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  • Produktbild: Predictably Dependable Computing Systems
  • Produktbild: Predictably Dependable Computing Systems

Predictably Dependable Computing Systems

Aus der Reihe ESPRIT Basic Research Series

99,99 €

inkl. gesetzl. MwSt., Versandkostenfrei

Beschreibung

Produktdetails

Einband

Taschenbuch

Erscheinungsdatum

08.12.2011

Herausgeber

Brian Randell + weitere

Verlag

Springer Berlin

Seitenzahl

588

Maße (L/B/H)

23,5/15,5/3,3 cm

Gewicht

914 g

Auflage

Softcover reprint of the original 1st ed. 1995

Sprache

Englisch

ISBN

978-3-642-79791-0

Beschreibung

Produktdetails

Einband

Taschenbuch

Erscheinungsdatum

08.12.2011

Herausgeber

Verlag

Springer Berlin

Seitenzahl

588

Maße (L/B/H)

23,5/15,5/3,3 cm

Gewicht

914 g

Auflage

Softcover reprint of the original 1st ed. 1995

Sprache

Englisch

ISBN

978-3-642-79791-0

Herstelleradresse

Springer-Verlag GmbH
Tiergartenstr. 17
69121 Heidelberg
DE

Email: ProductSafety@springernature.com

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  • Produktbild: Predictably Dependable Computing Systems
  • Produktbild: Predictably Dependable Computing Systems
  • I. Basic Concepts.- A. Dependability — Its Attributes, Impairments and Means.- 1 Introduction.- 2 Basic Definitions.- 3 On System Function, Behavior, and Structure.- 4 The Attributes of Dependability.- 5 The Impairments to Dependability.- 6 The Means for Dependability.- 7 Summary and Conclusion.- Acknowledgements.- References for Chapter 1.- II. Fault Prevention.- A. Analysis of Safety Requirements for Process Control Systems.- 1 Introduction.- 2 Modelling.- 3 Analysis.- 4 Safety Specification Graph.- 5 Requirements Analysis.- 6 Safety Analysis.- 7 Conclusions.- Acknowledgements.- B. Real-Time System Scheduling.- 1Introduction.- 2 Safe and Predictable Kernels.- 3 An Extendible Model.- 6 Conclusions.- Acknowledgements.- C. The Time-Triggered Approach to Real-Time System Design.- 1 Introduction.- 2 A Real-Time System Model.- 3 The Time-Triggered Design Approach.- 4 The Time-Triggered Communication Protocol.- 5 Conclusions.- D. Software Measurement: A Necessary Scientific Basis.- 1 Introduction.- 2 Measurement Fundamentals.- 3 Measuring software ‘complexity’.- 4 Unifying framework for software measurement.- 5 Summary.- Acknowledgements.- References for Chapter II.- III. Fault Tolerance.- A. From Recovery Blocks to Concurrent Atomic Actions.- 1 Introduction.- 2 System Structuring.- 3 Basic Recovery Blocks.- 4 Extensions and Applications of Basic Recovery Blocks.- 5 Concurrent Programs.- 6 Error Recovery in Concurrent Object-Oriented Systems.- 7 Concluding Remarks.- Acknowledgements.- B. Definition and Analysis of Hardware-and-Software Fault-Tolerant Architectures.- 1 Introduction.- 2 Methods for Software-Fault Tolerance.- 3 Definition of Hardware-and-Software Architectures.- 4 Analysis and Evaluation of Hardware- and-Software Fault-Tolerant Architectures.- 5 Conclusion.- Acknowledgements.- C. Failure Mode Assumptions and Assumption Coverage.- 1Introduction and Overview.- 2 Types of Errors.- 3 Failure Mode Assumptions.- 4 Assumption Coverage.- 5 Influence of Assumption Coverage on System Dependability: a Case Study.- 6 Conclusions and Future Directions.- Acknowledgments.- D. Rational Design of Multiple-Redundant Systems: Adjudication and Fault Treatment.- 1 Introduction.- 2 The Adjudication Problem.- 3 Evaluation and Optimisation of Adjudication Functions.- 4 Extensions and Discussion.- 5 Diagnosis with Dynamic Error Processing: System Description and Fault Assumptions.- 6 The Complete Fault Tolerance Strategy.- 7 Evaluation.- 8 Conclusions.- E. Dynamic Adjustment of Dependability and Efficiency in Fault-Tolerant Software.- 1 Introduction.- 2 Tradeoff between Software Dependability and Efficiency.- 3 Self-Configuring Optimal Programming.- 4 Design Methodology for SCOP.- 5 Evaluation.- 6 Conclusions.- F. Designing Secure and Reliable Applications using FragmentationRedundancy-Scattering: an Object Oriented Approach.- 1 Introduction.- 2 Distributed system architecture and assumptions.- 3 FRS data processing.- 4 Notion of confidential information.- 5 Object-oriented FRS.- 6 Implementation issues.- 7 Experimentation.- 8 Conclusions and future work.- G. Implementing Fault Tolerant Applications Using Reflective Object-Oriented Programming.- 1 Introduction.- 2 Approaches to programming fault tolerance.- 3 Reflection and object-oriented programming.- 4 Using meta-objects to support replication.- 5 Implementation issues.- 6 Conclusion.- Acknowledgements.- H. The PDCS Implementation of MARS Hardware and Software.- 1 Introduction.- 2 Overall System Structure.- 3 The Processing Node.- 4 Supporting Deterministic Timing Behaviour.- 5 Achieving Fail-Silent Behaviour.- 6 Conclusions.- Acknowledgement.- References for Chapter III.- IV. Fault Removal.- A. Advantages and Limits of Formal Approaches for Ultra-High Dependability.- 1 Introduction.- 2 Impact of Formal Specifications on the Specification and Validation Activities.- 3 Impact of Formal Specifications on Design and Coding, and Verification.- 4 Conclusions.- Acknowledgements.- B. Software Statistical Testing.- 1 Introduction.- 2 Statistical Testing.- 3 Case Study for Safety Critical Software.- 4 Statistical Structural Testing.- 5 Statistical Functional Testing.- 6 Summary and Conclusion.- C. An Experimental Evaluation of Formal Testing and Statistical Testing.- 1 Introduction.- 2 Comparison of Formal and Statistical Testing.- 3 Experimental Framework.- 4 Experimental Results.- 5 Conclusion and Future Work.- Acknowledgements.- D. Testing Distributed Real-Time Systems: An Overview.- 1Introduction.- 2 Definitions.- 3 The Fundamental Test Problems.- 4 Advantages of Time-Triggered over Event-Triggered Systems.- 5 A Test Methodology for MARS.- 6 Conclusions.- References for Chapter IV.- V. Fault Forecasting — Fault Injection.- A. Integration and Comparison of Three Physical Fault Injection Techniques.- 1 Introduction.- 2 The Fault Injection Techniques.- 3 Error Detection Mechanisms of the MARS System.- 4 Measurements.- 5 Common Experimental Set-up.- 6 Results.- 7 Conclusion.- B. Fault Injection into VHDL Models: The MEFISTO Tool.- 1 Introduction.- 2 Fault injection into VHDL models.- 3 Overview of MEFISTO.- 4 Main User Interactions in the Setup Phase.- 5 A Case Study: The DP32 Processor.- 6 Summary and Concluding Remarks.- Acknowledgements.- C. Estimators for Fault Tolerance Coverage Evaluation.- 1 Introduction.- 2 Definitions.- 3 Coverage Estimation.- 4 Early Estimations.- 5 The No-Reply Problem.- 6 Discussion and Conclusions.- References for Chapter V.- VI. Fault Forecasting — Software Reliability.- A. Software Reliability Trend Analyses: From Theoretical to Practical Considerations.- 1 Introduction.- 2 Reliability Growth Characterization.- 3 Trend Analysis.- 4 Application to Real-life Systems.- 5 Conclusion.- Acknowledgements.- B. The Transformation Approach to the Modeling and Evaluation of Reliability and Availability Growth.- 1 Introduction.- 2 Characterization of System Behavior.- 3 The Hyperexponential Model for Reliability and Availability Growth.- 4 Modeling of Reliability and Availability Growth of Multi-Component Systems.- 5 Conclusion.- Acknowledgements.- C. New Ways to Get Accurate Reliability Measures.- 1 Introduction.- 2 The New Approach.- 3 Example.- 4 Discussion.- Appendix 1.- Appendix 2.- D. Combination of Predictions Obtained from Different Software Reliability Growth Models.- 1 Introduction.- 2 Raw Reliability Growth Models.- 3 Techniques for Analysing Predictive Quality and Recalibration.- 4 Combined Prediction Methods.- 5 Analysis of Combined Predictions.- 6 Conclusions.- E. Dependability Modelling and Evaluation of Software Fault-Tolerant Systems.- 1 Introduction.- 2 Recovery Blocks.- 3 N-Version Programming.- 4 RB and NVP Comparison.- 5 Conclusion.- F. Dependability Analysis of Iterative Fault-Tolerant Software Considering Correlation.- 1 Introduction.- 2 System and Hypotheses.- 3 Models with Independence Among Successive Inputs.- 4 Limits of These Models and Possible Improvements.- 5 Correlation Between Successive Iterations, Allowing Mission Failures from Repeated Benign Failures.- 6 Conclusions.- G. Validation of Ultra-High Dependability for Software-based Systems.- 1 Introduction.- 2 Specification of Dependability Requirements.- 3 Reliability Growth Modelling.- 4 Inferences to be Drawn from Perfect Working.- 5 Other Sources of Evidence for Validation.- 6 Discussion.- Acknowledgments.- References for Chapter VI.- VII. Fault Forecasting — Large State Space Modelling.- A. Computable Dependability Bounds for Large Markov Chains.- 1 Introduction.- 2 An Example.- 3 A Useful Polyhedron.- 4 The Method.- 5 Iterative Procedure.- 6 Tridiagonal Matrices.- 7 Bounding The Marginal Distribution.- 8 Complexity.- 9 The Example Revisited.- 10 Conclusions.- B. Fast Numerical Solution for a Class of Markov Models.- 1 Introduction.- 2 The Model.- 3 Spectral Expansion Solution.- 4 Comparison with the Matrix-Geometric Solution.- 5 Conclusions.- Acknowledgements.- References for Chapter VII.- VIII. Fault Forecasting — Security Modelling.- A. Towards Operational Measures of Computer Security: Concepts.- 1 Introduction.- 2 Terminological Analogies Between Security and Reliability.- 3 Difficulties and Deficiencies of the Analogies.- 4 Probabilistic Requirements for an Operational Security Model.- 5 Conclusions.- Acknowledgements.- B. Towards Operational Measures of Computer Security: Experimentation and Modelling.- 1 Background.- 2 Conditions for the Experimentation.- 3 The Pilot Experiment.- 4 The Full-scale Experiment.- 5 Lessons for Quantitative Assessment.- 6 Conclusions.- References for Chapter VIII.- Pdcs Publications.