2. What is Asset Integrity
Asset Integrity is an effective system for
managing the integrity of equipment, piping and
pipelines throughout the full lifecycle:
design
construction & installation
operation
maintenance, (repairs, alterations)
integrity assessments
decommissioning
Developing and implementing an Asset Integrity
program at the design stage supports lifecycle
reliability and operability
3. What is Asset Integrity
Regulatory Requirements (ABSA/CSA/EUB/)
Pressure Equipment Integrity Management System
(PEIMS)
Pipeline Integrity Management Program
Key elements include:
Risk assessments
Degradation Circuits
Material selection
Condition monitoring location (CML) selection
Inspection, Mitigation, Monitoring
Data management
Training programs
4. What is Asset Integrity
Typical Equipment within Scope:
Boilers and heaters
Pressure vessels (including Pressure relief devices)
Pressure piping
Tanks
Non-pressure static equipment
Non-pressure piping
Pipelines
Not in Scope
Structural
Rotating equipment
Electrical
5. Overview
Why:
What is the value of incorporating Asset Integrity into
the design stage of a project?
How:
What are the key activities at each stage of the
project?
Deliverables:
What are the deliverables at each stage of the
project?
6.
7. Why
De-ethanizer overhead gas
line – erosion corrosion
failure downstream of mixing
point
Humber Refinery Fire, Health Safety Executive (HSE) Report
http://www.hse.gov.uk/offshore/information.htm
8. Why incorporate Asset Integrity into
the design stage of a project
The goal of each project is to create a business asset
that performs its intended function, is safe,
environmentally sound and reliable.
The project is expected to be executed within the planned cost
and schedule
*“ I can’t emphasize enough that you’ve got to get this right.
You got to get this right. Because when you finally lock the
scope, you’re stuck with it for 30, 40, 50 years, so you better
not have any regrets when you start building it and running it
that you didn’t get it right”
~Neil Camarta
*Petro-Canada Investor Day: Fort Hills—Oil Sands Engine of Growth, Neil Camarta, Senior Vice-President, Oil
Sands
9. “You got to get this right”
Incorporate lifecycle asset integrity into the
design
Have a positive impact:
for the project – efficient project execution
and optimize capital costs
for the operation- improve reliability and
operability
10. Incorporate lifecycle asset integrity into
the design
Make well thought out
decisions to meet project
and operations objectives
Good decisions include:
Involving the right people
Having a structured process
to guide decision making
Maintaining good
documentation
11. Incorporate lifecycle asset integrity
into the design
Increased upfront engineering can:
Support quality decisions regarding CAPEX (design
mitigation) and OPEX (operational mitigation)
Provide clarity and direction that reduces time in
detailed engineering
Reduce rework during fabrication and during
operations
Meet operational reliability expectations for long term
plant life
12. Trend in Industry
Understanding of the importance of
incorporating Asset Integrity into the design
stage is increasing due to serious failures in the
refinery, petrochemical and pipeline industry
Major corporations now require risk assessments at
the design stage.
Regulator requires the effective systems for managing
the integrity of their pressure equipment throughout
its full lifecycle which includes design, construction
and installation.
13. How
Incorporate asset integrity activities into key
phases of the project
Identify key project objectives, development phases,
milestones and hold points
Utilize defined processes (i.e. Risk Base Inspection)
to make decisions
Supply defined deliverables at each stage of the
project
Recognize, understand, and quantify the impacts and
values added from asset integrity activities
14. Key activities and deliverables at
each stage of the project
Companies have multi step project
management processes
1. Select Alternatives
2. Front End Engineering
3. Detailed Engineering
4. Fabrication and Construction
5. Commissioning
6. Turn Over to operations
15. 1. Select Alternatives
Key Processes
Design Basis Risk Assessment
Lessons Learned Study
Key Deliverables
Asset Integrity design philosophy report
Lessons learned report
Technical work book with all supporting
information. (dynamic document)
The work book will form the basis of additional risk
assessments and the integrity manuals for the
operating facilities
16. 1. Select Alternatives
Impact
Business basis for integrity
management strategy
Risk based decisions that
consider full asset lifecycle
Design mitigation
Alloy’s, coatings, equipment
design, process changes
Operational mitigation
Inhibition, process control,
inspection, monitoring, run to
failure
Alternative selection considers
potential degradation
mechanisms and other
hazards
17. 2. Front End Engineering
Key Activities
Risk Assessment
Incorporate lessons learned
Development/Updating of Standards
Management of Change
Key Deliverables
Scope and budget includes asset integrity and QA
work
Technical work book with all supporting information.
New or revised specifications
Documented basis of integrity related design
decisions
18. 2. Front End Engineering
Impact
Scope and costs for integrity
related work are included in
project budget
Determine first planned
shutdown
Equipment isolation and
inspection plan
Design mitigation
i.e. select materials and design
Operational mitigation
i.e. select mitigation and
monitoring strategy
19. 3. Detailed Engineering
Key Processes
Assessment of deviations from initial design
Previous Risk Assessment methodology can be used
Materials selection report and diagram (MSD) reviews
P&ID reviews
Development/Implementation of quality assurance program
Key Deliverables
Reports or recommendations on specific technical issues
Equipment Integrity Manuals
Based on technical work books
Degradation circuits
Document the basis of design decisions
Incorporates information from reports or recommendations on specific
technical issues
Foundation of RBI and overall asset integrity program
Incorporate EPC Information
Condition Monitoring Location (CML) selection
Corrosion monitoring locations
QA issues
20. 3. Detailed Engineering
Impact
Provide technical input at
project reviews, hold points,
and milestones
Capture the technical basis
and rational behind material,
mitigation, monitoring and
inspection decisions
Understanding the rational
allows more effective
management of future changes
(personal and process)
3D Modeling can be used for
selection of CML’s, corrosion
monitoring locations, etc.
21. 4. Fabrication and Construction
Key Activities
Quality assurance and Quality control
a key aspect of asset integrity
Vendor audits and reviews
Assessment of deviations from design
Key Deliverables
Updated equipment integrity manuals
Baseline CML survey on critical equipment and piping
completed
Start populating equipment data base
22. 4. Fabrication and Construction
Impact
Final product
meets design
specifications
Have base line
data
23. 5. Commissioning
Key Activities
Assessment of deviations from design
Regulatory requirements prior to start up
Plan for start up activities
Key Deliverables
Installation Inspections compete
PSV’s serviced
Equipment integrity manual complete
Equipment database is populated with new equipment
Baseline TML complete on critical equipment and piping
Complete training for critical tasks
24. 5. Commissioning
Impact
All critical tasks have
been completed prior
to start up
Installation inspections
and PSV servicing
Inhibition programs in
place
Monitoring programs in
place
Training on procedures
completed
25. 6. Hand Over to Operations
Key Processes
Training
Key Deliverables
Equipment Integrity Manuals
Documentation of deviations from design
Populated database
Mitigation and monitoring plan
Maintenance planning
Long term training program
26. 6. Hand Over to Operations
Impact
A business asset that is safe, environmentally sound and reliable