AM08关联存储专用集成电路的设计、架构和评估方法

A. Annovi, A. Cerri, P. Corona, F. Crescioli, David Martin, Eric Pierre, S. Dittmeier, G. Föhner, D. Gottschalk, André Schöning, L. Frontini, V. Liberali, A. Stabile, K. Kordas, T. Lari, Matteo Monti, E. Motuk, M. Warren, A. Vgenopoulos
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引用次数: 0

摘要

联想内存(AM) ASIC在2020年提交制造时达到了第8版。AM08具有最终芯片AM09的所有功能,AM09计划用于欧洲核子研究中心高亮度大型强子对撞机(HL-LHC)的ATLAS实验的硬件跟踪触发(HTT)系统。它采用28纳米CMOS技术,有10个金属层,采用15 × 15 FCBGA封装。作为一款全定制CAM单元设计的数字芯片,可存储12,000个模式(每个模式16位× 8字),每秒可实现6.25 × 1012次比较。本文介绍了该芯片的设计和结构。此外,我们还讨论了运行的行为模拟,以及用于VCD和STIL文件格式的工业和内部测试的测试向量的生成。介绍了裸芯片和封装芯片的实验室测试平台,包括相关的测试板。最后,我们讨论了初步的功率测量结果,并将其与布局后的仿真结果进行了比较。
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The AM08 Associative Memory ASIC Design, Architecture and Evaluation methodology
The Associative Memory (AM) ASIC reached its version 8 in 2020 when it was submitted for fabrication. The AM08 has all the functionalities of the final chip, AM09, which was planned for the ATLAS experiment’s Hardware Track Trigger (HTT) system, at the High-Luminosity Large Hadron Collider (HL-LHC) at CERN. It is made in a 28nm CMOS technology with 10 metal layers and comes in a 15 × 15 FCBGA package. Being a digital chip with a full-custom CAM cell design that can store 12,000 patterns (16 bit × 8 words per pattern), and can achieve 6.25 x 1012 comparisons per second. The design and architecture of the chip is presented in this paper. Additionally we discuss the behavioral simulations that run and also the generation of the test vectors purposed for industrial and in-house testing, in VCD and STIL file formats. The laboratory test-benches both for the bare-die chips and the packaged ones are also presented, including the related test-boards. Finally, we discuss the preliminary power measurements and compare these with the post-layout simulations.
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