通过约翰逊噪声测温法实际实现开尔文值

IF 2.1 3区 工程技术 Q2 INSTRUMENTS & INSTRUMENTATION Metrologia Pub Date : 2024-01-25 DOI:10.1088/1681-7575/ad2273
S P Benz, Kevin J Coakley, N. Flowers-Jacobs, Horst Rogalla, W. Tew, J F Qu, D. R. White, C. Gaiser, Alessio Pollarollo, Chiharu Urano
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引用次数: 0

摘要

约翰逊噪声测温(JNT)是一种纯电子的热力学温度测量方法。在初级约翰逊噪声测温法中,温度是通过比较未知温度下电阻器的约翰逊噪声电压与量子电压噪声源(QVNS)合成的伪随机噪声而推断出来的。该方法的优点是完全依赖电子测量,而且由于 QVNS 能够生成可编程、可扩展和精确的参考信号,因此可以在很宽的温度范围内使用。其缺点是要求 QVNS 在低温下运行,需要匹配感应电阻器和 QVNS 引线的频率响应,以及测量时间长。本综述整理了目前基于开关相关器和 QVNS 的初级约翰逊噪声温度计的最佳实践建议。该方法可在 300 K 附近实现约 1 mK 的不确定性,适用于 4 K 至 1000 K 之间的操作。
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Practical realisation of the kelvin by Johnson noise thermometry
Johnson noise thermometry (JNT) is a purely electronic method of thermodynamic thermometry. In primary JNT, the temperature is inferred from a comparison of the Johnson noise voltage of a resistor at the unknown temperature with a pseudo-random noise synthesized by a quantum-based voltage-noise source (QVNS). The advantages of the method are that it relies entirely on electronic measurements, and it can be used over a wide range of temperatures due to the ability of the QVNS to generate programmable, scalable, and accurate reference signals. The disadvantages are the requirement of cryogenic operation of the QVNS, the need to match the frequency responses of the leads of the sense resistor and the QVNS, and long measurement times. This review collates advice on current best practice for a primary Johnson noise thermometer based on the switched correlator and QVNS. The method achieves an uncertainty of about 1 mK near 300 K and is suited to operation between 4 K and 1000 K.
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来源期刊
Metrologia
Metrologia 工程技术-物理:应用
CiteScore
2.80
自引率
25.00%
发文量
137
审稿时长
12 months
期刊介绍: Published 6 times per year, Metrologia covers the fundamentals of measurements, particularly those dealing with the seven base units of the International System of Units (metre, kilogram, second, ampere, kelvin, candela, mole) or proposals to replace them. The journal also publishes papers that contribute to the solution of difficult measurement problems and improve the accuracy of derived units and constants that are of fundamental importance to physics. In addition to regular papers, the journal publishes review articles, issues devoted to single topics of timely interest and occasional conference proceedings. Letters to the Editor and Short Communications (generally three pages or less) are also considered.
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