Dapeng Zhang, G. Jullien, W. Miller, E. Swartzlander
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引用次数: 23
摘要
描述了基于并行计数器设计的大输入数字神经元的实现。该设计的实现使用一个双单元库,其中每个单元都使用n通道晶体管的流水线二叉树开关树来实现。用3 μ m CMOS工艺实现的初始开关树的结果表明,该设计能够在40 MHz采样率下流水线化,并有望在更先进的技术中具有更好的性能。开发具有2000个神经元(每个神经元有1000个输入)的晶圆级实现似乎是可行的,该实现将执行3*10/sup / 12/ add /s。
The implementation of large input digital neurons using designs based on parallel counters is described. The implementation of the design uses a two-cell library, in which each cell is implemented using switching trees which are pipelined binary trees of n-channel transistors. Results obtained from initial switching trees realized with a 3- mu m CMOS process indicate that the design is capable of being pipelined at 40 MHz sample rates, with better performance expected for more advanced technologies. It appears feasible to develop a wafer-scale implementation with 2000 neurons (each with 1000 inputs) that would perform 3*10/sup 12/ additions/s.<>