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A Highly Dependable Computing Architecture for Safety-Critical Control Applications

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Abstract

More and more technical systems are supervised, controlled and regulated by programmable electronic systems. The dependability of the entire system depends heavily on the safety of the embedded software. But the technological trend to entrust software with tasks of growing complexity and safety relevance conflicts with the lacking acceptance of rigorous proofs of software safety. Based on an international standard for higher level programming languages for programmable logic controllers (PLC, IEC 1131-3), a mathematically based method for validating the behavioral correctness and the functional safety of graphical designs of safety-critical control applications is introduced. The design elements taken from a domain specific module library are proven correct and safe only once. The functional correctness and satisfaction of safety requirements of new application graphical programs can then be shown effectively by reference to the proven properties of the library components used. This approach is part of an comprehensive computing architecture for safety-critical control programs which is presented in a survey.

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Authors and Affiliations

  1. Faculty of Electrical Engineering, Fern Universität, D-58084, Hagen, Germany

    Bernd J. Krämer & Norbert Völker

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  1. Bernd J. Krämer
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  2. Norbert Völker
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Krämer, B.J., Völker, N. A Highly Dependable Computing Architecture for Safety-Critical Control Applications. Real-Time Systems 13, 237–251 (1997). https://doi.org/10.1023/A:1007959310351

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