A 300-µW Cryogenic HEMT LNA for Quantum Computing

E. Cha, N. Wadefalk, G. Moschetti, A. Pourkabirian, J. Stenarson, J. Grahn
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引用次数: 26

Abstract

This paper reports on ultra-low power 4–8 GHz (C-band) InP high-electron mobility transistor (HEMT) cryogenic low-noise amplifiers (LNAs) aimed for qubit amplification in quantum computing. We have investigated dc power dissipation in hybrid three-stage cryogenic LNAs using 100-nm gate length InP HEMTs with different indium content in the channel (65% and 80%). The noise performance at 300 K was found to be comparable for both channel structures. At 5 K, an LNA with 65% indium channel exhibited significantly lower noise temperature at any dc power dissipation compared to the LNA with 80% indium channel. The LNA with 65% indium channel achieved an average noise of 3.2 K with 23 dB gain at an ultra-low power consumption of 300 µW. To the best of authors' knowledge, the LNA exhibited the lowest noise temperature to date for sub-milliwatt power cryogenic C-band LNAs.
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用于量子计算的300µW低温HEMT LNA
本文报道了用于量子计算中量子比特放大的超低功耗4-8 GHz (c波段)InP高电子迁移率晶体管(HEMT)低温低噪声放大器(LNAs)。我们研究了混合三段式低温LNAs的直流功耗,使用100 nm栅长InP HEMTs,通道中不同的铟含量(65%和80%)。发现两种通道结构在300k时的噪声性能是相当的。在5 K时,65%铟通道的LNA在任何直流功耗下都比80%铟通道的LNA表现出更低的噪声温度。具有65%铟通道的LNA平均噪声为3.2 K,增益为23 dB,超低功耗为300 μ W。据作者所知,该LNA表现出迄今为止亚毫瓦功率低温c波段LNA的最低噪声温度。
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