Digital Superconducting Electronics: Where Does It Fit?

N. K. Welker
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Abstract

The discoveries since 1986 of materials which exhibit superconducting properties at temperatures considerably above those previously known or believed possible have led to a renewed interest in superconducting electronics. Some of these materials have been shown to have transition temperatures above the boiling point of liquid nitrogen (77K), some above 100k, rekindling the hope that room temperature superconductors can be found. As yet that dream has not been realized, but the temperatures already achieved will allow greatly simplified, more efficient cooling systems and the possibility of hybrid superconducting-semiconducting systems with all elements operating at the same temperature. In parallel with the search for new materials, work has progressed steadily, but with less fanfare, on developing the applications of the mature, low temperature superconducting materials. This work has yielded numerous clemonstrations of applications in which digital superconducting electronics can offer significant performance advantages, In some instances these applications will not receive wide acceptance until a manufacturable high transition temperature technology exists; in others the benefits are so great and cooling techniques are so advanced that they deserve serious consideration for implementation in low temperature technology. In addition many of the lessons learned in developing low temperature circuits and systems will be transferable to higher temperature material versions.
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数字超导电子学:它适合在哪里?
自1986年以来,人们发现了一些材料,这些材料在远高于以前已知或认为可能的温度下表现出超导特性,这使人们对超导电子学重新产生了兴趣。这些材料中的一些已经被证明具有高于液氮沸点(77K)的转变温度,一些超过100k,重新点燃了找到室温超导体的希望。到目前为止,这个梦想还没有实现,但已经达到的温度将使大大简化、更有效的冷却系统和所有元件在相同温度下工作的超导-半导体混合系统成为可能。在寻找新材料的同时,在开发成熟的低温超导材料的应用方面,工作也在稳步推进,但不那么高调。这项工作已经产生了许多应用演示,其中数字超导电子学可以提供显着的性能优势,在某些情况下,这些应用将不会得到广泛接受,直到可制造的高转变温度技术存在;在其他方面,好处是如此之大,冷却技术是如此先进,它们值得认真考虑在低温技术中实施。此外,在开发低温电路和系统中吸取的许多经验教训将转移到更高温度的材料版本。
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