Available:*
Library | Item Barcode | Call Number | Material Type | Item Category 1 | Status |
---|---|---|---|---|---|
Searching... | 30000010037283 | TA169 C37 2003 | Open Access Book | Book | Searching... |
Searching... | 30000010028999 | TA169 C37 2003 | Open Access Book | Book | Searching... |
On Order
Summary
Summary
Introducing a groundbreaking companion book to a bestselling reliability text
Reliability is one of the most important characteristics defining the quality of a product or system, both for the manufacturer and the purchaser. One achieves high reliability through careful monitoring of design, materials and other input, production, quality assurance efforts, ongoing maintenance, and a variety of related decisions and activities. All of these factors must be considered in determining the costs of production, purchase, and ownership of a product.
Case Studies in Reliability and Maintenance serves as a valuable addition to the current literature on the subject of reliability by bridging the gap between theory and application. Conceived during the preparation of the editors' earlier work, Reliability: Modeling, Prediction, and Optimization (Wiley, 2000), this new volume features twenty-six actual case studies written by top experts in their fields, each illustrating exactly how reliability models are applied.
A valuable companion book to Reliability: Modeling, Prediction, and Optimization, or any other textbook on the subject, the book features:
* Case studies from fields such as aerospace, automotive, mining, electronics, power plants, dikes, computer software, weapons, photocopiers, industrial furnaces, granite building cladding, chemistry, and aircraft engines
* A logical organization according to the life cycle of a product or system
* A unified format of discussion enhanced by tools, techniques, and models for drawing one's own conclusions
* Pertinent exercises for reinforcement of ideas
Of equal value to both students of reliability theory as well as professionals in industry, Case Studies in Reliability and Maintenance should be required reading for anyone seeking to understand how reliability and maintenance issues can be addressed and resolved in the real world.
Author Notes
WALLACE R. BLISCHKE, holds a PhD in Statistics and serves as Professor Emeritus at Marshall School of Business, University of Southern California.
D. N. PRABHAKAR MURTHY, PhD, is Professor of Engineering and Operations Management at the University of Queensland, St. Lucia, Australia. Together they have coauthored Reliability: Modeling, Prediction, and Optimization (Wiley); Warranty Cost Analysis; and Product Warranty Handbook.
Table of Contents
Contributors | p. xvii |
Preface | p. xxv |
1. Introduction and Overview | p. 1 |
1.1. Introduction | p. 1 |
1.2. Reliability, Maintenance, Maintainability, and Quality | p. 3 |
1.3. History of Reliability and Maintainability | p. 9 |
1.4. Applications | p. 10 |
1.5. Life Cycle Concepts | p. 11 |
1.6. Tools and Techniques for the Study of Reliability | p. 14 |
1.7. Reliability and Maintenance Data and Analysis | p. 19 |
1.8. Issues in Reliability and Maintenance | p. 23 |
1.9. Case Studies: An Overview | p. 24 |
References | p. 32 |
Part A. Cases with Emphasis on Product Design | p. 35 |
2. Space Interferometer Reliability-Based Design Evaluation | p. 37 |
2.1. Introduction | p. 37 |
2.2. Problem Description | p. 38 |
2.3. Alternative Optical Interferometer Designs | p. 39 |
2.4. Evaluation of Alternative Designs | p. 53 |
2.5. Interpretations, Conclusions, and Extensions | p. 59 |
References | p. 60 |
Exercises | p. 60 |
Acronyms | p. 61 |
3. Confidence Intervals for Hardware Reliability Predictions | p. 63 |
3.1. Introduction | p. 63 |
3.2. Approach | p. 64 |
3.3. Problem Description | p. 64 |
3.4. Reliability Modeling | p. 66 |
3.5. Subassembly hardware Reliability Prediction | p. 71 |
3.6. Construction of Component Failure Rate Database | p. 75 |
3.7. Comparing Field Reliability Results with Predictions | p. 78 |
3.8. Implementation | p. 79 |
3.9. Conclusions | p. 79 |
References | p. 80 |
Exercises | p. 81 |
4. Allocation of Dependability Requirements in Power Plant Design | p. 85 |
4.1. Introduction | p. 85 |
4.2. System Characterization | p. 87 |
4.3. Modeling Dependability and Requirements | p. 87 |
4.4. Allocation of Requirements | p. 94 |
4.5. Continued Allocation in the Fault Tree | p. 101 |
4.6. Conclusions | p. 103 |
References | p. 105 |
Exercises | p. 106 |
Part B. Cases with Emphasis on Development and Testing | p. 109 |
5. The Determination of the Design Strength of Granite Used as External Cladding for Buildings | p. 111 |
5.1. Introduction | p. 111 |
5.2. Properties of Granite | p. 113 |
5.3. Reliability Criteria | p. 115 |
5.4. Current Practices | p. 117 |
5.5. Case Study | p. 122 |
5.6. Conclusions | p. 129 |
References | p. 130 |
Exercises | p. 131 |
Appendix A. Rosa Antico Data | p. 132 |
Appendix B. White Berrocal Data | p. 134 |
6. Use of Sensitivity Analysis to Assess the Effect of Model Uncertainty in Analyzing Accelerated Life Test Data | p. 135 |
6.1. Introduction | p. 135 |
6.2. Weibull Distribution and Initial Data Analysis | p. 138 |
6.3. Response Surface Model Analysis | p. 146 |
6.4. Effect of Stroke Displacement on Spring Life | p. 151 |
6.5. Concluding Remarks | p. 157 |
References | p. 158 |
Exercises | p. 158 |
Appendix A. SPLIDA Commands for the Analyses | p. 159 |
Appendix B. Spring-Accelerated Life Test Data | p. 161 |
7. Virtual Qualification of Electronic Hardware | p. 163 |
7.1. Introduction | p. 163 |
7.2. Automotive Module Case Study | p. 167 |
7.3. Summary | p. 184 |
References | p. 184 |
Exercises | p. 185 |
8. Development of a Moisture Soak Model for Surface-Mounted Devices | p. 187 |
8.1. Introduction | p. 187 |
8.2. Experimental Procedure and Results | p. 189 |
8.3. The Moisture Soak Model | p. 191 |
8.4. Discussion | p. 199 |
References | p. 201 |
Exercises | p. 202 |
9. Construction of Reliable Software in Resource-Constrained Environments | p. 205 |
9.1. Introduction | p. 205 |
9.2. Constrained Development | p. 207 |
9.3. Model and Metrics | p. 210 |
9.4. Case Studies | p. 216 |
9.5. Summary | p. 227 |
References | p. 227 |
Exercises | p. 230 |
10. Modeling and Analysis of Software System Reliability | p. 233 |
10.1. Introduction | p. 233 |
10.2. NHPP Software Reliability Growth Models | p. 235 |
10.3. Case Study | p. 238 |
10.4. Problems and Alternatives | p. 240 |
10.5. Case Study (Continued) | p. 244 |
10.6. Discussion | p. 247 |
References | p. 248 |
Exercises | p. 249 |
11. Information Fusion for Damage Prediction | p. 251 |
11.1. Introduction | p. 251 |
11.2. Approach Used | p. 252 |
11.3. Binary Random Variable and Test Data | p. 253 |
11.4. Physical Parameters and Expert Testimonies | p. 254 |
11.5. Information Fusion: A Bayesian Approach | p. 255 |
11.6. Data Analysis and Interpretation | p. 262 |
11.7. Conclusions | p. 263 |
References | p. 263 |
Exercises | p. 264 |
Appendix | p. 264 |
Part C. Cases with Emphasis on Defect Prediction and Failure Analysis | p. 267 |
12. Use of Truncated Regression Methods to Estimate the Shelf Life of a Product from Incomplete Historical Data | p. 269 |
12.1. Introduction | p. 269 |
12.2. Truncated Data Background | p. 273 |
12.3. Truncated Regression Model for the Truncated Product A Shelf-Life Data | p. 277 |
12.4. Comparison of Truncated and Censored Data Analysis | p. 283 |
12.5. Concluding Remarks and Extensions | p. 286 |
References | p. 288 |
Exercises | p. 288 |
Appendix. SPLIDA Commands for the Analyses | p. 290 |
13. Determining Software Quality Using COQUALMO | p. 293 |
13.1. Introduction | p. 293 |
13.2. Software Reliability Definitions | p. 294 |
13.3. Constructive Quality Model (COQUALMO) | p. 294 |
13.4. Case Study | p. 307 |
13.5. Conclusions | p. 309 |
References | p. 310 |
Exercises | p. 311 |
14. Use of Extreme Values in Reliability Assessment of Composite Materials | p. 313 |
14.1. Introduction | p. 313 |
14.2. Test Data and Background Knowledge | p. 314 |
14.3. Model Fitting and Prediction | p. 314 |
14.4. Strength Testing | p. 324 |
14.5. Discussion | p. 328 |
References | p. 329 |
Exercises | p. 329 |
15. Expert Judgment in the Uncertainty Analysis of Dike Ring Failure Frequency | p. 331 |
15.1. Introduction | p. 331 |
15.2. Uncertainty Analysis | p. 332 |
15.3. Expert Judgment Method | p. 333 |
15.4. The Dike Ring Expert Judgment Study | p. 337 |
15.5. Results | p. 339 |
15.6. Conclusions | p. 345 |
References | p. 347 |
Exercises | p. 348 |
Appendix. Example of Elicitation Question: Model Term Zwendl | p. 349 |
Part D. Cases with Emphasis on Maintenance and Maintainability | p. 351 |
16. Component Reliability, Replacement, and Cost Analysis with Incomplete Failure Data | p. 353 |
16.1. Introduction | p. 353 |
16.2. Maintenance Data | p. 354 |
16.3. Modeling Failures | p. 357 |
16.4. Component Replacement Policy Options | p. 361 |
16.5. Planned Replacement--Analysis and Costs | p. 364 |
16.6. Conclusion | p. 372 |
References | p. 373 |
Exercises | p. 374 |
Appendix. RELCODE Software | p. 375 |
17. Maintainability and Maintenance--A Case Study on Mission Critical Aircraft and Engine Components | p. 377 |
17.1. Introduction | p. 377 |
17.2. The Airline Company Profile | p. 381 |
17.3. Analysis of Unscheduled Maintenance | p. 383 |
17.4. Engine Reliability and Maintenance Policies | p. 387 |
17.5. Planned and Unplanned Maintenance in Engine | p. 391 |
17.6. Conclusions | p. 396 |
References | p. 397 |
Exercises | p. 398 |
18. Photocopier Reliability Modeling Using Evolutionary Algorithms | p. 399 |
18.1. Introduction | p. 399 |
18.2. System Characterization | p. 400 |
18.3. Preliminary Analysis | p. 401 |
18.4. Weibull Models | p. 405 |
18.5. Evolutionary (Genetic) Algorithm | p. 407 |
18.6. Model Fitting and Analysis | p. 408 |
18.7. Modeling Failures over Time | p. 415 |
18.8. Conclusions | p. 418 |
References | p. 419 |
Exercises | p. 419 |
Appendix | p. 421 |
19. Reliability Model for Underground Gas Pipelines | p. 423 |
19.1. Introduction | p. 423 |
19.2. Modeling Pipeline Failures | p. 425 |
19.3. Third-Party Interference | p. 428 |
19.4. Damage Due to Environment | p. 432 |
19.5. Failure Due to Corrosion | p. 433 |
19.6. Validation | p. 437 |
19.7. Results for Ranking | p. 439 |
19.8. Conclusions | p. 444 |
References | p. 444 |
Exercises | p. 445 |
20. RCM Approach to Maintaining a Nuclear Power Plant | p. 447 |
20.2. Introduction | p. 447 |
20.2. System Characterization and Modeling | p. 448 |
20.3. An Overview of RCM | p. 452 |
20.4. Field Data | p. 463 |
20.5. Maintenance of CVCS System | p. 466 |
20.6. Conclusions | p. 471 |
References | p. 473 |
Exercises | p. 474 |
Appendix | p. 476 |
21. Case Experience Comparing the RCM Approach to Plant Maintenance with a Modeling Approach | p. 477 |
21.1. Introduction | p. 477 |
21.2. Delay Time Concept | p. 479 |
21.3. Data Records and Analysis | p. 480 |
21.4. Factors Affecting Human Error Failures | p. 483 |
21.5. Modeling Assumptions | p. 484 |
21.6. Decision Model | p. 485 |
21.7. Estimating Parameters | p. 486 |
21.8. The Models | p. 487 |
21.9. The RCM Approach | p. 489 |
21.10. Discussion and Conclusions | p. 491 |
References | p. 493 |
Exercises | p. 494 |
Part E. Cases with Emphasis on Operations Optimization and Reengineering | p. 495 |
22. Mean Residual Life and Optimal Operating Conditions for Industrial Furnace Tubes | p. 497 |
22.1. Introduction | p. 497 |
22.2. Failure Mechanisms and Detection | p. 498 |
22.3. Residual Life Prediction: Deterministic Approaches | p. 499 |
22.4. Residual Life Prediction: Reliability Approach | p. 502 |
22.5. Optimum Operating Temperature | p. 509 |
22.6. Optimum Preventive Maintenance | p. 510 |
22.7. Summary | p. 511 |
References | p. 511 |
Exercises | p. 513 |
23. Optimization of Dragline Load | p. 517 |
23.1. Introduction | p. 517 |
23.2. Approach Used | p. 518 |
23.3. System Characterization | p. 519 |
23.4. Field Data | p. 521 |
23.5. Component Level: Modeling, Estimation, and Analysis | p. 523 |
23.6. System Level Modeling and Analysis | p. 529 |
23.7. Modeling the Effect of Dragline Load | p. 532 |
23.8. Optimal Dragline Load | p. 536 |
23.9. Conclusions and Recommendations | p. 538 |
References | p. 540 |
Exercises | p. 541 |
Appendix | p. 543 |
24. Ford's Reliability Improvement Process--A Case Study on Automotive Wheel Bearings | p. 545 |
24.1. Introduction | p. 545 |
24.2. Approach Used | p. 547 |
24.3. Quantitative Analysis Methods | p. 550 |
24.4. Data and Analysis | p. 558 |
24.5. Conclusions and Recommendations | p. 567 |
References | p. 568 |
Exercises | p. 569 |
25. Reliability of Oil Seal for Transaxle--A Science SQC Approach at Toyota | p. 571 |
25.1. Introduction | p. 571 |
25.2. Oil Seal | p. 572 |
25.3. Reliability Improvement at Toyota: A Cooperative Team Approach | p. 574 |
25.4. Reliability Improvement of Oil Seal | p. 576 |
25.5. Conclusion | p. 586 |
References | p. 586 |
Exercises | p. 587 |
Part F. Cases with Emphasis on Product Warranty | p. 589 |
26. Warranty Data Analysis for Assessing Product Reliability | p. 501 |
26.1. Introduction | p. 591 |
26.2. Reliability Metrics | p. 594 |
26.3. Field Feedback | p. 600 |
26.4. Analysis of Field Data | p. 604 |
26.5. Conclusions | p. 617 |
References | p. 620 |
Exercises | p. 621 |
27. Reliability and Warranty Analysis of a Motorcycle Based on Claims Data | p. 623 |
27.1. Introduction | p. 623 |
27.2. Product, Warranty and Data | p. 626 |
27.3. Methodology | p. 629 |
27.4. Preliminary Data Analysis | p. 638 |
27.5. Kalbfleisch-Lawless Analysis | p. 641 |
27.6. Gertsbakh-Kordonsky Analysis | p. 645 |
27.7. Warranty Analysis | p. 649 |
27.8. Conclusions | p. 651 |
References | p. 652 |
Exercises | p. 655 |
Index | p. 657 |