We are building systems today-and using computers to control them-that have the potential for large-scale destruction of life and environment. More than ever, software engineers and system developers, as well as their managers, must understand the issues and develop the skills needed to anticipate and prevent accidents. Nancy Leveson examines what is currently known about building safe electromechanical systems and looks at past accidents to see what practical lessons can be applied to new computer-controlled systems.
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Für höhere Schule und Studium
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Höhe: 230 mm
Breite: 160 mm
Dicke: 34 mm
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ISBN-13
978-0-201-11972-5 (9780201119725)
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Schweitzer Klassifikation
Nancy G. Leveson is Boeing Professor of Computer Science and Engineering at the University of Washington (and Adjunct Professor at the University of British Columbia). Dr. Leveson recently was awarded the Information System Award from the American Institute of Aeronautics and Astronautics, " . . . for developing the field of software safety and for promoting responsible software and system engineering practices where life and liberty are at stake." She is the Editor-in-Chief of IEEE Transactions on Software Engineering and a meember of the Board of Directors of the Computing Research Association, the National Research Council Commission on Engineering and Technical Systems, and the ACM Committee on Computers and Public Policy. She recently chaired a National Academy of Science study for NASA of the Space Shuttle software development process.
0201119722AB04062001
I The Nature Of Risk.
Risk In Modern Society.
Changing Attitudes Toward Risk.
Is Increased Concern Justified?.
Unique Risk Factors in Industrialized Society.
Computers And Risk.
The Role of Computers in Accidents.
Software Myths.
Why Software Engineering is hard.
The Reality We Face.
Causes Of Accidents.
The Concept of Causality.
Flaws in the Safety Culture.
Ineffective Organizational Structure.
Ineffective Technical Activities.
Human Error And Risk.
Do Humans Cause Most Accidents?.
The Need for Humans in Automated Systems.
Human Error as Human-Task Mismatch.
Conclusions.
The Role Of Humans In Automated Systems.
Mental Models.
The Human as Monitor.
The Human as Backup.
The Human as Partner.
Conclusions.
II Introduction To System Safety.
Foundations Of System Safety.
Safety Engineering Pre-World War II.
Systems Theory.
Systems Engineering.
Systems Analysis.
Fundamentals Of System Safety.
Historical Development.
Basic Concepts.
Software System Safety.
Cost and Effectiveness of System Safety.
Other Approaches To Safety.
Industrial Safety.
Reliability Engineering.
Application-Specific Approaches to Safety.
III Definitions And Models.
Terminology.
Failure and Error.
Accident and Incident.
Hazard.
Risk.
Safety.
Safety and Security.
Accident And Human Error Models.
Accident Models.
Human Task and Error Models.
Summary.
IV Elements Of A Safeware Program.
Managing Safety.
The Role of General Management.
Place in the Organizational Structure.
Documentation.
The System And Software Safety Process.
The General Tasks.
Conceptual Development.
Design.
Full-Scale Development.
Production and Deployment.
Operation.
>Examples.
Hazard Analysis.
The Hazard Analysis Process.
Types of System Models.
General Types of Analysis.
Limitations and Criticisms of Hazard Analysis.
Hazard Analysis Models And Techniques.
Checklists.
Hazard Indices.
Fault Tree Analysis.
Management Oversight and Risk Tree (MORT) Analysis.
Event Tree Analysis.
Cause-Consequence analysis (CCA).
Hazards and Operability Analysis (HAZOP).
Interface Analyses.
Failure Modes and Effects Analysis (FMEA).
Failure Modes, Effects, and Criticality Analysis (FMECA).
Fault Hazard Analysis (FHA).
State Machine Hazard Analysis (SMHA).
Task and Human Error Analysis Techniques.
Evaluations of Hazard Analysis Techniques.
Software Hazard And Requirements Analysis.
Process Considerations.
Requirements Specification Components.
Completeness in Requirements Specifications.
Completeness Criteria for Requirements Analysis.
Constraint Analysis.
Designing For Safety.
The Design Process.
Design Techniques.
Design Modification and Maintenance.
Design Of The Human-Machine Interface.
General Process Considerations.
Matching Tasks to Human Characteristics.
Reducing Safety-Critical Human Errors.
Providing Appropriate Information and Feedback.
Training and Maintaining Skills.
Guidelines for Safe HMI Design.
Verification Of Safety.
Dynamic Analysis.
Static Analysis.
Independent Verification and Validation.
Summary.
