一种低成本、低功耗的四元LUT单元,用于未来技术的容错应用

E. Rhod, L. Carro
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引用次数: 4

摘要

现场可编程门阵列为编程硬件系统提供了灵活性,并有可能探索应用程序中可用的任何并行级别。不幸的是,这种灵活性需要大量的电路面积来实现所有路由开关和电线。此外,新技术和未来技术中的器件缩放带来了电路软错误率的严重增加,用于组合和顺序逻辑。为了减少电线和开关的影响并应对fpga中的set,本工作提出了一种低功率电压模式四元LUT (QLUT)设计,该设计使用四元逻辑来减少交换机和布线电线所花费的面积。同时,提出的QLUT提供了对集合的鲁棒性。结果表明,与采用DWC技术保护的二进制对应LUT相比,所提出的容错QLU能够以更小的面积和更低的功耗检测到所有可能导致错误的故障。为了评估所提出的QLUT将如何处理亚90nm技术的工艺变化,进行了大量的蒙特卡罗模拟,并在这里讨论这些结果。
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A Low Cost Low Power Quaternary LUT Cell for Fault Tolerant Applications in Future Technologies
Field Programmable Gate Arrays offer flexibility to program hardware systems together with the possibility to explore any level of parallelism available in the application. Unfortunately, this flexibility costs a huge amount of circuit area necessary to implement all the routing switches and wires. Also, device scaling in new and future technologies brings along a severe increase in the soft error rate of circuits, for combinational and sequential logic. In order to reduce the impact of the wires and switches and cope with SETs in FPGAs, this work proposes a low power voltage-mode quaternary LUT (QLUT) design that uses quaternary logic to reduce the area spent in switches and routing wires. At the same time, the proposed QLUT provides robustness against SETs. Results show that the fault tolerant QLU There proposed detects all faults that can cause an error with significant less area and less power when comparing to the binary correspondent LUT protected with the DWC technique. In order to evaluate how the proposed QLUT will deal with the process variability of sub 90nm technologies, extensive Monte Carlo simulations were performed and these results are here discussed.
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