IEEE Design & Test of Computers · 1985 · 132 citations · 2 references
ComputingComputer EngineeringComputer ScienceAlgorithmsFault-tolerant ComputingFault-tolerant SystemsData RedundancyFault Tolerance DesignHardware Fault ToleranceRedundancy ManagementRedundancy TechniquesReliable System DesignBit FailureBit Failure AnalysisFault-tolerant ArchitectureRepairs
This article describes a fault-driven algorithm that generates all possible repair solutions for a given bit failure pattern in a redundant RAM. Benefits of this approach include the ability to select repair solutions based on userdefined preferences (for example, fewest total elements invoked or fewest rows invoked). Perhaps the greatest advantage of this algorithm is its ability to generate solutions for any theoretically repairable die that would be deemed unrepairable by existing algorithms.
2
256K dynamic random access memory
C. Benevit, J. Cassard, K. Dimmler et al. · 1982 · 19 citations
Engineering, Computer Engineering, Electrical Engineering +15