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Журнал технической физики

Investigation of a classical millimeter-wave mixer using SIS lead junctions

A. V. Poladich, L. P. Strizhko

Published Aug 1, 1988• 0 citations
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The results of development and investigations of ultra-low-noise waveguide and quasioptical receivers of millimeter wave band region based on SIS mixers are presented. The possible cryogenic components of millimeter wave band receivers based on SIS junctions such as dc SQUID IF amplifiers, SIS noise sources, cooled ferrite phase-shifters-modulators, superconducting mm-wave local oscillators, superconducting analog-to-digital converters were designed, produced and experimentally studied. The prospects of creation the entirely superconducting integrated receiving circuits containing all mentioned above superconducting components are discussed.
The development of ultra-low-noise receivers at frequencies of >200 GHz is primarily driven by astronomical applications. The most sensitive millimeter-wave receivers that have presently been constructed make use of the strong mixing afforded by superconductor-insulator-superconductor (SIS) tunnel junctions. In a collaborative project between UKC and RAL, a 230 GHz laboratory receiver has been built using a lead alloy SIS junction as the mixing element, mounted in 4:1 reduced-height waveguide, terminated at one end with a circular cross-section, adjustable backshort. Best results indicate a double-sideband receiver noise temperature of T/sub R/(DSB) approximately=120 K, which represents state-of-the-art performance at this frequency. Initial difficulties in achieving good mixing performance prompted an investigation into the importance of the 'quality' of mixer block backshort tuning elements. An analysis of the mixer equivalent circuit is presented which allows for loss in a non-ideal mixer block, and 3-port mixer model calculations are discussed which incorporate this analysis into the Tucker quantum theory of mixing.