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Risk Based Inspection Plan
for MI Enhancement and
Optimization
A Cost Effective Solution for
Asset Preservation
The Augustus Group (TAG or Augustus)
Mission Statement
• Problem Solving
– Assist with Problem Definition and
Strategy for Solution
– Work with You as Part of Your Team
• Provide Project Management and
Engineering Consulting in our
Specialized Technologies
 Huntsman
Chemical
 BHP Refinery
 Aimvenca &
Sincor
 Jose Cryogenics
(PDVSA)
 ENGEN Refinery
 Altura Energy
 Marathon
Ashland
 HB Fuller
 Condea Vista
 Minh Foods
 ABB Lummus
 Global Santa Fe
 NCRA
 CVR Refining
 Aristech
Chemical
 AKZONobel
 NASA
 Chemical
Manufacturer’s
Association
 Electric Power
Research Institute
 BP Refining &
Chemicals
 BP Upstream
 Arco Chemicals
 Engen Refinery
 DSM CoPolymer
 Orion Refinery
 SK Chemical
 Yukong Refinery
 Eastman Chemical
Company
 Transworld Pipeline
 Williams Refining
 Products and
Industrial Projects
 Carghill Fertilizer
Services and Experience
 Industries
 Petroleum and Chemical Downstream
 Oil and Gas Upstream, on-shore and off-
shore
 Food and Pharmaceutical
 Nuclear and Fossil Power
 Waste Water Treatment
 Principle Services
 Risk-Based Inspection of Facilities,
Equipment, and Pipelines
 Tank and Pipe line Integrity Management
and Risk Analysis
 Incident Investigation &
Insurance/Litigation Support
 Metallurgy, Corrosion Engineering &
Fitness for Service
 Fire & Explosion Hazard Analysis and
Management
 Environmental Impact and Remediation
Studies and Plans
 Security Planning and Emergency
Response
 Audits, Seminars, and Training
 Regulatory Support
RBI & TA Planning, Petroleum and Chemical
Industry Examples on TAG’s Resume
 Risk Analysis of Oman to India $6B Deep-water
Pipeline, Circa 1994
 RBI Analysis of 650 Pressure Vessels, BHP Refinery,
Circa 1995
 About 30 RBI Implementations Worldwide, 1995 - Present
 Pre-TA Analysis of About 300 Pressure Vessels
Previously Not Inspected, 3 Mo. Prior to TA, $14M
Savings, Circa 2006
 Risk Based Bolting QC Program, Two Mo. Prior to TA,
$MM no Leak Startup, Circa 2006
Most Companies Have or/are Making the
Transition
NFPA Diamond
Conventional
MI Program
API 570 Piping
Classes:
 I – Highest potential
of immediate
emergency on leak
 II – Not included in
other classes,
majority of lines
 III – Flammable, but
do not significantly
vaporize on leak, and
not in high activity
area.
Most Companies Have or/are
Making the Transition
NFPA Diamond Discrimination
Engineering
Analysis
RBI
Expert
Opinion
High
Low
High
RCM
Risk Based Mechanical
Integrity Using FFS and
Advanced NDE When
Needed
Conventional
MI Program
API 570 Piping
Classes:
 I – Highest potential
of immediate
emergency on leak
 II – Not included in
other classes,
majority of lines
 III – Flammable, but
do not significantly
vaporize on leak, and
not in high activity
area.
Most Companies Have or/are
Making the Transition
NFPA Diamond Discrimination
Engineering
Analysis
RBI
Expert
Opinion
High
Low
High
RCM
Consequence Ranking
ABCDE
1
2
3
4
5
ProbabilityRanking
HIGH
MED HIGH
MEDIUM
LOW
Risk Based Mechanical
Integrity Using FFS and
Advanced NDE When
Needed
Conventional
MI Program
API 570 Piping
Classes:
 I – Highest potential
of immediate
emergency on leak
 II – Not included in
other classes,
majority of lines
 III – Flammable, but
do not significantly
vaporize on leak, and
not in high activity
area.
Risk Based Inspection (RBI) Provides
MI Program Definition
 Focuses Limited
Resources on High Risk
Items
 Substantially Reduces
Time & Money Spent
Compared to Traditional
Programs
 Recognized & Accepted as
Good Engineering Practice
RBI Approach
Conventional Approach
Why Do we Do It?
 Risk Based Inspection Planning For
 On-stream Inspections
 Optimization Of Outage or
Turnaround Scope
 Risk Based Inspection Planning For New
Design Prior To Construction And
Operations
 Application Of Risk Based Principals To
Management Of Degraded Equipment
 Risk Based Inspection of Orphaned
Buried Piping
 RBI/FFS of Bullet Tanks Suspected of
Caustic Cracking
Hazard
Screen
Risk
Benchmark
Inspection
Plans
Non-
Intrusive
Inspections
Opportunity
Inspections
Turnaround
Plan
Evergreen
Risk
Analysis
Turnaround
Inspections
Important Concepts
 Three Parameters Define Risk
 Scenario or what can go wrong
 Probability of the scenario occurring or POF
 Consequence if the scenario occurs or COF
 Risk = POF x COF (parameters are not absolutes)
 Inspections do not reduce risk, inspections:
 Improve our state of knowledge of the POF
 Provide information to manage potential damage that
could lead to failure
 Risk-Based Inspection is Simply the Application
of Engineering Intensity to the Inspection
Function
Scenario - Initiation of Event and
Probability of Failure
Damage
Mechanism
Initiates, P1
Damage
Arrests
Damage
Continues,
P2
Damage is
Detected
Damage is
not
Detected or
Arrested
Damage
Continues,
P3
Damage
does not
arrest
Pressure
Boundary
is
Breached
Stressor(s)
Active
Mitigating
Factors &/or
Self Limiting
Nature of
Mechanism
Initiating Events
Effectiveness
of Non-Destructive
Examination
Damage
Continues
to Failure
(1-f2) = probability
damage will
be detected by NDE
Damage
Mechanisms are
Identified and Evaluated
Considering Process
Stream Conditions,
Metallurgy, and
Stressors
(1-f1) = probability
damage will
be mitigated
Scenario – Effect of Event and
Consequence of Failure
Pressure
Boundary
is
Breached
Leak is not
Arrested or
Mitigated
Leak
Continues,
P4
Leak
Disperses no
Con-
sequence
Leak Finds
Ignition
Source
Or Receptor
Destruction
Occurs,
P5
Leak
Arrests
Damage
Continues
to Failure
Effectiveness of
Detection System
Or Mitigation
Potential for
Finding
Ignition
Source or
Toxic Receptor
(1-f3) = probability
lleak will be mitigated
(1-f4) = probabability
leak will disperse
with no problems
Pinhole
or Minor Leak,
Subcritical
Defect or Leak, or
Gross Failure are
Evaluated for
Potential Damage
Mechanisms
How it Is Done?
 For Success Will Need:
1. Management Commitment
2. Policy, Procedures
3. Tools (Management Systems,
SW, etc.)
4. Training and
5. Audit of Implementation
How it Is Done?
 For Success Will Need:
1. Management Commitment
2. Policy & Procedures
3. Tools (Management Systems,
SW etc.)
4. Training and
5. Audit of Implementation
How it Is Done?
 For Success Will Need:
1. Management Commitment
2. Policy & Procedures
3. Tools (Management Systems,
SW, etc.)
 Management System for
Qualitative Analysis
 Customized Integration
 PHA Software
 XLS/Access
 SharePoint for Data
Management
 Associated Apps
 Inspection and Testing
Management System
 RBI Software, e.g. Aptech,
Capstone RBMI, API,
Reliasoft, PCMS, Tischuk,
TWI, Orbit, etc.
 Inspection Data
Management Software, e.g.
Ultra-pipe, 3-Rivers, etc.
 Deficiency Resolution
Management System
4. Training and
5. Audit of Implementation
Qualitative Risk Discovery to Semi-
Quantitative When Needed
Qualitative RBI
 Expert Judgment and Weighting of Qualitative Factors
 Training Participants On Scope, Approach, And Details
 Materials And Corrosion Analysis with Process
Segmentation
 Qualitative Review With Plant Personnel
 Reduction Of Data
 Presentation Review Of Results and Inspection Plans
 Final Report
 Recommend Integration with PHA to Ensure
Continuous Improvement and Employee
Involvement
RBI Management System
Implementation Process
Equipment
Data
Collection
Process
System
Corrosion
Analysis
Qualitative
Analysis
Data Entry
Quantitative
Analysis
QC Audit and
Equipment
Integrity
Review
RBI Plan
Approval
Action
(Inspections
etc)
Results
Analysis
Criticality and
Plan Update
 Plan
 Document
 Execute
 Continuously
Improve
Implementation Process
Equipment
Data
Collection
Process
System
Corrosion
Analysis
Qualitative
Analysis
Data Entry
Quantitative
Analysis
QC Audit and
Equipment
Integrity
Review
RBI Plan
Approval
Action
(Inspections
etc)
Results
Analysis
Criticality and
Plan Update
Implementation Process
Equipment
Data
Collection
Process
System
Corrosion
Analysis
Qualitative
Analysis
Data Entry
Quantitative
Analysis
QC Audit and
Equipment
Integrity
Review
RBI Plan
Approval
Action
(Inspections
etc)
Results
Analysis
Criticality and
Plan Update
Implementation Process
Equipment
Data
Collection
Process
System
Corrosion
Analysis
Qualitative
Analysis
Data Entry
Quantitative
Analysis
QC Audit and
Equipment
Integrity
Review
RBI Plan
Approval
Action
(Inspections
etc)
Results
Analysis
Criticality and
Plan Update
Implementation Process
Equipment
Data
Collection
Process
System
Corrosion
Analysis
Qualitative
Analysis
Data Entry
Quantitative
Analysis
QC Audit and
Equipment
Integrity
Review
RBI Plan
Approval
Action
(Inspections
etc)
Results
Analysis
Criticality and
Plan Update
Chance of Occurring X Failure Mode =
Qualitative Likelihood of Failure
CHANCE OF OCCURRING X FAILURE MODE
LIKELIHOOD
Qualitative Consequence of Failure
RESULT = 5x5 Matrix with History
Documented, For Use In Inspection Planning
Consequence Ranking
ABCDE
HIGH
MED HIGH
MEDIUM
LOW
1
2
3
4
5
ProbabilityRanking
Consequence
A-Catastrophic
B-Very Serious
C-Serious
D-Significant
E-Minor
Probability
1-Very High
2-High
3-Moderate
4-Low
5-Very Low
API RP 580 “Risk Based Inspection”
 Supports 510, 570, and 653
with Detailed Broad Based
Guidance and Criteria
 Provides Definition
 What RBI is
 Key Elements
 How to Implement a
Program
 No Preference to Single
Methodology
 Further Legitimatizes RBI
 Requirements for
 Documentation and Record
Keeping
 Training Program and
Certification in Conducting
RBI Analysis and Maintaining
the Program
 QC/QA of the RBI Analysis
and Maintenance
 Audits of the Program
Traditional MI vs RBI Implementation
 Collect PFDs and P&IDs for Unit. – Identical Activity for
RBI
 Create/Classify/Systems – Slight Modification to
Procedure for RBI Implementation
 System Break PFD Using Traditional Methods
 Collect MSDS Sheets For Each Major Stream As They Appear On
PFD
 Consult With Process Engineer/Operator To Obtain Pressures And
Temperatures For Process Lines On PFD
 Using Good Engineering Practices, And Accepted Procedures, Break
Major Systems At Locations That Best Achieve System Breaks IE:
Specs Break, Control Valves, Major Equipment Etc.
 Transfer systems to P&IDs and add systems as needed
and line breaks per procedures. – Requirements
Essentially Identical for RBI Implementation
 Risk Analysis - Qualitative Risk Analysis & Integration
with Process Hazard Analysis Using Agreed Upon Criteria
– Option to Use Quantitative Risk Based Software If
Desired on Select Items
 Walk down P&IDs (redline as needed and make system
adjustments per field changes) and develop FIELD
INVENTORY LIST as it is in the field.
 Develop System files for each system including MSDS
sheets and any other documentation collected to fortify
decisions made in systemizing. Classification is marked
for each system based on API 570 and MSDS /NFPA
flammability rating. – Identical Activity for RBI, Except
Potential Cost Savings and Potential to Focus on High
Risk Items if QRA is Done
Traditional MI vs RBI Implementation
Traditional MI vs RBI Implementation
 Taking each system at a time, Develop ISOs for FE and Piping
(separate) for Visual, UT, and/or any other needed NDT. Identical
Activity for RBI; Potential Cost Savings and Potential to Focus on High
Risk Items if QRA is Done
 Ensure Completeness and/or Build FE and Piping System Files –
Identical Activity for RBI
 UT each FE item along with Visual (using pre-accepted Check lists) -
Identical Activity for RBI, Except Cost Savings Using Prioritization of
Assets
 UT each Piping ISO including Visual (using checklists) - Identical
Activity for RBI, Except Cost Savings Using Prioritization of Assets
 Enter data into data management program for review with client for
deficiencies and inspection planning. - Identical Activity for RBI, Except
Cost Savings Using Prioritization of Assets
 Develop TROI list and/or NCR list for dispensation.
 Analyze Data and Develop Inspection Plans for Future - Identical
Activity for RBI, Except Cost Savings Using Prioritization of Assets
Risk After
Inspection
at Next TA
Date of
2016
Risk
Before
Inspection,
circa 2010
$$-TAG Savings From FFS and RBI
Well Documented
 Mid to Late 1990’s TAG Personnel Presented Cost
Savings (O&G Journal Article and NPRA)
 Open Less FE Items Just For Inspection
 Extend TA Interval
 2009 - Well Quantified, Tesoro NPRA
 TA Inspection Cost Savings Mo. 17, About $2.5M
 PV Inspection,
 Less RVs Maintenance
 LESS UT/Year, About $600K
 Safety, Environmental, and Lost Production Cost Benefits,
About $6.4M in Reduced Risk within 3 Mos Project
 2012, Caustic Cracking Example, $5MM To $10MM
Delivered Benefits From Project
Inspection Method Current
inspections
Cost RBMI
inspection
s
Cost Projected
Savings
Delivered
savings
INSPECTION COST RECUCTIONS
Thickness reading inspection costs vessels -
annual savings
11,580 $231,600 5,790 $115,800 $115,800
Thickness reading inspection costs piping
circuits - annual savings
32,236 $644,720 8,000 $160,000 $484,720
Total projected thickness reading inspection
costs vessels and piping
43,816 $876,320 13,790 $275,800 $600,520 $600,520
(on going)
TURN AROUND SAVINGS
2006 Turn around savings from reduced
frequency of relief valve maintenance
370 $555,000 222 $333,000 $222,000 $222,000
(month 17)
2010 Turn around savings from reduced
frequency of relief valve maintenance
370 $555,000 222 $333,000 $222,000
2006 turn around savings from reducing the
number of pressure vessels to be opened for
internal inspections
261 $5,220,000 183 $3,660,000 $1,560,000 $1,543,000
(month 17)
2010 turn around savings from reducing the
number of pressure vessels to be opened for
internal inspections
261 $5,220,000 183 $3,660,000 $1,560,000
RISK REDUCTION
10 year reduced risk of equipment
failure
$13,510,000 $6,373,000
(To date!!)
Calculating Risk And Risk Reduction
Cumulative Risk Curves, Production and Safety Losses
0
2,000,000
4,000,000
6,000,000
8,000,000
10,000,000
12,000,000
14,000,000
1 105 209 313 417 521 625 729 833 937 1041 1145 1249 1353 1457 1561 1665 1769 1873 1977 2081 2185
Equipment Component Count
CumulativeRisk($/yr)
As-Found Risk
Risk Distribution
10 1 10 0 0 0 0
33 2 1 10 3 18 1
22 3 0 6 3 12 1
25 4 5 0 0 17 3
100 5 27 0 0 65 8
E D C B A
190 43 16 6 112 13
After Risk Mitigation
Risk Distribution
3 1 3 0 0 0 0
13 2 2 6 0 5 0
25 3 4 10 3 8 0
35 4 6 0 3 21 5
114 5 28 0 0 78 8
E D C B A
190 43 16 6 112 13
• #4 gas risk reduction = $4,100,000
• Alky risk reduction = $3,950,000
• ACID risk reduction = $3,000,000
• FCC risk reduction = $1,300,000
• ARU risk reduction = $400,000
• #4 HDS risk reduction = $400,000
• #3 HDS risk reduction = $360,000
• Total $13,510,000
RBI Inspection Plan
The RBI Inspection Plan must use the
risk assessment to determine:
 When to Inspect (Interval)
 What to Inspect (Scope)
 How to Inspect (Method)
This must be done in a way that ensures that the
same risk values yield the same actions every
time.
Top 5 Reasons for Disappointment
with RBI
 1.
 2.
 3.
 4.
 5. The consultants didn’t understand our
plant or our systems
 1.
 2.
 3.
 4. RBI was too complicated for the
company team members
 5. The consultants didn’t understand our
plant or our systems
Top 5 Reasons for Disappointment
with RBI
 1.
 2.
 3. Problems with basic plant data
 4. RBI was too complicated for the
company team members
 5. The consultants didn’t understand our
plant or our systems
Top 5 Reasons for Disappointment
with RBI
 1.
 2. Lack of buy-in by some or all of the
organization
 3. Problems with basic plant data
 4. RBI was too complicated for the
company team members
 5. The consultants didn’t understand our
plant or our systems
Top 5 Reasons for Disappointment
with RBI
 1. No measurable return on investment
 2. Lack of buy-in by some or all of the
organization
 3. Problems with basic plant data
 4. RBI was too complicated for the
company team members
 5. The consultants didn’t understand our
plant or our systems
Top 5 Reasons for Disappointment
with RBI

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Introduction to The Augustus Group and RBI

  • 1. 1 Risk Based Inspection Plan for MI Enhancement and Optimization A Cost Effective Solution for Asset Preservation
  • 2. The Augustus Group (TAG or Augustus) Mission Statement • Problem Solving – Assist with Problem Definition and Strategy for Solution – Work with You as Part of Your Team • Provide Project Management and Engineering Consulting in our Specialized Technologies
  • 3.  Huntsman Chemical  BHP Refinery  Aimvenca & Sincor  Jose Cryogenics (PDVSA)  ENGEN Refinery  Altura Energy  Marathon Ashland  HB Fuller  Condea Vista  Minh Foods  ABB Lummus  Global Santa Fe  NCRA  CVR Refining  Aristech Chemical  AKZONobel  NASA  Chemical Manufacturer’s Association  Electric Power Research Institute  BP Refining & Chemicals  BP Upstream  Arco Chemicals  Engen Refinery  DSM CoPolymer  Orion Refinery  SK Chemical  Yukong Refinery  Eastman Chemical Company  Transworld Pipeline  Williams Refining  Products and Industrial Projects  Carghill Fertilizer Services and Experience  Industries  Petroleum and Chemical Downstream  Oil and Gas Upstream, on-shore and off- shore  Food and Pharmaceutical  Nuclear and Fossil Power  Waste Water Treatment  Principle Services  Risk-Based Inspection of Facilities, Equipment, and Pipelines  Tank and Pipe line Integrity Management and Risk Analysis  Incident Investigation & Insurance/Litigation Support  Metallurgy, Corrosion Engineering & Fitness for Service  Fire & Explosion Hazard Analysis and Management  Environmental Impact and Remediation Studies and Plans  Security Planning and Emergency Response  Audits, Seminars, and Training  Regulatory Support
  • 4. RBI & TA Planning, Petroleum and Chemical Industry Examples on TAG’s Resume  Risk Analysis of Oman to India $6B Deep-water Pipeline, Circa 1994  RBI Analysis of 650 Pressure Vessels, BHP Refinery, Circa 1995  About 30 RBI Implementations Worldwide, 1995 - Present  Pre-TA Analysis of About 300 Pressure Vessels Previously Not Inspected, 3 Mo. Prior to TA, $14M Savings, Circa 2006  Risk Based Bolting QC Program, Two Mo. Prior to TA, $MM no Leak Startup, Circa 2006
  • 5. Most Companies Have or/are Making the Transition NFPA Diamond Conventional MI Program API 570 Piping Classes:  I – Highest potential of immediate emergency on leak  II – Not included in other classes, majority of lines  III – Flammable, but do not significantly vaporize on leak, and not in high activity area.
  • 6. Most Companies Have or/are Making the Transition NFPA Diamond Discrimination Engineering Analysis RBI Expert Opinion High Low High RCM Risk Based Mechanical Integrity Using FFS and Advanced NDE When Needed Conventional MI Program API 570 Piping Classes:  I – Highest potential of immediate emergency on leak  II – Not included in other classes, majority of lines  III – Flammable, but do not significantly vaporize on leak, and not in high activity area.
  • 7. Most Companies Have or/are Making the Transition NFPA Diamond Discrimination Engineering Analysis RBI Expert Opinion High Low High RCM Consequence Ranking ABCDE 1 2 3 4 5 ProbabilityRanking HIGH MED HIGH MEDIUM LOW Risk Based Mechanical Integrity Using FFS and Advanced NDE When Needed Conventional MI Program API 570 Piping Classes:  I – Highest potential of immediate emergency on leak  II – Not included in other classes, majority of lines  III – Flammable, but do not significantly vaporize on leak, and not in high activity area.
  • 8. Risk Based Inspection (RBI) Provides MI Program Definition  Focuses Limited Resources on High Risk Items  Substantially Reduces Time & Money Spent Compared to Traditional Programs  Recognized & Accepted as Good Engineering Practice RBI Approach Conventional Approach
  • 9. Why Do we Do It?  Risk Based Inspection Planning For  On-stream Inspections  Optimization Of Outage or Turnaround Scope  Risk Based Inspection Planning For New Design Prior To Construction And Operations  Application Of Risk Based Principals To Management Of Degraded Equipment  Risk Based Inspection of Orphaned Buried Piping  RBI/FFS of Bullet Tanks Suspected of Caustic Cracking Hazard Screen Risk Benchmark Inspection Plans Non- Intrusive Inspections Opportunity Inspections Turnaround Plan Evergreen Risk Analysis Turnaround Inspections
  • 10. Important Concepts  Three Parameters Define Risk  Scenario or what can go wrong  Probability of the scenario occurring or POF  Consequence if the scenario occurs or COF  Risk = POF x COF (parameters are not absolutes)  Inspections do not reduce risk, inspections:  Improve our state of knowledge of the POF  Provide information to manage potential damage that could lead to failure  Risk-Based Inspection is Simply the Application of Engineering Intensity to the Inspection Function
  • 11. Scenario - Initiation of Event and Probability of Failure Damage Mechanism Initiates, P1 Damage Arrests Damage Continues, P2 Damage is Detected Damage is not Detected or Arrested Damage Continues, P3 Damage does not arrest Pressure Boundary is Breached Stressor(s) Active Mitigating Factors &/or Self Limiting Nature of Mechanism Initiating Events Effectiveness of Non-Destructive Examination Damage Continues to Failure (1-f2) = probability damage will be detected by NDE Damage Mechanisms are Identified and Evaluated Considering Process Stream Conditions, Metallurgy, and Stressors (1-f1) = probability damage will be mitigated
  • 12. Scenario – Effect of Event and Consequence of Failure Pressure Boundary is Breached Leak is not Arrested or Mitigated Leak Continues, P4 Leak Disperses no Con- sequence Leak Finds Ignition Source Or Receptor Destruction Occurs, P5 Leak Arrests Damage Continues to Failure Effectiveness of Detection System Or Mitigation Potential for Finding Ignition Source or Toxic Receptor (1-f3) = probability lleak will be mitigated (1-f4) = probabability leak will disperse with no problems Pinhole or Minor Leak, Subcritical Defect or Leak, or Gross Failure are Evaluated for Potential Damage Mechanisms
  • 13. How it Is Done?  For Success Will Need: 1. Management Commitment 2. Policy, Procedures 3. Tools (Management Systems, SW, etc.) 4. Training and 5. Audit of Implementation
  • 14. How it Is Done?  For Success Will Need: 1. Management Commitment 2. Policy & Procedures 3. Tools (Management Systems, SW etc.) 4. Training and 5. Audit of Implementation
  • 15. How it Is Done?  For Success Will Need: 1. Management Commitment 2. Policy & Procedures 3. Tools (Management Systems, SW, etc.)  Management System for Qualitative Analysis  Customized Integration  PHA Software  XLS/Access  SharePoint for Data Management  Associated Apps  Inspection and Testing Management System  RBI Software, e.g. Aptech, Capstone RBMI, API, Reliasoft, PCMS, Tischuk, TWI, Orbit, etc.  Inspection Data Management Software, e.g. Ultra-pipe, 3-Rivers, etc.  Deficiency Resolution Management System 4. Training and 5. Audit of Implementation
  • 16. Qualitative Risk Discovery to Semi- Quantitative When Needed
  • 17. Qualitative RBI  Expert Judgment and Weighting of Qualitative Factors  Training Participants On Scope, Approach, And Details  Materials And Corrosion Analysis with Process Segmentation  Qualitative Review With Plant Personnel  Reduction Of Data  Presentation Review Of Results and Inspection Plans  Final Report  Recommend Integration with PHA to Ensure Continuous Improvement and Employee Involvement
  • 18. RBI Management System Implementation Process Equipment Data Collection Process System Corrosion Analysis Qualitative Analysis Data Entry Quantitative Analysis QC Audit and Equipment Integrity Review RBI Plan Approval Action (Inspections etc) Results Analysis Criticality and Plan Update  Plan  Document  Execute  Continuously Improve
  • 19. Implementation Process Equipment Data Collection Process System Corrosion Analysis Qualitative Analysis Data Entry Quantitative Analysis QC Audit and Equipment Integrity Review RBI Plan Approval Action (Inspections etc) Results Analysis Criticality and Plan Update
  • 20. Implementation Process Equipment Data Collection Process System Corrosion Analysis Qualitative Analysis Data Entry Quantitative Analysis QC Audit and Equipment Integrity Review RBI Plan Approval Action (Inspections etc) Results Analysis Criticality and Plan Update
  • 21. Implementation Process Equipment Data Collection Process System Corrosion Analysis Qualitative Analysis Data Entry Quantitative Analysis QC Audit and Equipment Integrity Review RBI Plan Approval Action (Inspections etc) Results Analysis Criticality and Plan Update
  • 22. Implementation Process Equipment Data Collection Process System Corrosion Analysis Qualitative Analysis Data Entry Quantitative Analysis QC Audit and Equipment Integrity Review RBI Plan Approval Action (Inspections etc) Results Analysis Criticality and Plan Update
  • 23. Chance of Occurring X Failure Mode = Qualitative Likelihood of Failure CHANCE OF OCCURRING X FAILURE MODE LIKELIHOOD
  • 25. RESULT = 5x5 Matrix with History Documented, For Use In Inspection Planning Consequence Ranking ABCDE HIGH MED HIGH MEDIUM LOW 1 2 3 4 5 ProbabilityRanking Consequence A-Catastrophic B-Very Serious C-Serious D-Significant E-Minor Probability 1-Very High 2-High 3-Moderate 4-Low 5-Very Low
  • 26. API RP 580 “Risk Based Inspection”  Supports 510, 570, and 653 with Detailed Broad Based Guidance and Criteria  Provides Definition  What RBI is  Key Elements  How to Implement a Program  No Preference to Single Methodology  Further Legitimatizes RBI  Requirements for  Documentation and Record Keeping  Training Program and Certification in Conducting RBI Analysis and Maintaining the Program  QC/QA of the RBI Analysis and Maintenance  Audits of the Program
  • 27. Traditional MI vs RBI Implementation  Collect PFDs and P&IDs for Unit. – Identical Activity for RBI  Create/Classify/Systems – Slight Modification to Procedure for RBI Implementation  System Break PFD Using Traditional Methods  Collect MSDS Sheets For Each Major Stream As They Appear On PFD  Consult With Process Engineer/Operator To Obtain Pressures And Temperatures For Process Lines On PFD  Using Good Engineering Practices, And Accepted Procedures, Break Major Systems At Locations That Best Achieve System Breaks IE: Specs Break, Control Valves, Major Equipment Etc.  Transfer systems to P&IDs and add systems as needed and line breaks per procedures. – Requirements Essentially Identical for RBI Implementation
  • 28.  Risk Analysis - Qualitative Risk Analysis & Integration with Process Hazard Analysis Using Agreed Upon Criteria – Option to Use Quantitative Risk Based Software If Desired on Select Items  Walk down P&IDs (redline as needed and make system adjustments per field changes) and develop FIELD INVENTORY LIST as it is in the field.  Develop System files for each system including MSDS sheets and any other documentation collected to fortify decisions made in systemizing. Classification is marked for each system based on API 570 and MSDS /NFPA flammability rating. – Identical Activity for RBI, Except Potential Cost Savings and Potential to Focus on High Risk Items if QRA is Done Traditional MI vs RBI Implementation
  • 29. Traditional MI vs RBI Implementation  Taking each system at a time, Develop ISOs for FE and Piping (separate) for Visual, UT, and/or any other needed NDT. Identical Activity for RBI; Potential Cost Savings and Potential to Focus on High Risk Items if QRA is Done  Ensure Completeness and/or Build FE and Piping System Files – Identical Activity for RBI  UT each FE item along with Visual (using pre-accepted Check lists) - Identical Activity for RBI, Except Cost Savings Using Prioritization of Assets  UT each Piping ISO including Visual (using checklists) - Identical Activity for RBI, Except Cost Savings Using Prioritization of Assets  Enter data into data management program for review with client for deficiencies and inspection planning. - Identical Activity for RBI, Except Cost Savings Using Prioritization of Assets  Develop TROI list and/or NCR list for dispensation.  Analyze Data and Develop Inspection Plans for Future - Identical Activity for RBI, Except Cost Savings Using Prioritization of Assets
  • 30. Risk After Inspection at Next TA Date of 2016 Risk Before Inspection, circa 2010
  • 31. $$-TAG Savings From FFS and RBI Well Documented  Mid to Late 1990’s TAG Personnel Presented Cost Savings (O&G Journal Article and NPRA)  Open Less FE Items Just For Inspection  Extend TA Interval  2009 - Well Quantified, Tesoro NPRA  TA Inspection Cost Savings Mo. 17, About $2.5M  PV Inspection,  Less RVs Maintenance  LESS UT/Year, About $600K  Safety, Environmental, and Lost Production Cost Benefits, About $6.4M in Reduced Risk within 3 Mos Project  2012, Caustic Cracking Example, $5MM To $10MM
  • 32. Delivered Benefits From Project Inspection Method Current inspections Cost RBMI inspection s Cost Projected Savings Delivered savings INSPECTION COST RECUCTIONS Thickness reading inspection costs vessels - annual savings 11,580 $231,600 5,790 $115,800 $115,800 Thickness reading inspection costs piping circuits - annual savings 32,236 $644,720 8,000 $160,000 $484,720 Total projected thickness reading inspection costs vessels and piping 43,816 $876,320 13,790 $275,800 $600,520 $600,520 (on going) TURN AROUND SAVINGS 2006 Turn around savings from reduced frequency of relief valve maintenance 370 $555,000 222 $333,000 $222,000 $222,000 (month 17) 2010 Turn around savings from reduced frequency of relief valve maintenance 370 $555,000 222 $333,000 $222,000 2006 turn around savings from reducing the number of pressure vessels to be opened for internal inspections 261 $5,220,000 183 $3,660,000 $1,560,000 $1,543,000 (month 17) 2010 turn around savings from reducing the number of pressure vessels to be opened for internal inspections 261 $5,220,000 183 $3,660,000 $1,560,000 RISK REDUCTION 10 year reduced risk of equipment failure $13,510,000 $6,373,000 (To date!!)
  • 33. Calculating Risk And Risk Reduction Cumulative Risk Curves, Production and Safety Losses 0 2,000,000 4,000,000 6,000,000 8,000,000 10,000,000 12,000,000 14,000,000 1 105 209 313 417 521 625 729 833 937 1041 1145 1249 1353 1457 1561 1665 1769 1873 1977 2081 2185 Equipment Component Count CumulativeRisk($/yr) As-Found Risk Risk Distribution 10 1 10 0 0 0 0 33 2 1 10 3 18 1 22 3 0 6 3 12 1 25 4 5 0 0 17 3 100 5 27 0 0 65 8 E D C B A 190 43 16 6 112 13 After Risk Mitigation Risk Distribution 3 1 3 0 0 0 0 13 2 2 6 0 5 0 25 3 4 10 3 8 0 35 4 6 0 3 21 5 114 5 28 0 0 78 8 E D C B A 190 43 16 6 112 13 • #4 gas risk reduction = $4,100,000 • Alky risk reduction = $3,950,000 • ACID risk reduction = $3,000,000 • FCC risk reduction = $1,300,000 • ARU risk reduction = $400,000 • #4 HDS risk reduction = $400,000 • #3 HDS risk reduction = $360,000 • Total $13,510,000
  • 34. RBI Inspection Plan The RBI Inspection Plan must use the risk assessment to determine:  When to Inspect (Interval)  What to Inspect (Scope)  How to Inspect (Method) This must be done in a way that ensures that the same risk values yield the same actions every time.
  • 35. Top 5 Reasons for Disappointment with RBI  1.  2.  3.  4.  5. The consultants didn’t understand our plant or our systems
  • 36.  1.  2.  3.  4. RBI was too complicated for the company team members  5. The consultants didn’t understand our plant or our systems Top 5 Reasons for Disappointment with RBI
  • 37.  1.  2.  3. Problems with basic plant data  4. RBI was too complicated for the company team members  5. The consultants didn’t understand our plant or our systems Top 5 Reasons for Disappointment with RBI
  • 38.  1.  2. Lack of buy-in by some or all of the organization  3. Problems with basic plant data  4. RBI was too complicated for the company team members  5. The consultants didn’t understand our plant or our systems Top 5 Reasons for Disappointment with RBI
  • 39.  1. No measurable return on investment  2. Lack of buy-in by some or all of the organization  3. Problems with basic plant data  4. RBI was too complicated for the company team members  5. The consultants didn’t understand our plant or our systems Top 5 Reasons for Disappointment with RBI