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Summary
Summary
Pressure Systems Casebook contains a collection of papers drawn from two IMechE seminars that will be of particular interest to students and engineers who want to broaden their knowledge and learn from experience and history.
The authors' backgrounds cover a range of perspectives, from representing industrial users of pressure systems to regulators, research, and engineering consultants.
Complete contents:
Lessons from failures of gas cylinders used for dispensing beverages Experience from Health and Safety laboratory investigations Insurance aspects of pressure systems failures Failure investigation for commercial purposes - system failures leading to the collapse of storage vessels under partial vacuum Reliable technical failure investigation Failure design procedures in the new European Pressure Vessel Standard EN 13445 Causes of vibration fatigue in process pipework - a new methodology to assess the risk Avoiding vibration-induced fatigue failures in process pipework Lessons learned from pressure system failuresPressure systems contain stored energy and the threat of damaging failure is ever present. Failures of pressure systems still occur and are costly to those affected; yet the main causes, consequences, and methods of investigation are not widely known. Pre-existing defects are a major cause of failures and near-failures in pressure systems, yet many can be avoided by greater awareness of the circumstances in which they arise.
Author Notes
John Wintle is the editor of Pressure Systems Casebook: Causes and Avoidance of Failures and Defects, published by Wiley.
Table of Contents
Foreword | p. ix |
Chapter 1 Lessons from Failures of Gas Cylinders Used for Dispensing Beverages | p. 1 |
Introduction | p. 1 |
1.1 Causes of moisture in gas cylinders | p. 2 |
1.2 Changes in design philosophy | p. 3 |
1.3 Failures due to faults in manufacture and quality assurance | p. 4 |
1.4 Failures due to change of use | p. 7 |
1.5 Failures due to inability to prevent or detect moisture | p. 11 |
1.6 Failure due to limitations of periodic examination | p. 15 |
1.7 Research | p. 16 |
1.8 Conclusions | p. 17 |
References | p. 18 |
Chapter 2 Experience from Health and Safety Laboratory Investigations | p. 19 |
Introduction | p. 19 |
2.1 Pressure vessels and boilers | p. 20 |
2.2 Chemical reactor vessel | p. 25 |
2.3 Piping and pipework | p. 29 |
2.4 Liquid propane gas storage | p. 37 |
2.5 Miscellaneous failures | p. 39 |
2.6 Causes of failure and lessons learned | p. 43 |
References | p. 44 |
Chapter 3 Insurance Aspects of Pressure Systems Failures | p. 45 |
Introduction | p. 45 |
3.1 Engineering insurance | p. 45 |
3.2 Examples of failures giving rise to claims | p. 46 |
3.3 Lessons from major failure | p. 52 |
3.4 The Flixborough disaster | p. 52 |
3.5 The inquiry | p. 55 |
3.6 Failure of steam shell boilers | p. 56 |
3.7 The cost of uninsured losses | p. 59 |
3.8 Preventing losses by risk management | p. 61 |
3.9 Risk assessment | p. 62 |
3.10 Effective inspection | p. 63 |
3.11 Lessons from failures | p. 63 |
Chapter 4 Failure Investigation for Commercial Purposes--System Failures Leading to the Collapse of Storage Vessels under Partial Vacuum | p. 65 |
Introduction | p. 65 |
4.1 The role of the commercial engineering investigator | p. 66 |
4.2 The hopper in a food processing plant | p. 67 |
4.3 The holding tank at a bottling plant | p. 69 |
4.4 The oil storage tank | p. 70 |
4.5 Lessons | p. 72 |
Chapter 5 Reliable Technical Failure Investigation | p. 75 |
Introduction | p. 75 |
5.1 Data gathering | p. 75 |
5.2 Determination of failure mechanism(s) | p. 76 |
5.3 Determination of sequence of failure | p. 79 |
5.4 Determination of cause of failure | p. 81 |
5.5 Reporting | p. 84 |
5.6 Conclusions | p. 84 |
Chapter 6 Failure Design Procedures in the New European Pressure Vessel Standard EN 13445 | p. 85 |
Introduction | p. 85 |
6.1 Basic approach | p. 85 |
6.2 Design data | p. 86 |
6.3 Stresses | p. 90 |
6.4 Measures for revising an assessment | p. 92 |
6.5 Fatigue loading | p. 93 |
6.6 Simplified fatigue assessment methods | p. 93 |
6.7 Validation | p. 94 |
6.8 Future work | p. 95 |
References | p. 95 |
Chapter 7 Causes of Vibration Fatigue in Process Pipework--a New Methodology to Assess the Risk | p. 97 |
Introduction | p. 97 |
7.1 Factors influencing vibration induced fatigue | p. 99 |
7.2 Strategies for dealing with vibration induced fatigue | p. 101 |
7.3 Overview of a risk-based approach | p. 102 |
7.4 Practical implementation | p. 105 |
7.5 Case studies | p. 110 |
7.6 Conclusions | p. 111 |
References | p. 112 |
Chapter 8 Avoiding Vibration-induced Fatigue Failures in Process Pipework | p. 113 |
Introduction | p. 113 |
8.1 Background | p. 115 |
8.2 The vibration problem | p. 115 |
8.3 Examples of failures | p. 119 |
8.4 Development of assessment methods | p. 121 |
8.5 Development of long-term, vibration-monitoring techniques | p. 127 |
8.6 Example modifications | p. 129 |
8.7 Concluding remarks | p. 130 |
References | p. 131 |
Chapter 9 Lessons Learned from Pressure System Failures | p. 133 |
Introduction | p. 133 |
9.1 Examples of failures in pressurized systems | p. 134 |
9.2 Lessons to be learned | p. 142 |