A low-overhead self-healing embedded system for ensuring high yield and long-term sustainability of 60GHz 4Gb/s radio-on-a-chip

A. Tang, F. Hsiao, D. Murphy, I-Ning Ku, J. Liu, Sandeep D'Souza, N. Wang, Hao Wu, Yen-Hsiang Wang, Mandy Tang, G. Virbila, Mike Pham, Derek Yang, Q. Gu, Yi-Cheng Wu, Yen-Cheng Kuan, C. Chien, Mau-Chung Frank Chang
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引用次数: 28

Abstract

The available ISM band from 57-65GHz has become attractive for high-speed wireless applications including mass data transfer, streaming high-definition video and even biomedical applications. While silicon based data transceivers at mm-wave frequencies have become increasingly mature in recent years [1,2,3], the primary focus of the circuit community remains on the design of mm-wave front-ends to achieve higher data rates through higher-order modulation and beamforming techniques. However, the sustainability of such mm-wave systems when integrated in a SoC has not been addressed in the context of die performance yield and device aging. This problem is especially challenging for the implementation of mm-wave SoC's in deep sub-micron technology due to its process & operating temperature variations and limited ft / fmax with respect to the operation frequency.
一种低开销的自修复嵌入式系统,可确保60GHz 4Gb/s片上无线电的高产量和长期可持续性
57-65GHz的ISM频段对于高速无线应用具有吸引力,包括大数据传输、流式高清视频甚至生物医学应用。虽然近年来基于硅的毫米波频率数据收发器越来越成熟[1,2,3],但电路界的主要焦点仍然是设计毫米波前端,通过高阶调制和波束形成技术实现更高的数据速率。然而,在芯片性能良率和器件老化的背景下,集成在SoC中的这种毫米波系统的可持续性尚未得到解决。这个问题对于在深亚微米技术中实现毫米波SoC来说尤其具有挑战性,因为它的工艺和工作温度变化以及相对于工作频率的ft / fmax有限。
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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