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Shitov SV, Levitchev M, Veretennikov AV, Koshelets VP, Prokopenko GV, Filippenko LV, et al. Superconducting integrated receiver as 400-600 GHz tester for coolable devices. IEEE Trans. Appl. Supercond.. 2001;11(1):832–5.
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Koshelets VP, Dmitriev PN, Ermakov AB, Filippenko LV, Sobolev AS, Torgashin MY, et al. Superconducting flux-flow oscillators for THz integrated receiver [abstract]. In: Presented at the second Franco-Russian Seminar on Nanotechnologies. Lille, France; 2005.
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Koshelets VP, Dmitriev PN, Ermakov AB, Filippenko LV, Khudchenko AV, Koryukin OV, et al. SIR for TELIS (post-critical) review.; 2004.
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Mygind J, Samuelsen MR, Koshelets VP, Sobolev AS. Simple theory for the spectral. linewidth of the mm-wave Josephson flux flow oscillator [abstract]. In: Pi-shift Workshop “Physics of superconducting phase-shift devices”. Ischia, Italy; 2005. p. 22.
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Ozhegov RV, Okunev OV, Gol’tsman GN, Filippenko LV, Koshelets VP. Noise equivalent temperature difference of a superconducting integrated terahertz receiver. J Commun Technol Electron. 2009;54(6):716–20.
Abstract: The dependence of the noise equivalent temperature difference (NETD) of a superconducting integrated receiver (SIR) on the receiver noise temperature and the inputsignal level has been investigated. An unprecedented NETD of 13±2 mK has been measured at a SIR noise temperature of 200 K, intermediate-frequency bandwidth of 4 GHz, and time constant of 1 s. With a decrease in the input signal, an improvement in the NETD is observed. This effect is explained by a reduction in the influence of the instabilities of the receiver power supply and the amplification circuit that occur when the input signal is decreased.
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