基于ram的FPGA用于“正常关闭,立即打开”的应用

O. Turkyilmaz, S. Onkaraiah, M. Reyboz, F. Clermidy, Hraziia, C. Anghel, J. Portal, M. Bocquet
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引用次数: 45

摘要

“通常关闭,立即打开”的应用程序在我们的环境中变得越来越普遍。它们的范围从医疗保健到视频监控。随着应用程序数量及其相关性能需求的快速增长,需要越来越多功能强大、灵活且节能的计算单元。在这种情况下,现场可编程门阵列(FPGA)架构在性能和灵活性之间表现出良好的权衡。然而,它们消耗高静态功率,并且由于其长时间的上下文恢复阶段,很难与功率门控技术相关联。在本文中,我们建议在配置单元中集成非易失性电阻存储器,以便立即恢复FPGA上下文。然后我们表明,如果电路处于“开”状态的时间少于42%,则非易失性FPGA与传统FPGA相比开始节省能量。最后,对于只有1%的时间处于“开”状态的典型应用,能量增益达到50%。
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RRAM-based FPGA for “normally off, instantly on” applications
“Normally off, instantly on” applications are becoming common in our environment. They range from healthcare to video surveillance. As the number of applications and their associated performance requirements grow rapidly, more and more powerful, flexible and power efficient computing units are necessary. In such a context, Field Programmable Gate Arrays (FPGA) architectures present a good trade-off between performance and flexibility. However, they consume high static power and can hardly be associated with power gating techniques due to their long context restoring phase. In this paper, we propose to integrate non-volatile resistive memories in configuration cells in order to instantly restore the FPGA context. We then show that if the circuit is in `ON' state for less than 42% of time, non-volatile FPGA starts saving energy compared to classical FPGA. Finally, for a typical application with only 1% of time spent in `ON' state, the energy gain reaches 50%.
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