Cover Page

This book is one in a series of process safety guidelines and concept books published by the Center for Chemical Process Safety (CCPS). Please go to www.wiley.com/go/ccps for a full list of titles in this series.

It is sincerely hoped that the information presented in this document will lead to an even more impressive safety record for the entire industry. However, the American Institute of Chemical Engineers, its consultants, the CCPS Technical Steering Committee and Subcommittee members, their employers, their employers’ officers and directors, and AcuTech Consulting Group, Inc., and its employees do not warrant or represent, expressly or by implication, the correctness or accuracy of the content of the information presented in this document. As between (1) American Institute of Chemical Engineers, its consultants, CCPS Technical Steering Committee and Subcommittee members, their employers, their employers’ officers and directors, and AcuTech Consulting Group, Inc., and its employees and (2) the user of this document, the user accepts any legal liability or responsibility whatsoever for the consequences of its use or misuse.

Dealing with Aging Process Facilities and Infrastructure



CENTER FOR CHEMICAL PROCESS SAFETY of the AMERICAN INSTITUTE OF CHEMICAL ENGINEERS New York, NY








Wiley Logo

LIST OF TABLES

  1. Table 2.2-1. Deaths and Injuries Statistics for MARS Reportable Major Accident Hazard Incidents
  2. Table 2.2-2. Total Losses (Million € Equivalent) for MARS Reportable Major Accident Hazard Incidents
  3. Table 2.3-1. Examples of Corrosion Mechanisms
  4. Table 2.3-1. Examples of Corrosion Mechanisms, continued
  5. Table 2.3-2. Typical Refinery Elements Contributing to Elevated Corrosion Rates
  6. Table 3.2-1. Component Condition Health Metrics
  7. Table 3.2-1. Component Condition Health Metrics, continued
  8. Table 4.2-1. Guidelines for Risk Based Decisions
  9. Table 4.3-1. RBD Documentation Guidelines
  10. Table 4.6-1. Corrective and Preventive Metrics Definitions
  11. Table 4.6-1. Corrective and Preventive Metrics Definitions, continued
  12. Table 5.4-1. Estimated Mean Life for the 500-kV Reactors (IEEE, 2006)
  13. Table 6.1-1. Budgeting Guidelines for Various Types of Infrastructure to be maintained
  14. Table 7.1-1. Analogous Inspection Practices for Structures
  15. Table 7.1-1. Analogous Inspection Practices for Structures, continued
  16. Table 7.1-2. Example Checklist for Structural Assets
  17. Table 7.2-1. Inspection Practices for Electrical Infrastructure
  18. Table 7.2-2. Example Checklist for Electrical Systems
  19. Table 7.2-3. Inspection Practices for Control Systems Infrastructure
  20. Table 7.2-4. List of UPS Disturbance Causes
  21. Table 7.3-1. Inspection Practices for Road Infrastructure
  22. Table 7.3-2. Example Checklist for Roads Maintenance and Inspection
  23. Table 7.3-2. Example Checklist for Roads Maintenance and Inspection, continued
  24. Table 7.3-3. Inspection Practices for Earthwork Infrastructure
  25. Table 7.3-4. Example Checklist for Earthworks Infrastructure Maintenance and Inspection
  26. Table 7.3-5. Example Checklist of Inspection Practices for Rail Spur Infrastructure
  27. Table 7.4-1. Inspection Practices for Marine Infrastructure
  28. Table 7.4-2. Example Checklist for Marine Infrastructure
  29. Table 7.5-1. Inspection Practices for Underground Cable Systems
  30. Table 7.5-2. Example Checklist for Maintenance and Inspection of Underground Cable Systems
  31. Table 7.5-3. Inspection Practices for Underground Utility Piping Infrastructure
  32. Table 7.5-3. Inspection Practices for Underground Utility Piping Infrastructure, continued
  33. Table 7.5-4. Example Checklist for Underground Utility Piping Infrastructure

LIST OF FIGURES

  1. Figure 1.1-1. Image of an Aging Facility Containing Silos
  2. Figure 1.1-2. Vintage Vessels Fastened with Rivets
  3. Figure 1.4-1. Suggested Spectrum for Aging Facilities
  4. Figure 1.4-2. External Corrosion of a Pipe Due to Leakage of Steam Tracing (Sastry, 2015)
  5. Figure 1.4-3. Image Showing Scoring on a Shaft
  6. Figure 2.2-1. High Level Categorization of MARS Incidents
  7. Figure 2.2-2. Causes of Technical Integrity Incidents in MARS Data
  8. Figure 2.3-1. Typical Stress vs. Strain Diagram Indicating the Various Stages of Deformation
  9. Figure 2.3-2. Catastrophic Failure of Electrical Generator Rotor
  10. Figure 2.3-3. Rotted Railway Ties Providing Weakened Support
  11. Figure 2.5-1. Grain Loading Conveyor Collapse in Ama, Louisianna
  12. Figure 2.5-2. Image of Corroded Oil Recovery Vessels
  13. Figure 2.5-3. Image of Aging Iron Making Facility
  14. Figure 2.5-4. Image of Aging Gas Plant
  15. Figure 2.5-5. Image of Aging Process at Marine Facility
  16. Figure 2.5-6. Image of Aging Process Facility
  17. Figure 2.5-7. 1911 Vintage 3-Cylinder Internal Combustion Engine
  18. Figure 4.1-1. Dimensions of Choice
  19. Figure 4.1-2. Example of a Risk Matrix
  20. Figure 4.3-1. Aging Assets RBD Logic Diagram
  21. Figure 5.2-1. Asset Lifecycle Management
  22. Figure 5.3-1. Codes and Standards Applied to Facility Assets
  23. Figure 5.3-2. Probability of Failure vs. Time for a Safety Instrumented System (Dräger, 2007)
  24. Figure 5.4-1. Basin Curve for Failure Rate of Equipment
  25. Figure 5.4-2. Relationship Between Failure Rate and Age for a Normal Probability Distribution
  26. Figure 5.4-3. Relationship Between Failure Rate and Age for a Weibull Probability Distribution
  27. Figure 5.4-4. Relationship Between the Value, Time, and Preventive Maintenance for Aged Equipment
  28. Figure 5.5-1. Aged Conveyor System in Backup Service
  29. Figure 6.1-1. Vintage Steel Mill Retired from Active Service
  30. Figure 6.1-2. Vintage Chemical Plant Dust Reduction Facility
  31. Figure 6.1-3. Cable Failure Rates
  32. Figure 6.4-1. Vintage Grain Elevator Awaiting Renewal (or Refurbishment)
  33. Figure 6.4-2. Expected Uniform Annual Cost
  34. Figure 7.1-1. Image of a Building That Developed a Crumbling Crack
  35. Figure 7.1-2. Photo of Primitive Structural Supports
  36. Figure 7.1-3. Liquefied Petroleum Gas (LPG) Storage Sphere Collapsed While Being Filled for a Hydrostatic Pressure Test
  37. Figure 7.1-4. Chemical Plant Shelter Showing Signs of Severe Deterioration
  38. Figure 7.1-5. Building Presenting Aging Signs
  39. Figure 7.1-6. Photo of Aged Chemical Silos
  40. Figure 7.2-1. Motor Control Center (MCC) Thermal Scan of a Phenol Unit – Photo
  41. Figure 7.2-2. Motor Control Center (MCC) Thermal Scan of a Phenol Unit – Photo
  42. Figure 7.2-3. Thermography Image Showing Hot Terminals
  43. Figure 7.2-4. Damaged Contacts in Lighting Panel Circuit Breaker
  44. Figure 7.2-5. Loose A Phase on 3 Phase Circuit Breaker and Possible Unbalanced Load
  45. Figure 7.2-6. Loose Connection on A Phase in a 2 Speed Motor Contactor
  46. Figure 7.2-7. Medium Voltage (15kV) Indoor Open-Air Switchgear
  47. Figure 7.3-1. Picture of Vintage Tank Car Fastened with Rivets
  48. Figure 8.1-1. Image of Building Awaiting Demolition
  49. Figure AP.1-1. Example of an Old Facility Presenting Aging Signs
  50. Figure AP.1-2. Sketch Showing Bending Moment as a Result Unbalanced Buoyancy Forces

ACKNOWLEDGMENTS

The American Institute of Chemical Engineers (AIChE) and the Center for Chemical Process Safety (CCPS) express their appreciation and gratitude to all members of the Aging Process Facilities and Infrastructure Subcommittee for their generous efforts in the development and preparation of this important concept book. CCPS also wishes to thank the subcommittee members’ respective companies for supporting their involvement in this project.

We appreciate the involvement and writing contributions of Brian Kelly and Terry White. Special thanks are extended to the team of technical writers from ioMosaic Corporation who coordinated inputs and developed the manuscript. The ioMosaic team consisted of Elena Prats, Peter Stickles and Kathy Anderson.

The members of the CCPS project subcommittee were:

Eric Freiburger Praxair, subcommittee chair
Brian Kelly CCPS staff consultant
Laura Bellman Covestro
Larry Bowler SABIC
Bill Callaghan Nova Chemicals
Derin Adebekun Air Products
Susan Lubell Nexen Energy
Bennie Barnes Pacific Gas and Electric
Jonas Duarte Chemtura
Reyyan Koc ExxonMobil Chemical
John Murphy CCPS emeritus
Jatin Shah BakerRisk
Ken Tague Archer Daniels Midland
Sudhir Phakey Linde
Nancy Faulk Siemens Energy
Tom Sandbrook Chemours
Robb Van Sickle Flint Hills Resources
Terry White Pacific Gas and Electric
Bob Wasileski formerly Nova Chemicals

All CCPS books are subjected to a rigorous peer review prior to publication. CCPS gratefully acknowledges the thoughtful comments and suggestions of the following peer reviewers:

Robert Bartlett Pareto Engineering & Management
Consulting
Andrew Basler Mallinckrodt Pharmaceuticals
Michael Broadribb BakerRisk
Mark Jackson FM Global
Morteza Jafari ABS Group Consulting (USA)
Pamela Nelson Solvay
Chad Patschke Ethos Mechanical Integrity Solutions
Perianan Radhakrishnan Petrochemical Corporation of Singapore
M.S. Rajendran ABS Group Consulting (Singapore)
Darrell Wadden Nova Chemicals Ltd.
Dan Wilczynski Marathon Petroleum Company
Della Wong Canadian Natural Resources Ltd.

PREFACE

The process safety community, through professional and industry associations, has focused considerable attention on Asset Integrity Management (AIM) of equipment directly involved in process operations. The purpose of this book is to address integrity management of assets that often fall outside the traditional process safety management asset integrity program, because they are not ranked high as “safety critical’’ and have long lifecycles. In particular, such assets include process supporting infrastructure like pipe racks and bridges, equipment supporting structures, sewer and drain lines, rail spurs, and process buildings to name a few. Failure of these types of assets can be contributing factors to process safety incidents and should not be ignored.

Aging process equipment, facilities and infrastructure are common in industry today. The developed world has expanded at an ever increasing rate placing high demands on our existing infrastructure. In many instances, equipment is now required to operate at conditions well beyond those anticipated in the original design. Service life may also have been extended. The option to retire and replace aging equipment is often not practical or economical. In fact, sometimes decisions are made to run equipment to failure.

Industry needs to better manage what it has built and acquired over the past several decades. There is no established set of rules for doing this. Each company or operating facility must examine its own business practices and goals and determine a strategy that meets its own risk criteria.

Aging equipment presents a challenge to managing the integrity of plants and associated infrastructure. This book examines the concept of aging equipment and infrastructure in high hazard industries. It specifically looks at the causes and effects of aging in many types of facilities. Possible options for dealing with the problem are highlighted without providing prescriptive advice. Related publications from the Center for Chemical Process Safety (CCPS) and others are cross referenced to provide the reader with a better understanding of the problems encountered by others and some of the solutions that have been applied. The challenge of dealing with aging process facilities and infrastructure is merely one component of a “broad based” Asset Integrity management program. The material herein was developed and compiled by a team of industry practitioners to supplement and expand upon the discussion of aging facilities and infrastructure in the CCPS publication “Guidelines for Asset Integrity Management”.

The American Institute of Chemical Engineers (AIChE) has been closely involved with process safety and loss control issues in the chemical and allied industries for more than four decades. Through its strong ties with process designers, constructors, operators, safety professionals, and members of academia, AIChE has enhanced communications and fostered continuous improvement of the industry’s high safety standards. AIChE publications and symposia have become information resources for those devoted to process safety and environmental protection.

CCPS is chartered to develop and disseminate technical information for use in the prevention of major chemical accidents. The center is supported by more than 190 Chemical Process Industries (CPI) sponsors who provide the necessary funding and professional guidance to its technical committees. The major product of CCPS activities has been a series of guidelines and concept books to assist those implementing various elements of a process safety and risk management system. This book is part of that series.