Hierarchical fault tolerance for 3D microelectronics

M. Campbell, M. Little, M. Yung
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引用次数: 4

Abstract

Describes recent progress in the area of in-use fault tolerance for a massively parallel array processor. Specifically, the authors have taken the existing architecture of the Hughes 3D Computer and added fault tolerance capability to it. This has been possible to accomplish in modular, uniform way because of the unique circuit partitioning and implementation of the 3D Computer. The single instruction multiple data stream (SIMD) design of the 3D Computer greatly simplifies the control and reconfiguration process, while the fine-grained parallelism permits a high degree of redundancy with very low overhead. They have adopted a hierarchical strategy that mirrors the structure of the 3D Computer itself. Static reconfiguration is supported by special purpose hardware, the Realignment Plane wafer type, which allows them to treat failures uniformly at the row/column, processing element, and functional element levels.<>
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三维微电子的分层容错
描述大规模并行阵列处理器在用容错方面的最新进展。具体来说,作者采用了休斯3D计算机的现有架构,并增加了容错能力。由于独特的电路划分和3D计算机的实现,这已经有可能以模块化,统一的方式完成。三维计算机的单指令多数据流(SIMD)设计极大地简化了控制和重新配置过程,而细粒度的并行性允许以非常低的开销实现高度冗余。他们采用了一种反映3D计算机本身结构的分层策略。静态重新配置是由特殊用途的硬件支持的,重新配置平面晶圆类型,允许他们在行/列、处理元素和功能元素级别上统一处理故障。
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A study of high density multilayer LSI MUSE: a wafer-scale systolic DSP The Lincoln programmable image-processing wafer Hierarchical fault tolerance for 3D microelectronics A self-test methodology for restructurable WSI
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