亚交叉点RRAM解码,提高区域效率

Ravi Patel, E. Friedman
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引用次数: 0

摘要

提出了两种亚交叉点物理拓扑,将解码电路置于金属氧化物RRAM交叉点阵列之下。第一种拓扑结构仅集成行解码电路,而第二种拓扑结构集成行和列解码器。亚交叉点行解码的拓扑结构比标准外设方法减少了38.6%的面积,对于小型阵列,面积效率提高了21.6%。子交叉点行和列解码将RRAM交叉点面积减少27.1%,将面积效率提高到接近100%。
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Sub-crosspoint RRAM decoding for improved area efficiency
Two sub-crosspoint physical topologies are proposed that places the decode circuitry beneath the metal-oxide RRAM crosspoint array. The first topology integrates only the row decode circuitry, while the second integrates both the row and column decoder. The topology for sub-crosspoint row decoding reduces area by up to 38.6% over the standard peripheral approach, with an improvement in area efficiency of 21.6% for small arrays. Sub-crosspoint row and column decoding reduces the RRAM crosspoint area by 27.1% and improves area efficiency to nearly 100%.
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