三维计算机中提高成品率的冗余

M. Yung, M. Little, R. D. Etchells, J. G. Nash
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引用次数: 13

摘要

讨论了一个三维计算机样机,验证了堆叠晶圆方法的可行性。3-D计算机的晶圆级集成电路已被仔细划分,以确保冗余使用,以确保高产量。讨论了在原型机和未来几代三维计算机中使用的方案的冗余方法、实现问题和可测试性。32*32阵列处理器的电路采用单向连接100%间隙冗余。目前正在建设的128*128阵列处理器,以及未来更大的阵列处理器,使用混合冗余方案:50%冗余与四路连接的阵列逻辑和100%冗余的最近邻居通信和控制电路。50%的冗余可以最大限度地减少面积和测试开销,同时提高产量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Redundancy for yield enhancement in the 3-D computer
A prototype 3-D Computer which demonstrates the feasibility of the stacked wafer approach is discussed. The wafer-scale integrated circuits of the 3-D Computer have been carefully partitioned to enable redundancy to be used to insure high yields. Redundancy approaches, implementation issues, and testability both for the schemes used in the prototype and in future generations of the 3-D Computer are discussed. The circuits of the 32*32 array processor used 100% interstitial redundancy using one-way connectivity. The 128*128 array processor now underway construction, as well as a future larger array processor, use a mixture of redundancy schemes: a 50% redundancy with four-way connectivity for the array logic and 100% redundancy for the nearest-neighbor communication and control circuits. The 50% redundancy minimizes the area and test overhead for sparing while improving yields.<>
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