Optical pulse-drive and on-chip power splitter for the pulse-driven AC Josephson Voltage Standard

O. Kieler, L. Palafox, J. Ireland, J. Williams, B. Karlsen, H. Malmbekk, H. Tian, R. Gerdau, R. Wendisch, J. Kohlmann, P. Ohlckers, E. Bardalen, M. Akram, R. Behr
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Abstract

The pulse-driven Josephson Voltage Standard, also called Josephson Arbitrary Waveform Synthesizer (JAWS) is already well established for different applications in AC voltage metrology. To further increase the output voltage towards 10 V and to reduce the complexity of the JAWS systems we investigated two different approaches, which finally can be combined. One approach is to integrate an optimized on-chip power splitter to reduce the number of high-frequency (HF) channels from room temperature down to 4 K. A pulse pattern generator with less HF outputs will directly reduce the complexity and costs of a JAWS system. The second approach is to use an optical pulse-drive implementing cold photodiodes close to the JAWS chip. The use of optical fiber will have two main advantages: the optical fibers will reduce the high frequency noise and will enable an easy splitting into parallel optical channels. We will present first results with both approaches.
用于脉冲驱动AC约瑟夫森电压标准的光脉冲驱动和片上功率分配器
脉冲驱动的约瑟夫森电压标准,也称为约瑟夫森任意波形合成器(JAWS),已经为交流电压计量中的不同应用建立了良好的基础。为了进一步将输出电压提高到10 V,并降低JAWS系统的复杂性,我们研究了两种不同的方法,最终可以将它们结合起来。一种方法是集成一个优化的片上功率分配器,以减少高频(HF)通道的数量,从室温降至4 K。具有较少高频输出的脉冲模式发生器将直接降低JAWS系统的复杂性和成本。第二种方法是使用光脉冲驱动器实现靠近JAWS芯片的冷光电二极管。使用光纤将有两个主要优点:光纤将减少高频噪声,并将使一个容易分割成平行的光通道。我们将介绍两种方法的初步结果。
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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