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9780471184508

Reliability Modeling, Prediction, and Optimization

by ;
  • ISBN13:

    9780471184508

  • ISBN10:

    0471184500

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 2000-03-27
  • Publisher: Wiley
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Supplemental Materials

What is included with this book?

Summary

Bringing together business and engineering to reliability analysis With manufactured products exploding in numbers and complexity, reliability studies play an increasingly critical role throughout a product's entire life cycle-from design to post-sale support. Reliability: Modeling, Prediction, and Optimization presents a remarkably broad framework for the analysis of the technical and commercial aspects of product reliability, integrating concepts and methodologies from such diverse areas as engineering, materials science, statistics, probability, operations research, and management. Written in plain language by two highly respected experts in the field, this practical work provides engineers, operations managers, and applied statisticians with both qualitative and quantitative tools for solving a variety of complex, real-world reliability problems. A wealth of examples and case studies accompanies: 'ˆ— Comprehensive coverage of assessment, prediction, and improvement at each stage of a product's life cycle 'ˆ— Clear explanations of modeling and analysis for hardware ranging from a single part to whole systems 'ˆ— Thorough coverage of test design and statistical analysis of reliability data 'ˆ— A special chapter on software reliability 'ˆ— Coverage of effective management of reliability, product support, testing, pricing, and related topics 'ˆ— Lists of sources for technical information, data, and computer programs 'ˆ— Hundreds of graphs, charts, and tables, as well as over 500 references 'ˆ— PowerPoint slides are available from the Wiley editorial department.

Author Biography

WALLACE R. BLISCHKE, PhD, Statistics, is Professor Emeritus, Marshall School of Business, University of Southern California.<br> <br> PRABHAKAR MURTHY, PhD, is Professor of Engineering and Operations Management at the University of Queensland, St. Lucia, Australia.

Table of Contents

PART A: CONTEXT OF RELIABILITY ANALYSIS
An Overview
3(28)
Introduction
3(1)
Illustrative Examples of Products and Systems
4(8)
Incandescent Electric Bulb
6(1)
Hydraulically Operated Fail-Safe Gate Valve
6(1)
Pneumatic Pump
7(1)
Brake Mechanism for Train Wagons
8(1)
Liquid Rocket Engine
8(4)
Electric Power System
12(1)
System and Product Deterioration and Failure
12(6)
Failures and Faults
13(2)
Failure Modes
15(1)
Failure Causes and Severity
16(1)
Deterioration
17(1)
Concepts and History of Reliability
18(1)
Basic Concepts
18(1)
A Brief History of Reliability
19(1)
Product Life Cycle and Reliability
19(2)
Buyer's Perspective
21(2)
Individuals
22(1)
Businesses
22(1)
Government
22(1)
Manufacturer's Perspective
23(1)
Framework for Solving Reliability Related Problems
24(3)
Reliability Issues
24(1)
The Systems Approach
25(2)
Objectives of this Book
27(1)
Approach
27(1)
Outline of this Book
27(4)
Notes
28(1)
Exercises
29(2)
Illustrative Cases and Data Sets
31(36)
Introduction
31(1)
Reliability Data
32(1)
Cases
33(34)
Reliability of a Simple Part
33(2)
Reliability of a Major Component (Incomplete Data)
35(2)
Heart Pacemaker Data
37(1)
Automobile Warranty Data
38(1)
Industrial Product Sold in Batches
39(2)
Tensile Strength of Fibers
41(2)
Reliability of Hydraulic Systems
43(1)
Bus Motor Failure Data
44(1)
Lifetimes of Light Bulbs
45(1)
Air Conditioning Unit Failures
45(1)
Electronic Connectors
45(1)
Laser Weld Strength
45(2)
Clerical Errors
47(2)
Ball Bearing Data
49(2)
Helicopter Failure Data
51(1)
Compressor Failure Data
51(3)
Jet Engines
54(1)
Offshore Oil Exploration Equipment
54(1)
Throttle Failures
55(1)
Breaking Strengths of Single and Bundled Fibers
56(1)
Breaking Strengths of Carbon Fibers in Resin
56(1)
Stress Fatigue Failures, Tungsten Alloy
56(1)
Software Reliability
56(4)
Aircraft Radar Component Failures
60(1)
Ship Engine Maintenance
60(1)
Failures of Electronic Modules
61(2)
Nuclear Power Plant Cooling System
63(1)
Notes
63(1)
Exercises
64(3)
PART B: BASIC RELIABILITY METHODOLOGY
Collection and Preliminary Analysis of Failure Data
67(26)
Introduction
67(1)
Data-Based Reliability Analysis
68(4)
Levels of Data
68(1)
Types of Data and Data Sources
69(2)
Use of Data in Reliability Analysis
71(1)
Attribute Data
72(2)
Data Structure
72(1)
Count Data
73(1)
Test Data on Product Lifetimes (Failure Data)
74(2)
Complete and Incomplete Data
74(1)
Types of Censoring
75(1)
Effect of Data Structure on Statistical Analysis
76(3)
Scales of Measurement
77(1)
Statistical Inference
78(1)
Basic Descriptive Statistics
79(10)
Frequency Distributions
79(3)
Other Graphical Methods
82(4)
Measures of Center
86(1)
Measures of Variability
87(1)
Interpretation of the Mean and Standard Deviation
88(1)
Other Data Characteristics
88(1)
Preliminary Analysis of Reliability Data
89(4)
Description and Summarization of Pass/Fail Data
89(1)
Description and Summarization of Complete Failure Data
89(1)
Description and Summarization of Incomplete Failure Data
89(1)
Notes
90(1)
Exercises
90(3)
Probability Distributions for Modeling Time to Failure
93(42)
Introduction
93(1)
Random Variables and Probability Distributions
94(4)
Random Variables
94(1)
Distribution and Density Functions
95(1)
Failure Distributions
96(1)
Moments
97(1)
Fractiles and Median
98(1)
Basic Discrete Distributions
98(5)
Bernoulli Distribution
98(1)
Binomial Distribution
99(1)
Geometric Distribution
100(1)
Negative Binomial Distribution
100(1)
Hypergeometric Distribution
101(1)
Poisson Distribution
102(1)
Continuous Distributions---I (Basic Distributions)
103(8)
Exponential Distribution
103(1)
Gamma Distribution
104(2)
Weibull Distribution
106(2)
Normal (Gaussian) Distribution
108(1)
Inverse Gaussian Distribution
109(1)
Gumbel Distributions
110(1)
Continuous Distributions---II (Derived Distributions)
111(4)
Lognormal Distribution (Category A)
111(2)
Three Parameter Weibull Distribution (Category B)
113(1)
Truncated Gumbel Distribution of the Smallest Extreme
113(1)
Distribution Derived from Gumbel Distribution of the Largest Extreme (Category A)
113(1)
Exponentiated Weibull Distribution (Category B)
114(1)
Continuous Distributions---III (Involving Several Basic Distributions)
115(4)
Mixtures of Distributions
115(1)
Competing Risk Models
116(1)
Multplicative Models
116(1)
Sectional Models
117(1)
Special Case: K = 2 and Weibull Distributions
117(2)
Classification of Failure Distributions
119(5)
Definitions and Classification
120(2)
Bounds on Reliability
122(2)
Shapes of Density Functions
124(1)
Shapes of Failure-Rate Functions
125(4)
Failure-Rate Classification
125(3)
Bathtub Failure Rate
128(1)
Effect of Environmental Factors
129(1)
Conclusions
130(5)
Notes
130(1)
Exercises
131(4)
Basic Statistical Methods for Data Analysis
135(34)
Introduction
135(1)
Estimation
136(12)
Overview
136(1)
Properties of Estimators
137(2)
Moment Estimators
139(4)
Maximum Likelihood Estimators
143(5)
Confidence Interval Estimation
148(5)
Basic Concepts
148(2)
Confidence Intervals for the Parameters of Distributions Used in Reliability
150(3)
Estimation of Functions of Parameters
153(2)
Basic Approach
153(1)
Functions of Random Variables
154(1)
Tolerance Intervals
155(2)
Basic Concept
155(1)
Normal Tolerance Limits
155(1)
Tolerance Intervals for the Exponential Distribution
156(1)
Nonparametric Tolerance Intervals
156(1)
Hypothesis Testing
157(12)
Basic Concepts
157(2)
Testing Hypotheses About the Mean of a Normal Distribution
159(2)
Relationship Between Hypothesis Testing and Confidence Interval Estimation
161(1)
Suggested Approach to Testing Hypotheses
161(1)
Notes
162(1)
Exercises
162(7)
PART C: RELIABILITY MODELING, ESTIMATION, AND PREDICTION
Modeling Failures at the Component Level
169(32)
Introduction
169(1)
Modeling Failure Mechanisms
170(1)
Overstress Failure Mechanisms
171(2)
Large Elastic Deformation
172(1)
Yield
172(1)
Buckling
173(1)
Brittle Fracture
173(1)
Ductile Fracture
173(1)
Interfacial De-Adhesion
173(1)
Wearout Failure Mechanisms
173(2)
Fatigue Crack Initiation and Growth
173(1)
Diffusion and Interdiffusion
174(1)
Creep
174(1)
Corrosion and Stress Corrosion Cracking
174(1)
Wear
175(1)
Other Mechanisms
175(1)
Static Reliability: Stress---Strength Models
175(2)
Deterministic Stress and Random Strength
176(1)
Random Stress and Strength
176(1)
Modeling Failure Based on the Failure Mechanism
177(9)
Overstress Failure Modeling
178(3)
Wear-out Failure Modeling
181(3)
Wear-out Modeling with Sudden Failure
184(1)
Some Other Models
185(1)
Multistate Models
186(1)
Modeling Failures of Repaired Items
187(3)
Types of Repair
187(2)
Total Repair Time
189(1)
Repair Cost
190(1)
Modeling Failures over Time
190(4)
Nonrepairable Items
190(2)
Repairable Items
192(2)
Modeling Environmental Effect
194(4)
Arrhenius Life-Temperature Relationship
194(2)
Inverse Power Law
196(1)
Other Relationships
196(1)
Proportional Hazard Models
197(1)
Modeling Failures of Intermittently Used Items
198(3)
Notes
198(1)
Exercises
199(2)
Modeling and Analysis of Multicomponent Systems
201(42)
Introduction
201(1)
System Characterization and Failures
202(3)
System Characterization
202(2)
System Failures
204(1)
Black-Box Modeling
205(1)
White-Box Modeling
206(1)
Failure Mode, Effects, and Criticality Analysis
207(2)
Fault Tree Analysis
209(11)
Definition of the TOP Event
210(1)
Fault Tree Construction
210(4)
Qualitative Analysis
214(5)
Comparison with FMECA
219(1)
Reliability Block Diagram Representations and Analysis
220(8)
Link to Fault Tree Representation
221(1)
Structure Functions
222(2)
Coherent Systems
224(1)
Path and Cut Sets
224(2)
System Reliability
226(2)
Reliability and Structural Importance of a Component
228(2)
Structural Importance of Components
228(1)
Reliability Importance of Components
229(1)
Markovian Model Formulations
230(5)
Basic Concepts
230(1)
Special Case (n = 2)
230(5)
General Case
235(1)
Dependent Failures
235(4)
Multivariate Distribution Models
235(2)
Shock Damage Model
237(1)
Common Environment Model
237(1)
Other Models
238(1)
Other Issues
239(1)
Failure Interaction Models
239(4)
Notes
239(1)
Exercises
240(3)
Advanced Statistical Methods for Data Analysis
243(44)
Introduction
243(1)
Analysis of Grouped Data
244(1)
Estimating the Mean and Variance Using Grouped Data
244(1)
Maximum Likelihood Estimation Using Grouped Data
245(1)
Analysis of Censored Data
245
Basic Concepts
246(1)
Inference for Censored Data
246(1)
Application to Selected Failure Distributions
247(7)
Related Analyses and Results
254
Bayesian Statistical Analysis
2543B(262)
Concept and Basic Approach
255(3)
Bayes Estimation for Selected Distributions
258(2)
Bayesian Probability Intervals
260(2)
Use of Aggregated Data in Reliability Analysis
262(3)
Data Sources
262(1)
Formulation of Prior Distributions
263(2)
Estimation of System Reliability
265(11)
System Models
265(1)
Inferences Based on Life Test Data
265(4)
Estimation of System Reliability from Component Reliabilities
269(4)
Bayesian Analysis of MultiComponent Systems
273(3)
Other Inference Problems in Reliability
276(11)
Estimation in Stress-Strength Analysis
276(2)
Comparison of Parameters
278(1)
Estimation of Parameters of Intensity Functions
279(2)
Notes
281(2)
Exercises
283(4)
Software Reliability
287(32)
Introduction
287(2)
The Need for Reliable Software
287(2)
Chapter Outline
289(1)
Software Quality and Reliability Issues
289(7)
Definitions
289(1)
Types and Severity of Errors in Software
290(3)
Hardware Versus Software Reliability
293(1)
Dimensions of Software Quality
294(1)
Software Quality and Reliability Standards
295(1)
Design of Reliable Software
296(3)
Software Life Cycle
296(1)
Software Reliability Requirements and Specifications
297(1)
Software Reliability Engineering
297(2)
Software Quality Assurance
299(1)
Modeling and Measurement of Software Reliability
299(11)
Metrics and Data
299(2)
Software Reliability Models
301(6)
Estimation of Model Parameters and Software Reliability
307(3)
Estimation of the Number of Remaining Defects
310(1)
Software Testing Procedures
310(5)
Basic Principles of Software Testing
311(1)
Testing Methodology
312(2)
Tools for Testing Software
314(1)
Management of Software Reliability
315(4)
Exercises
317(2)
Design of Experiments and Analysis of Variance
319(56)
Introduction
319(2)
Basic Concepts of Experimentation
321(4)
Experimentation and the Scientific Method
321(1)
Definitions
322(1)
Randomization
323(1)
Replication
323(1)
Mathematical Models in DOE
324(1)
Approach to Designing an Experiment
324(1)
Some Basic Experimental Designs
325(9)
The Completely Randomized Design
325(1)
Randomized Block and Latin Square Designs
326(1)
Factorial Experiments
327(4)
Other Experimental Designs
331(3)
Analysis of Variance I. The Completely Randomized Design
334(11)
Objectives, Models, and Assumptions of ANOVA
334(1)
ANOVA for the CRD, Test Statistics and Interpretation
335(4)
Confidence Intervals
339(1)
Multiple Comparisons
340(4)
Tests of Assumptions
344(1)
Analysis of Variance II. Factorial Experiments
345(4)
The Completely Randomized Design
345(3)
Other Experimental Designs
348(1)
Analysis of Variance III. Complete Block Designs
349(4)
ANOVA for the Randomized Complete Block Design
349(1)
ANOVA for the Latin Square Design
350(1)
ANOVA for the Split-Plot Design
351(2)
Analysis of Variance IV. BIBD and Fractional Factorial Designs
353(5)
Balanced Incomplete Block Designs
353(1)
Fractional Factorial Designs
354(3)
Taguchi Designs
357(1)
Regression, Correlation, and Covariance Analysis
358(11)
Introduction
358(1)
The Linear Regression Model and Assumptions
358(3)
Inferences in Linear Regression
361(6)
Linear Correlation
367(1)
Analysis of Covariance
368(1)
Accelerated Test Designs
369(6)
Notes
370(1)
Exercises
370(5)
Model Selection and Validation
375(52)
Introduction
375(2)
Graphical Methods
377(19)
Plotting the Sample CDF
377(1)
Probability Plots, Complete Data
378(4)
Hazard Plots, Complete Data
382(5)
Graphical Estimation of Parameters
387(6)
Plots for Censored Data
393(3)
Goodness-of-Fit Tests
396(10)
Basic Concepts
396(1)
Fitting Discrete Distributions: The Chi-Square Test
397(2)
Fitting Continuous Distributions, General Approaches
399(2)
Fitting Specific Continuous Distributions, Parameters Unknown
401(5)
Model Selection
406(10)
Selection of a Life Distribution
406(7)
Reliability Models
413(1)
Interpretation of Lack of Fit: Alternative Models
413(1)
Sensitivity Studies
414(2)
Model Validation
416(11)
Criteria for Validation
416(2)
Data-Based Model Validation
418(2)
Notes
420(1)
Exercises
421(6)
PART D: RELIABILITY MANAGEMENT, IMPROVEMENT, AND OPTIMIZATION
Reliability Management
427(40)
Introduction
427(1)
Product Life Cycle
428(2)
Manufacturer's and Buyer's Points of View
429(1)
Product Life Cycle for Reliability Management
430(1)
Strategic Management
430(3)
Basic Concepts
430(2)
Planning and Implementation
432(1)
Comment
433(1)
Reliability and Quality
433(2)
Total Quality Management (TQM)
435(2)
The TQM Concept
435(1)
Customer Satisfaction
436(1)
Strategic Reliability Management (Manufacturer's Perspective)
437(4)
Customer Durables and Commercial and Industrial Products
437(4)
Specialized Defense Products
441(1)
Strategic Reliability Management (Buyer's Perspective)
441(3)
Commercial and Industrial Products
442(2)
Defense Products
444(1)
Reliability Programs
444(8)
MIL-STD 785
444(1)
Other Defense Standards
445(1)
ISO Standards
446(1)
British Standards
446(1)
IEC Standards
446(2)
SAE M-100
448(1)
Norwegian Petroleum Industry
448(2)
Other Standards for Commercial Products
450(1)
Some Other Issues
451(1)
Reliability, Risk and Liability
452(1)
New Product Risk
452(1)
Product Liability
452(1)
Customer Assurance
453(2)
Realiability Contract
453(1)
Warranties
454(1)
An Illustrative Example of an Integrated Model
455(2)
Quantitative Approach to Reliability Management
457(3)
Software Issues
460(2)
Basic Concepts
460(1)
Completeness
461(1)
Design for Safety
461(1)
Tools to Improve Safety
462(1)
Software Maintainability
462(1)
Basic Concepts
462(1)
Design Issues
463(1)
Concluding Comments
463(4)
Notes
463(1)
Exercises
463(4)
Reliability Engineering
467(44)
Introduction
467(1)
The Engineering Process
468(2)
The Reliability Process
469(1)
Reliability Engineer and Associated Tasks
470(1)
Design for Reliability (DFR)
470(3)
Design and Development
473(12)
Requirement Definition
473(5)
Conceptual Design
478(1)
Detailed Design and Development
479(5)
Key Design Practices
484(1)
Reliability Allocation and Apportionment
485(3)
Approaches to Reliability Allocation
485(3)
Optimal Reliability Allocation
488(1)
Designing at the Component Level
488(4)
Designing for Static Reliability
489(2)
Designing for Dynamic Reliability
491(1)
Manufacturing and Reliability Degradation
492(7)
Reliability Characterization on Nonconforming Items
493(2)
Modeling Occurrence on Nonconforming Items
495(4)
Control of Reliability Degradation
499(3)
Weeding Out Nonconforming Items
499(1)
Prevention of the Occurrence of Nonconforming Items
500(2)
Process Improvement
502(1)
Testing
502(2)
Development Testing
502(1)
Testing During Manufacturing
503(1)
Operational Testing
504(1)
Testability
504(1)
Burn-in
504(7)
Weeding Out Nonconforming Items
504(1)
Presale Testing
505(2)
Notes
507(1)
Exercises
508(3)
Reliability Prediction and Assessment
511(26)
Introduction
511(1)
Context of Product Reliability Prediction and Assessment
512(5)
Product Life Cycle
512(1)
Illustrative Cases of Products and Systems
513(3)
Target values for reliability
516(1)
Reliability Evaluation over the Product Life Cycle
516(1)
Reliability Prediction
517(8)
Importance of Reliability Prediction
517(1)
Prediction at the Conceptual Stage of Design
518(1)
Tools for Failure Analysis
518(2)
Methods of Reliability Prediction
520(2)
Environmental Factors
522(2)
Prediction at Later Stages
524(1)
The Role of Testing
525(1)
Accelerated Tests
526(5)
Design of Accelerated Tests
526(1)
Models for data from Accelerated Tests
527(3)
Analysis of Data from Accelerated Tests
530(1)
Reliability Assessment
531(6)
Notes
534(1)
Exercises
534(3)
Reliability Improvement
537(22)
Introduction
537(1)
Redundancy
537(1)
Active (Hot Standby) Redundancy
538(4)
Full Active Redundancy
538(2)
Partial Active Redundancy
540(1)
Component versus System-Level Redundancy
540(1)
Limitations of Active Redundancy
541(1)
Cold Standby Redundancy
542(3)
Perfect Switch
543(1)
Imperfect Switch
544(1)
Warm Standby Redundancy
545(2)
Perfect Switch
545(1)
Imperfect Switch
546(1)
Reliability growth
547(2)
Discrete Reliability Growth Models
549(3)
Weiss Reliability Growth Model
549(1)
Lloyd-Lipow Reliability Growth Model
550(1)
Hyperbolic Model
550(1)
Exponential Model
551(1)
Generalized Hyperbolic Model
552(1)
Continuous Reliability Improvement Models
552(7)
The Duane Reliability-Growth Model
552(2)
Gompertz Curve
554(1)
Other Continuous Reliability-Growth Models
555(1)
Notes
555(1)
Exercises
556(3)
Maintenance of Unreliable Systems
559(30)
Introduction
559(1)
Approaches to Maintenance
560(4)
Reliability-Centered Maintenance
560(3)
Total Productive Maintenance
563(1)
Maintenance Classification and Costs
564(3)
Maintenance Classification
564(1)
Maintenance Costs
565(1)
Optimal Maintenance Actions (Policies)
566(1)
Maintenance Models at the Part Level
567(10)
Complete Information
567(8)
Incomplete Information---I (Component State Unknown)
575(1)
Incomplete Information---II (Parameters Unknown)
576(1)
Maintenance Models at the System Level
577(6)
Model 16.1 (Discrete Time Formulation)
577(2)
Model 16.2 (Continuous Time Formulation)
579(2)
Model 16.3 (Point Process Formulation)
581(2)
Maintainability and Logistics
583(2)
Maintainability
583(1)
Logistics
584(1)
Maintenance Management Information Systems
585(4)
Notes
585(1)
Exercises
586(3)
Warranties and Service Contracts
589(30)
Introduction
589(1)
Warranty---Concept and Role
590(1)
Warranty Concept
590(1)
Role of Warranty
590(1)
Classification of Warranties
591(4)
Group A Policies
592(2)
Group B Policies
594(1)
Group C Policies
594(1)
Warranty Cost Analysis
595(11)
System Characterization
595(1)
Two Notions of Warranty Cost
596(1)
Policy 1
597(4)
Policy 2
601(3)
Policy 4
604(2)
Warranty Cost with Dynamic Sales
606(5)
Product Sales over the Life Cycle
607(1)
Warranty Reserves (PRW Policy)
607(1)
Demand for Spares (FRW Policy)
608(2)
Demand for Repairs (FRW Policy)
610(1)
Redundancy and Product Warranty
611(4)
Basic Relationship
611(1)
Hot Standby (Active Redundancy)
612(1)
Cold Standby (Passive Redundancy)
613(2)
Extended Warranties and Service Contracts
615(1)
Warranty Servicing
615(4)
Notes
617(1)
Exercises
617(2)
Reliability Optimization
619(42)
Introduction
619(1)
Optimization During Design and Development
620(8)
Optimal Reliability Allocation
620(2)
Optimal Reliability Choice
622(5)
Optimal Reliability Development
627(1)
Optimization During Manufacturing
628(11)
Optimal Testing
628(6)
Optimal Lot Sizing
634(5)
Optimal Maintenance of Unreliable Systems
639(8)
Component Level Models
639(4)
System Level Models
643(4)
Optimal Warranty Decisions
647(7)
Optimal Reliability and Warranty Duration
648(1)
Optimal Repair vs Replace Strategies in Warranty Servicing
649(2)
Cost Repair Limit Strategy
651(3)
Analysis of an Integrated Model
654(7)
Notes
656(1)
Exercises
657(4)
PART E: EPILOGUE
Case Studies
661(32)
Introduction
661(1)
Reliability Analysis of Aircraft Windshields
662(19)
Background and Problem Statement
662(1)
Data Structure and Analysis
663(8)
Estimation of Warranty Costs
671(5)
Sensitivity Analysis
676(3)
Summary of Conclusions
679(2)
Reliability Analysis of Case 2.5
681(12)
Statement of the Problem
682(1)
Data Analysis
682(6)
Conclusions
688(1)
Notes
689(1)
Exercises
689(4)
Resource Materials
693(32)
Introduction
693(1)
Journals and Conference Proceedings
693(4)
Reliability Related Standards
697(4)
Standards Classified by Application
697(1)
Standards Classified by Origin
697(2)
Handbooks
699(1)
Sources of Information
700(1)
Application of Standards
700(1)
Reliability Data Bases
701(16)
Reliability Data Base Structures
702(1)
Component Event Data Bases
702(8)
Incident Data Bases
710(2)
Generic Component Reliability Data Bases
712(3)
Data Handbooks
715(2)
Reliability Software
717(6)
General Statistical Software Packages
717(1)
General Reliability Software Packages
718(3)
Specific Reliability Software
721(2)
Concluding Comments
723(2)
Notes
724(1)
Appendix A. Probability 725(10)
A.1 Introduction to Probability Theory
725(2)
1.1 Sample Space and Events
725(1)
1.2 Probabilities Defined on Events
726(1)
1.3 Conditional Probabilities
726(1)
1.4 Random Variables
727(1)
1.5 Distribution and Density Functions
727(1)
A.2 Moment-Generating and Characteristic Functions
727(1)
2.1 Moment Generating Functions
727(1)
2.2 Characteristic Functions
728(1)
A.3 Two or More Random Variables
728(3)
3.1 Joint, Marginal and Conditional Distribution and Density Functions
729(1)
3.2 Moments of Two Random Variables
729(1)
3.3 Conditional Expectation
730(1)
3.4 Sums of Independent Random Variables
730(1)
3.5 Central Limit Theorem
731(1)
A.4 Laplace Transforms
731(1)
A.5 Functions of Random Variables
732(3)
5.1 Asymptotic Mean and Variance of a Function of Random Variables
732(1)
5.2 Sums of Random Variables
733(1)
5.3 Distribution of a Product
733(1)
5.4 Ratio of Two Random Variables
734(1)
Appendix B. Introduction to Stochastic Processes 735(14)
B.1 Basic Concepts
735(2)
1.1 Stochastic Processes
735(1)
1.2 Markov Property
735(1)
1.3 Classification of Stochastic Processes
736(1)
B.2 Markov Chains
737(1)
2.1 Discrete Time Markov Chains
737(1)
2.2 Continuous Time Markov Chains
737(1)
B.3 Point Processes
737(9)
3.1 Counting Processes
738(1)
3.2 Poisson Processes
738(2)
3.3 Renewal Processes
740(5)
3.4 Additional Topics from Renewal Theory
745(1)
3.5 Marked Point Process
746(1)
B.4 Markov Processes
746(3)
4.1 Weiner Process
746(1)
4.2 Cumulative Process
746(1)
4.3 General Markov Process
747(2)
Appendix C. Statistical Tables 749(14)
Table C1 Fractiles of the Standard Normal Distribution
749(1)
Table C2 Fractiles of the Student-t Distribution
750(2)
Table C3 Fractiles of the Chi-Square Distribution
752(1)
Table C4 Factors for Two-Sided Tolerance Intervals, Normal Distribution
752(1)
Table C5 Factors for One-Sided Tolerance Intervals, Normal Distribution
753(1)
Table C6 Factors for Two-Sided Nonparametric Tolerance Intervals
754(1)
Table C7 Factors for One-Sided Nonparametric Tolerance Intervals
755(1)
Table C8 Fractiles of the F Distribution
756(6)
Table C9 Upper Percentage Points of the Studentized Range
762(1)
Appendix D. Basic Results on Stochastic Optimization 763(8)
D.1 Unconstrained Static Optimization
763(1)
D.2 Constrained Static Optimization
764(2)
D.3 Multistage Dynamic Static Optimization
766(1)
D.4 Continuous Time Dynamic Optimization
767(2)
D.5 Other Topics
769(2)
Notes
769(2)
References 771(26)
Author Index 797(8)
Subject Index 805

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