超导电子-一种高速低功耗技术,与先进系统的III-V技术相辅相成

M. Leung, J. Spargo, K. Kobayashi, A. Silver
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引用次数: 2

摘要

超导电子产品为关键任务硬件提供了高带宽和低功耗的独特组合,例如20至100 GHz的数字处理器、微瓦/位模拟数字转换器、多gb /s数据速率的大型数字开关和低噪声参数放大器。这种低温技术,通常在几度或几十度开尔文下工作,取决于超导材料(如Nb, NbN和YBaCuO)的独特物理特性,以及基本电路元件约瑟夫森结(JJ),以创造前所未有的设计效率和性能的独特架构。这些电路基于单通量量子(SFQ)逻辑家族,这是一种在半导体电子学中没有类似技术的技术。数字数据通过振幅小于1mv的电压脉冲传输,但速度非常快。单个门的工作频率高达370千兆赫。在本文中,我们简要概述了超导数字技术,描述了一些最新的电路,并讨论了如何应对超导技术的挑战,包括多芯片模块(MCM)技术的使用,以及III-V HBT和HEMT电路的潜在使用,以提供可能低温操作的接口驱动器和放大器。
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Superconductive electronics-a high speed and low power technology complementing III-V technologies for advanced systems
Superconductive electronics offers a unique combination of high bandwidth and low power for mission critical hardware such as digital processors at 20 to 100 GHz, microwatt per bit analog to digital converters, large digital switches at multi-Gb/s data rates, and low noise parametric amplifiers. This cryogenic technology, typically operating at a few degrees or a few tens of degrees Kelvin, depends upon the unique physics of superconducting materials such as Nb, NbN, and YBaCuO, and the fundamental circuit element, the Josephson junction (JJ) to create unique architectures of unprecedented design efficiency and performance. These circuits are based on the single flux quantum (SFQ) logic family, a technology that has no parallel in semiconductor electronics. Digital data is transmitted by voltage pulses with amplitude less than 1 mV, but at extremely high speeds. Individual gates have been operated as high as 370 GHz. In this paper, we present a brief overview of superconductive digital technology, describe some recent circuits, and discuss how the challenges to superconductive technology are being met, including the use of multi-chip module (MCM) technology, and the potential use of III-V HBT and HEMT circuits to provide interface drivers and amplifiers, possibly operated cryogenically.
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