targeting, any analysis – major consumers of utilities
– Waste- how/where it arises - the amounts- is it avoidable and if unavoidable is it being managed?
– Transport- Systematic approach, logs of fuel use, training
© Groundwork Cheshire
This project is Supported
by:
Process Efficiency
Input 100% Output 70%
Difference 30% HOW, WHY ,WHERE ,WHO,WHAT
Process(es)
© Groundwork Cheshire
This project is Supported
by:
Where to start!
• “If you can’t measure it, you can’t
control it.
• If you can’t control it, you can’t improve
it.”
© Groundwork Cheshire
This project is Supported
by:
Effective use of Short Interval Control (SIC) can be summarized in this way
• Processes are kept in control when - and only when - every member of the organisation accepts responsibility for identifying variances, then takes action to eliminate causes of problems.
© Groundwork Cheshire
This project is Supported
by:
Some Basic and not so Basic Problem Solving Tools
• Brainstorming
• 5s – Sort-Set in order- Shine- Standardise- Sustain
• Histograms & Charts
• Process-Mapping
• Fishbone (Ishikawa) Diagrams
• Mapping – Visual - waste
• Causal-Loop Diagram
• Pareto Diagrams
• Attribute Charts
• Route Cause Analysis• Statistical Process Control – 6 sigma – Capability• SMED• Design of Experiments• Taguchi• Multi variable SPC
• Some tools are for driving improvements whilst the others are to stabilise the new state and managing abnormalities.
© Groundwork Cheshire
This project is Supported
by:
The Power of “Why
The most powerful question a consultant can ask is:
WHY?
… ask enough times and you will uncover the root cause.
© Groundwork Cheshire
This project is Supported
by:
Why Is The US Railroad Gauge 4’ 8.5”?
• Why? Because that's the way they built them in England.
• Why did the English build them like that? Because the first rail lines were built by the same people who built the pre-railroad tramways.
• Why did they use that gauge then? Because the people who built the tramways used the same jigs and tools that they used for building wagons, which used that wheel spacing.
• Why did the wagons have that particular odd wheel spacing? Well, if they tried to use any other spacing the wagon wheels would break on some of the old, long distance roads in England, because that's the spacing of the wheel ruts.
• So who built those old rutted roads? The first long distance roads in Europe (and England) were built by Imperial Rome for their legions - Roman war chariots first made the initial ruts, which everyone else had to match for fear of destroying their wagon wheels and wagons.
• Why were the chariots designed as they were? Imperial Roman war chariots were made just wide enough to accommodate the back ends of two war horses
© Groundwork Cheshire
This project is Supported
by:
Why Is The US Railroad Gauge 4’ 8.5”?
Because that is the width of the backend of two horses!
© Groundwork Cheshire
This project is Supported
by:
Definition: KPI
• A Key Performance Indicator (KPI) is a
metric which is used to measure the
performance of a critical or high
leverage activity or process
© Groundwork Cheshire
This project is Supported
by:
Definition: KPI
KPI’s are like the dashboard of a car.
They provide the essential information
required to control the vehicle safely and
efficiently. They do not provide
information on all of the aspects of the
vehicle which could be measured
© Groundwork Cheshire
This project is Supported
by:
Make sure you measure the right thing
• The FAA defines ‘on time departure’ as when the door shuts• …Not much fun if you’re a passenger delayed on the
runway for another hour
© Groundwork Cheshire
This project is Supported
by:
Use both ‘Leading’ and ‘Lagging’ indicators
ExampleWhen losing weight, it is far more effective to count calories than to just focus on weight
Leading indicators measure activity (input) while the lagging indicators measure results (output)
© Groundwork Cheshire
This project is Supported
by:
Map the KPI relationships using a tree
• KPI tree cascades each of the desired outcomes to the lowest level at which a KPI can be managed
$ / Unit Units
Cost $ Materials
Efficiency
Labor
Yield
Lagging Leading
© Groundwork Cheshire
This project is Supported
by:
Example of a KPI tree
ThroughputVariable
CostFixedCost
Efficiency Availability Quality
ChangeoversProcess ControlGive-Away /Breakages
Org.EffectivenessEnergy
EfficiencyInfrastructure
LaborProductivity
MaterialsUsage
StoppagesOvertime /Contractors
Staffing /Shifts
Warehouse Inventory
© Groundwork Cheshire
This project is Supported
by:
Set challenging goals
•Until Roger Bannister broke the four-minute mile, it was commonly believed that it could not be done
•After he broke the record, suddenly others began to be able to accomplish this as well
Why is that?
© Groundwork Cheshire
This project is Supported
by:
Targets, budgets, plans, etc.
• *B.D.P. = Best Demonstrated Practice
KPI
B.D.P.*
Budget
Plan
Base
Actual
Target
© Groundwork Cheshire
This project is Supported
by:
Define ‘SMART’ Targets
S Specific
M Measurable
A Achievable
R Realistic
T Time Related
© Groundwork Cheshire
This project is Supported
by:
KPI guidelines
• Should be limited to manageable number (12-25)• Should be used in balanced combinations or as ratios• Should be measured against a base, plan and target• Should be capable of being influenced by the person
monitoring it• Should be used as a tool to improve performance
and not to punish poor performance• Should be easy to understand
© Groundwork Cheshire
This project is Supported
by:
The D.A.D.A. Cycle
Analyse
Decision
Action Facts
Data
© Groundwork Cheshire
This project is Supported
by:
Stages In The Process
• Identify problems
• Record them
• Classify or group them
• Agree ranking criteria
• Rank and prioritise problems
© Groundwork Cheshire
This project is Supported
by:
Basic Problem Solving Tools
• Brainstorming
• Histograms & Charts
• Process-Mapping
• Fishbone (Ishikawa) Diagrams
• Mind-Mapping
• Causal-Loop Diagram
• Pareto Diagrams
© Groundwork Cheshire
This project is Supported
by:
Example: Pareto (80/20 Rule)
25
12
75
3 2
46
46%
71%
83%90%
95% 98% 100%
0
5
10
15
20
25
30
35
40
45
50
1 2 3 4 5 6 7
Category
Fre
qu
en
cy
0%
10%
20%
30%
40%
50%
60%
70%
80%
90%
100%
Cu
mm
ula
tiv
e %
© Groundwork Cheshire
This project is Supported
by:
Example: Fishbone (Ishikawa) Diagram
Men
EFFECT
Machines
Methods
Materials
Cause Effect
4 P’sPoliciesPlant
PeopleProcedure
s
© Groundwork Cheshire
This project is Supported
by:
Introduction of the root cause analysis (RCA)
• Definition
– Root Cause Analysis (RCA) is a formal approach to solving a given
problem
– The use of RCA provides a structured method for developing the root
cause and enables identification of the best recommended solutions to
the problem
• When is a RCA needed?
– Any time there is an incident, or when you have identified a repetitive
problem that needs to be solved
• Who can use the RCA method?
– Everyone
© Groundwork Cheshire
This project is Supported
by:
Root cause analysis in 5 steps
Step n°1:
agreement and scope problem.
Elements/Tools
Problem Statements
Timelines
Boundaries
Improvement Targets
Step n°2:
Collect data to establish a hypothesis, idea or theory of what
happened once the problem is defined.
Elements/Tools
Data collection plan
Collecting Data
Ishikawa
Affinity diagram
Pareto Charts
Flowcharts/ Process Maps
Step n°3:
Prove the hypothesis by taking the large list of potential causes and
identifying the most likely root cause(s)
Elements/Tools
Eliminate and rank causes
Ishikawa Diagrams
Pareto Charts
Flowchart/ Process Maps
Risk Analysis FMEA
Step n°4:
Generate a list of improvements to
address root causes of the identified issues
Elements/Tools
Assign Actions
Team Authorization
Define responsible entity and timeline
Prioritize (risk rank) task
Submit to RCA Team
Step n°5:
Ensure recommendations areimplemented through
assigning responsibilities tostakeholders and following
up in RCA Meetings
Elements/Tools
Follow up
Resource Evaluation
Communicate Results
Define the problem
Define the problem
Determine data needsDetermine data needs
Analyse the problem
Analyse the problem
Correctives Actions
Correctives Actions
Implementsolutions
Implementsolutions
© Groundwork Cheshire
This project is Supported
by:
Ishikawa example
Represented by the RIBS of the skeleton
Use the “4M’s” / “4P’s” or others to categorize the causes
Add the causes to the rib
Add further riblets to show relationships between causes
Effects
Causes
POOR GAS
MILEAGE
METHODS
MANPOWER
MACHINERY
MATERIALS
Use wrong gears
Poor hearing
Radio too loud
Can’t hear engine
Drivetoofast
Impatience
Alwayslate
Under-inflated tires
Poor design
Difficult air valvestems
Fuel mix toorich
Mech. doesn’thave specs
Carburetoradjustment
No recordtire pressure
Poormaintenance
No awareness
Poor training
“When in Rome”
Poor drivinghabits
Wrong gastype
No owner’smanual
Don’t knowrecommendedpetrol type
No oil change
Improper lubricationDon’t know right oil
Wrong oilNo owner’s manual
$
$
POOR GAS
MILEAGE
METHODS
MANPOWER
MACHINERY
MATERIALS
Use wrong gears
Poor hearing
Radio too loud
Can’t hear engine
Drivetoofast
Impatience
Alwayslate
Under-inflated tires
Poor design
Difficult air valvestems
Fuel mix toorich
Mech. doesn’thave specs
Carburetoradjustment
No recordtire pressure
Poormaintenance
No awareness
Poor training
“When in Rome”
Poor drivinghabits
Wrong gastype
No owner’smanual
Don’t knowrecommendedpetrol type
No oil change
Improper lubricationDon’t know right oil
Wrong oilNo owner’s manual
$
$
Causes Effects
© Groundwork Cheshire
This project is Supported
by:
CAUSE & EFFECT DIAGRAM reminders
• “4 M’s” “4 P’s”• Manpower Personnel• Machinery Plant• Materials Policies• Methods Procedures
© Groundwork Cheshire
This project is Supported
by:
Affinity diagram
Étape 1
Brainstormed Post-Its Define the categories
© Celerant Consulting AB Voyager Project Packaging Montreal 2004 13
Affinity diagram – étape 3
I nspectioncollage
I n feedcase
Bottle grid
I n feedbottleStartup
Divisionbottle
PM 5S
Conducteur / résultant 0/3
3/2
0/3
2/2
3/4
3/3
6/0
© Celerant Consulting AB Voyager Project Packaging Montreal 2004 12
Affinity diagram – étape 2
Inspection codage
In feed case Bottle gridIn feed bottles
Bottle division
PM/5S Startup
Case code faul t.
V ideo j et/ need counter
Case not in
posit ionBot tl e in head
Laner jam, down
bot tle in lanerB ott le counter M echanical jam
Synchro between bott le et cartons @
stop and start
Case out feed
block. Inspection
case
Case not i n good
posit ion or
miss ing
B ott le on the gri dDrop bott les at
t he laner ent ry
Liner pusher t o
highUpper head jam
E nd and start of
product ion
Drop bott les at
t he laner ent ryBot tl e count fault
Drop bott lesB ad t ransfer at
the bott le
di vis ion (24)
Desaj us té
(Tim ing)
Vitesses
inégales au laner
B arres de
poussée croches
Bot tl e count,
detim ing
Clutch faul t (bad
posit ion and bad
tim ing)
M issi ng bott le fault
Stick with the rule of 3 - 6 words per Post-It, with a verb.
© Groundwork Cheshire
This project is Supported
by:
Root Cause Analysis Roadmap
ProcessInputs Outputs
Su
pp
liers
Cu
sto
mers
Action log
Corrective Action
2 4 8 6 10
G
1 3 5 7 9A
BC
D
FE
JIH
G
Implementation
Define Problem
Analyze Data
Problem Statement:Goal:Business Case:Scope:Targeted improvementTimeline::
0
10,000
20,000
30,000
40,000
50,000
60,000
70,000
80,000
0020 Arret Scie (DetectionGenoux)
0001 Bp Arret Urgence 4pc12-2 0099 Trappe A Faute 0009 Convoyeur DeCompression Pas Baissee
0004 Blocage Entrée Courroie
Total
Determine Data Needs
© Groundwork Cheshire
This project is Supported
by:
Supported by coaching the people in using specific tools...
Helping the people utilise the new measurements properly
Frequency histogram
Pareto histogram Decision scripts
Source fishbone
Root-cause fishbone
3
“these tools can eventually be automated to help people think and make decisions faster”
© Groundwork Cheshire
This project is Supported
by:
Short Interval Control (SIC) Prevents Large Problems from Surprising the Organization
Frequent measurement prevents small problems from becoming big ones.
© Groundwork Cheshire
This project is Supported
by:
What is a Short Interval Control (SIC)?
• SIC is part of a suite of tools to improve the efficiency of production focusing on a part of a process that is critical to the overall optimisation of the process
• A tool tracking a variable at the optimum interval. This variable will be whatever is most meaningful in optimising output and the reporting will be based on a variance against a standard.
• Typically developed and used by the people at the ‘front line’ of the process and recorded by hand. High performance results are achieved where the operator has the desire & passion to achieve the best results and quickest resolution of issues – thus behaviours are very important.
• Provides a good base for communication tool between operators on shift change
© Groundwork Cheshire
This project is Supported
by:
Designing the Short Interval Control (SIC) –What are the principles?
• Find or develop experts who know about process control charts.
• ‘Get them to do it!’ - Coach the operators through drawing up the control chart, identifying the appropriate interval for measuring the variable, and establishing the desired parameters for operation (across shifts!).
• Don’t design the ‘perfect’ control chart - go with one that does the job; upgrade at a later date
• Make a commitment to reviewing the performance regularly and consistently
© Groundwork Cheshire
This project is Supported
by:
Coaching the Installation of a SIC
Working with Operators, define key variables to monitor
Coach operators in designing SIC
Get operators to agree on targets / parameters; communicate
across shifts
Set aside several hours each day to sit with operators to install SIC
Question operating norms, changes to rates, challenge non-
compliance, reward good operation, use problem-solving
tools to help remedy poor operation - LISTEN
Agree performance
standard
Agree performance
standard
Listen / Follow up
Listen / Follow upChallengeChallenge
Support / TrustSupport / Trust
© Groundwork Cheshire
This project is Supported
by:
Short Interval Control Tool
• Short Interval Control (SIC) mechanism is a simple tool
• Helps staying on track towards goal• SIC is utilizing the decision loop so frequently that
any deviation from progress towards goal is corrected early enough
DECISION (Plan)
ACTION (Do)
DATA (Check
)
ANALYSIS (Act)
© Groundwork Cheshire
This project is Supported
by:
Description of Short Interval Control
• If the indicator is in the red zone, the process is out of control. Take corrective action. Call the supervisor.
• If the indicator is in the yellow zone, take preventive measures to avoid the process going out of control.
• Check the adjustments or call the supervisor, electrician, mechanic.
• If the indicator is in the green zone, the process is under control Congratulations!
6 AM 7AM 8AM 9AM 10AM 11AM 12AM 1PM 2PM 3PM 4PM 5PM 6PM 7PM 8PM 9PM 10PM 11PM 12PM 1AM 2AM 3AM 4AM 5AM
25 min
20 min
5 min
0
10 min
15 min
Short interval control (SIC)
Follow: Follows the number of stops in minutes on the palletiser after accumulation or bad pallets (Follow every hour)
PalletiserPlace:Line: 3 - 4 - 5
Time
Number of the pallatiser
What is SIC?SIC is used to measure short-term changes in the process.It serves as a tool for communicating process-performance during team changes.It is a tool that ensures corrective actions are taken before the process goes out of control.
© Groundwork Cheshire
This project is Supported
by:
Example of Graphical SIC
6 AM 7AM 8AM 9AM 10AM 11AM 12AM 1PM 2PM 3PM 4PM 5PM 6PM 7PM 8PM 9PM 10PM 11PM 12PM 1AM 2AM 3AM 4AM 5AM
Operator Initials
Time
10 min
8 min
2 min
0
4 min
6 min
Short Interval Control (Example)
Line:Area:
Follow:
5
Shift Shift Shift
Corrective Action
Corrective Action - tendency increasing
Preventive Action
Preventive Action
Corrective Action
© Groundwork Cheshire
This project is Supported
by:
What’s SMED?
Single Minute Exchange of Dies
CYCLE TIME COMPRESSION AND
IMPROVEMENT IN QUALITY
© Groundwork Cheshire
This project is Supported
by:
PIT CREW
• Tyres ready, tools in place, fast-flow fuel tank is full
• Co-ordinated crew activity - four new tyres - fill fuel tank - wipe windshield - water for driver
• Car out of pit - get ready for next pit stop
© Groundwork Cheshire
This project is Supported
by:
IMPROVEMENTS IN PIT STOP TIMES
0
50
100
150
200
250
TIM
E I
N S
EC
ON
DS
1950 1960 1970 1980 1990
YEAR
© Groundwork Cheshire
This project is Supported
by:
Definition of changeover time
The time, the last good product was produced on the old set-
up, to the time, the first acceptable product is made on the
new set-up (after adjustments).”
© Groundwork Cheshire
This project is Supported
by:
CAUTION - What is the changeover time?
• to externalchangeov
er
internalactivity first pass
yieldrework
last good piece of old
productchangeover
start of first goodpiece of new product
re set-upduring
processof part
© Groundwork Cheshire
This project is Supported
by:
Parallel OperationsParallel Operations
© Groundwork Cheshire
This project is Supported
by:
How can adjustment time be eliminated?
RunInternalsExternals
RunInternalsExternals
© Groundwork Cheshire
This project is Supported
by:
Smooth & Simplify
• Eliminate adjustments - standardize location points, settings of adjustment, utilize visible centerlines and numerical scales
• Use functional clamps and one-turn, one-motion, interlocking methods
• Determine the best way to organize, maintain, and store tools and materials.
• Determine the right amount of tools and materials.
– And...
© Groundwork Cheshire
This project is Supported
by:
Smooth & Simplify
• “Slick” loading and unloading of dies and fixtures• Determine and record key dimensions• Utilize a least common multiple system• De-skill most steps• Utilization of appropriate technology - standard
base plates, chamfered pins, t bolts, v fixtures, limit switches to set heights and lengths, upgraded clamping methods
• Mechanize - utilize forklifts, overhead cranes, bolsters, remote control tightening devices, electric drives
© Groundwork Cheshire
This project is Supported
by:
BENEFITS of SMED
• Quicker set-ups - reduced downtime• Increased uptime - increased production and throughput• Higher equipment availability• Improved competitiveness - job security• Improved safety - reduced risk of injury & physical strain• Improved customer service and delivery• Reduced costs and improved quality• Reduced lot sizes• Reduced scrap and repair• Reduced work in process inventory
(WIP)• Reduced finished goods inventory /
need for storage space• Reduced obsolescence• Improved housekeeping• Simplified production scheduling• Increased manufacturing flexibility
© Groundwork Cheshire
This project is Supported
by:
SMED do’s and don’ts
DO• Start on bottlenecks• Reduce batch sizes in line with set-up reductions• Organize the workplace• Make checklists• Focus on internal set-ups first• Eliminate / reduce adjustments• Develop one-touch clamping• Utilize fool-proofing• Standardize methods
© Groundwork Cheshire
This project is Supported
by:
SMED do’s and don’ts
DON’T• Tackle all machines / products at once• Underestimate time required• Expect instant results
© Groundwork Cheshire
This project is Supported
by:
What is a One Point Lesson?
• It is a short Standard Operating Procedure (SOP) with visual elements written in one page
• It is a tool to communicate knowledge and skill about the equipment amongst members of the team.
• A tool to raise the knowledge and skills of the team in a very short period of time.
• If you find a better way of doing something you can ensure that everyone knows about it by using a One Point Lesson (OPL).
• If you have found a way of solving a problem and want to ensure that next time the problem is encountered everyone knows, then tell the team using an OPL (but also update the correlated SOP
© Groundwork Cheshire
This project is Supported
by:
What is a One Point Lesson?
• A One Point Lesson is one of the easiest and cheapest methods of reducing and avoiding downtime.
• It is a complement for the SOP in order to facilitate the communication and the training.
• One Point Lesson NEVER REPLACE THE SOP
© Groundwork Cheshire
This project is Supported
by:
How is a One Point Lesson generated?
• One member of the team prepares a sheet, which describes the problem and solution in simple language. Illustrate it with pictures if possible.
• The team discusses the OPL, formally or informally, and incorporate any ideas.
• The OPL is approved by line management to ensure it is appropriate and safe.
• The OPL is published and read by all members of all shift teams. Individuals sign to acknowledge that they have read the OPL.
© Groundwork Cheshire
This project is Supported
by:
The One Point Lesson Form (Example
© Groundwork Cheshire
This project is Supported
by:
How to achieve Behavioral Ownership
• Create a sense of urgency so that people start telling each other, “Let’s go, we need to change things!”
• Pull together a guiding team powerful enough to guide a big change
• Create clear, simple, uplifting visions and sets of strategies
• Communicate the vision through simple, heart felt messages sent through multiple channels so that people begin to buy into the change
• Empower the people by removing obstacles to the vision• Create short-term wins that provide momentum• Maintain momentum so that wave after wave of change is
possible• Make change stick by nurturing a new culture