2007•IEEE Transactions on Very Large Scale Integration (VLSI) SystemsRequires access

Analytical Techniques for Soft Error Rate Modeling and Mitigation of FPGA-Based Designs

Hossein Asadi, Mehdi Baradaran Tahoori

Open publisher page 51 citations

Abstract

Radiation-induced soft errors are the major reliability threat for digital VLSI systems. In particular, field-programmable gate-array (FPGA)-based designs are more susceptible to soft errors compared to application-specific integrated circuit implementations, since soft errors in configuration bits of FPGAs result in permanent errors in the mapped design. In this paper, we present an analytical approach to estimate the soft error rate of designs mapped into FPGAs. Experimental results show that this technique is orders of magnitude faster than the fault injection method while more than 96% accurate. We also present a highly reliable and low-cost soft error mitigation technique which can significantly improve the availability of FPGA-mapped designs. Experimental results show that, using this technique, the availability of an FPGA mapped design can be increased to more than 99.99%.

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What this paper is about

Radiation-induced soft errors are the major reliability threat for digital VLSI systems. In particular, field-programmable gate-array (FPGA)-based designs are more susceptible to soft errors compared to application-specific integrated circuit implementations, since soft errors in configuration bits of FPGAs result in permanent errors in the mapped design. In this paper, we present an analytical approach to estimate the soft error rate of designs mapped into FPGAs. Experimental results show that this technique is orders of magnitude faster than the fault injection method while more than 96% accurate. We also present a highly reliable and low-cost soft error mitigation technique which can significantly improve the availability of FPGA-mapped designs. Experimental results show that, using this technique, the availability of an FPGA mapped design can be increased to more than 99.99%.

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Available abstract

Radiation-induced soft errors are the major reliability threat for digital VLSI systems. In particular, field-programmable gate-array (FPGA)-based designs are more susceptible to soft errors compared to application-specific integrated circuit implementations, since soft errors in configuration bits of FPGAs result in permanent errors in the mapped design. In this paper, we present an analytical approach to estimate the soft error rate of designs mapped into FPGAs. Experimental results show that this technique is orders of magnitude faster than the fault injection method while more than 96% accurate. We also present a highly reliable and low-cost soft error mitigation technique which can significantly improve the availability of FPGA-mapped designs. Experimental results show that, using this technique, the availability of an FPGA mapped design can be increased to more than 99.99%.

Key concepts: Soft error, Field-programmable gate array, Computer science, Very-large-scale integration, Gate array, Reliability (semiconductor), Fault injection, Error detection and correction

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