分米尺度集成(DMSI)的FPGA设计

G. Chapman
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引用次数: 1

摘要

创建大面积fpga受到有缺陷的部分和最大网格打印尺寸(/spl sim/3/spl次/3厘米)的限制。fpga非常适合扩展到2到9倍大(5-10平方厘米)的单片多打印系统,我们称之为分米尺度集成(DMSI)。DMSI扩展了系统容量,同时每个晶圆生产许多副本。它的设计标准比复杂的晶圆规模集成简单得多,但仍然使用缺陷避免路由绕过有缺陷的模块来构建完整的工作系统。fpga具有成功的DMSI系统所需的主要特性:可重复的单元,内置可切换的灵活路由,单元块之间的高连接要求,以及许多潜在应用的灵活性。fpga芯片外围的适度变化使DMSI能力成为可能。激光形成的连接和切割在绕过制造时间缺陷和创建无缺陷的晶圆尺度系统方面已被证明是有效的。DMSI避免激光缺陷的重要标准是无缺陷器件不需要校正。根据DMSI尺寸和当前芯片产量的不同,设计缺陷避免要求从简单的行列替换到带冗余信号路径的单元/行列替换。功率短路缺陷及其处理方法是芯片尺寸的一个重要限制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
FPGA design for decimeter scale integration (DMSI)
Creating large area FPGAs is limited by defective sections and the maximum reticule print size (/spl sim/3/spl times/3 cm). FPGAs are well suited for expanding into monolithic multiprint systems 2 to 9 times larger (5-10 cm square) we call deciMeter scale integration (DMSI). DMSI expands system capacity, while producing many copies per wafer. Its design criteria is much simpler than the complex wafer scale integration, but still uses defect avoidance routing around flawed blocks to build complete working systems. FPGAs have the main features required for successful DMSI systems: a repeatable cell, built in switchable flexible routing, high connectivity requirements between cell blocks, and flexibility with many potential applications. Modest changes at the periphery of FPGAs chips enables DMSI capability. Laser formed connections and cuts have proven effectiveness in bypassing fabrication time defects and creating defect free working wafer scale systems. The important DMSI criteria for laser defect avoidance is that defect free devices should need no correction. Depending on the DMSI size and current chip yields design defect avoidance requirements vary from simple row column substitution to cell by cell/row column substitution with redundant signal paths. Power shorts defects and how they are handled prove an important limitation on chip size.
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