In the present paper, we propose a new design flow for the analysis and the implementation of circuits on Flash-based FPGAs hardened against Single Event Effects (SEEs). The solution we developed is based on two phases: 1) an analyzer algorithm able to evaluate the propagations of SETs through logic gates; 2) a hardening algorithm able to place and route a circuit by means of optimal electrical filtering and selective guard gates insertions. The effectiveness of the proposed design flow has been evaluated by performing hardening on seven benchmark circuits and comparing the results using different implementation approaches on 130nm Flash-based technology. The obtained results have been validated against radiation-beam testing using heavy-ions and demonstrated that our solution is able to decrease the circuits sensitivity versus SEE by two orders of magnitude with a reduction of resource overhead of 83 % with respect to traditional mitigation approaches.

Analysis and mitigation of single event effects on flash-based FPGAS / Sterpone, Luca; Du, Boyang. - ELETTRONICO. - (2014), pp. 1-6. (Intervento presentato al convegno IEEE 19th EUROPEAN TEST SYMPOSIUM (ETS) tenutosi a Paderborn, Germany) [10.1109/ETS.2014.6847804].

Analysis and mitigation of single event effects on flash-based FPGAS

STERPONE, Luca;DU, BOYANG
2014

Abstract

In the present paper, we propose a new design flow for the analysis and the implementation of circuits on Flash-based FPGAs hardened against Single Event Effects (SEEs). The solution we developed is based on two phases: 1) an analyzer algorithm able to evaluate the propagations of SETs through logic gates; 2) a hardening algorithm able to place and route a circuit by means of optimal electrical filtering and selective guard gates insertions. The effectiveness of the proposed design flow has been evaluated by performing hardening on seven benchmark circuits and comparing the results using different implementation approaches on 130nm Flash-based technology. The obtained results have been validated against radiation-beam testing using heavy-ions and demonstrated that our solution is able to decrease the circuits sensitivity versus SEE by two orders of magnitude with a reduction of resource overhead of 83 % with respect to traditional mitigation approaches.
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11583/2556149
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