Integrated Cryo-CMOS Temperature Sensors for Quantum Control ICs

P. A. T Hart, T. Huizinga, M. Babaie, A. Vladimirescu, F. Sebastiano
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引用次数: 4

Abstract

This work presents an experimental study of different components (resistors, diodes, transistors) in a standard 40-nm bulk CMOS process for their suitability as integrated cryogenic temperature sensors down to a temperature of 4.2K. It was found that most devices can be employed as sensors down to temperatures of approximately 50K, below which non-ideal effects such as non-linear behaviour and decreased sensitivity start to dominate. The Dynamic-Threshold MOS (DTMOS) was found to be a very promising candidate for its linearity, low forward-voltage-drop and sensitivity down to 8K. Moreover, as previous research indicated that cryogenic self-heating raises the local chip temperature to tens of Kelvins already at moderate power levels, the aforementioned sensing limitations at very low temperatures are expected to be of less importance in realistic applications. The results presented in this work contribute to the further integration of classical cryo-CMOS control electronics and qubits, towards a fully scalable quantum computer.
用于量子控制集成电路的集成低温cmos温度传感器
这项工作提出了一个实验研究不同的组件(电阻,二极管,晶体管)在一个标准的40纳米体CMOS工艺,他们适合集成低温温度传感器低至4.2K的温度。研究发现,大多数器件可以用作温度低至约50K的传感器,低于此温度,非线性行为和灵敏度降低等非理想效应开始占主导地位。动态阈值MOS (DTMOS)由于其线性、低正向压降和低至8K的灵敏度而被认为是一个非常有前途的候选者。此外,由于先前的研究表明,在中等功率水平下,低温自加热已经将局部芯片温度提高到数十开尔文,因此上述在极低温度下的传感限制预计在实际应用中不那么重要。在这项工作中提出的结果有助于进一步整合经典的冷冻cmos控制电子和量子位,朝着一个完全可扩展的量子计算机。
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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