Through Silicon Via (TSV) redundancy - a high reliability, networking product perspective

Poh Choon Chew, Li Li, Jie Xue, William Eklow
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引用次数: 5

Abstract

3-D, stacked ICs offer a promising solution to speed, power and density requirements, as the industry strives to scale to Moore's Law. Through Silicon Vias (TSV) are integral parts to 3-D stacked ICs. TSVs shorten interconnects between logic elements, thus reducing power while increasing performance. TSVs may comprise a significant portion (both logically and physically) of the 3D die stack. It's likely that tens of thousands of TSVs will be incorporated into a 3D die stack. Even though it's widely considered that the TSV yield will be very high, the large number of TSVs still presents a significant risk, given that it is difficult to have 100% test coverage, and a single TSV failure in the field can invalidate an entire die stack (multiplying yield loss by the number of die in the stack). Reliability of TSVs is not clearly understood yet and can also present significant field issues. TSV redundancy has been proposed as a way to mitigate the risk of TSV failure in the stack. This paper will look at published work on TSV redundancy, as well as standards and practical work. The paper will take a practical perspective, taking into account: cost, design (performance), and implementation/deployment considerations. The paper will conclude by providing guidelines and recommendations, which can be used to develop a TSV redundancy strategy at the device level for high reliability networking applications.
通过硅孔(TSV)冗余-高可靠性,网络化产品的角度
3d堆叠ic为满足速度、功率和密度要求提供了一个很有前途的解决方案,因为业界正在努力扩展到摩尔定律。通过硅通孔(TSV)是三维堆叠集成电路的组成部分。tsv缩短了逻辑元件之间的互连,从而在提高性能的同时降低了功耗。tsv可能包含3D模具堆栈的重要部分(逻辑上和物理上)。很可能成千上万的tsv将被整合到一个3D模具堆栈中。尽管人们普遍认为TSV良率将非常高,但大量的TSV仍然存在重大风险,因为很难实现100%的测试覆盖率,并且现场的单个TSV故障可能会使整个模具堆栈失效(将良率损失乘以堆栈中的模具数量)。tsv的可靠性尚不清楚,也可能带来重大的领域问题。TSV冗余被认为是一种降低TSV故障风险的方法。本文将着眼于已发表的TSV冗余工作,以及标准和实际工作。本文将从实际角度出发,考虑到:成本、设计(性能)和实现/部署方面的考虑。本文最后将提供指导和建议,可用于在设备级开发高可靠性网络应用的TSV冗余策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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