用于行星科学和遥感的25%带宽520-680 GHz肖特基接收机前端演示

J. Treuttel, T. Thúróczy, A. Feret, G. Gay, L. Gatilova, T. Vacelet, C. Chaumont, E. Sernoux, P. Mondal, J. Puech
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引用次数: 2

摘要

行星大气中含有丰富的分子种类,其光谱旋转和振动特征在毫米和亚毫米频率范围内。特别是,520-680 GHz频率范围提供了对大气中各种次要和主要成分的访问,包括水蒸气(H2O)、一氧化碳(CO)、氰化氢(HCN)、一硫化碳(CS)及其同位素,以获得温度和风速[1]或表面发射率[2]。最近,我们研制了560ghz次谐波混频器,在525- 625ghz频段表现出优异的性能,混频器噪声温度约为870k,约为30hf/kB[3]。在本文中,我们提出了一个更新和广泛的测量,表明混频器的射频带宽可以延长到25%,保持优异的性能。介绍了辐射计建模和肖特基结参数偏差的评估研究。结I/V的最佳拟合允许导出主二极管直流参数改造为分析模型,如[4]。我们讨论了实现大带宽接收器系统的努力,包括大带宽[5]或使用同时分子线观察[6]的复杂系统中的本地功率解决方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Demonstration of a 25% bandwidth 520-680 GHz Schottky receiver front-end for planetary science and remote sensing
Planetary atmospheres are rich in molecular species with spectral rotational and vibrational signatures in the millimeter and submillimeter frequency range. In particular, the 520-680 GHz frequency ranges offers access to a various amount of minor and major constituents of the atmosphere, including water vapour (H2O), carbon monoxide (CO), hydrogen cyanide (HCN), carbon monosulfide (CS) and their isotopes to derive temperature and wind velocities [1] or surface emissivity [2]. Recently, we have developed and manufactured the 560 GHz subharmonic mixer, showing the excellent performances in the 525-625 GHz frequency region with mixer noise temperature of about 870 K, around 30hf/kB [3]. In this paper we present an update and extensive measurement showing that the mixer’s RF bandwidth can be extended up to 25% keeping the excellent performances. Assessment study of the radiometer modelling and Schottky junction parameter deviations will be presented. A best fit of the junction I/V allows to derive the main diode DC parameters retrofitted to analytical models such as [4]. We discuss efforts on implementation of large bandwidth receiver system, including solutions for local power across large bandwidth [5] or in complex systems using simultaneous molecular line observations [6].
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