Abstract
A superconducting integrated receiver (SIR) comprises in a single chip a planar antenna combined with a superconductor-insulator-superconductor (SIS) mixer, a superconducting Flux Flow Oscillator (FFO) acting as a Local Oscillator (LO) and a second SIS harmonic mixer (HM) for the FFO phase locking. In this report, an overview of the SIR and FFO developments and optimizations is presented. Improving on the fully Nb-based SIR we have developed and studied Nb–AlN–NbN circuits, which exhibit an extended operation frequency range. Continuous tuning of the phase locked frequency has been experimentally demonstrated at any frequency in the range 350–750 GHz. The FFO free-running linewidth has been measured between 1 and 5 MHz, which allows to phase lock up to 97% of the emitted FFO power. The output power of the FFO is sufficient to pump the matched SIS mixer. Therefore, it is concluded that the Nb–AlN–NbN FFOs are mature enough for practical applications.These achievements enabled the development of a 480–650 GHz integrated receiver for the atmospheric-research instrument TErahertz and submillimeter LImb Sounder (TELIS). This balloon-borne instrument is a three-channel superconducting heterodyne spectrometer for the detection of spectral emission lines of stratospheric trace gases that have their rotational transitions at THz frequencies. One of the channels is based on the SIR technology. We demonstrate for the first time the capabilities of the SIR technology for heterodyne spectroscopy in general, and atmospheric limb sounding in particular. We also show that the application of SIR technology is not limited to laboratory environments, but that it is well suited for remote operation under harsh environmental conditions. Light weight and low power consumption combined with broadband operation and nearly quantum limited sensitivity make the SIR a perfect candidate for future airborne and space-borne missions. The noise temperature of the SIR was measured to be as low as 120 K in double sideband operation, with an intermediate frequency band of 4–8 GHz. The spectral resolution is well below 1 MHz, confirmed by our measurements. Remote control of the SIR under flight conditions has been demonstrated in a successful balloon flight in Kiruna, Sweden.Capability of the SIR for high-resolution spectroscopy has been successfully proven also in a laboratory environment by gas cell measurements. The possibility to use SIR devices for the medical analysis of exhaled air will be discussed. Many medically relevant gases have spectral lines in the sub-terahertz range and can be detected by an SIR-based spectrometer. The SIR can be considered as an operational device, ready for many applications.
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References
V.P. Koshelets, S.V. Shitov, L.V. Filippenko, A.M. Baryshev, H. Golstein, T. de Graauw, W. Luinge, H. Schaeffer, H. van de Stadt First implementation of a superconducting integrated receiver at 450 GHz. Appl. Phys. Lett. 68(9), 1273 (1996)
V.P. Koshelets, S.V. Shitov, Integrated superconducting receivers. Supercond. Sci. Technol. 13, R53 (2000)
P. Yagoubov, R. Hoogeveen, M. Torgashin, A. Khudchenko, V. Koshelets, N. Suttiwong, G. Wagner, M. Birk, 550–650 GHz spectrometer development for TELIS. Proc. ISSTT 338 (2006)
V.P. Koshelets, A.B. Ermakov, L.V. Filippenko, A.V. Khudchenko, O.S. Kiselev, A.S. Sobolev, M.Y.u. Torgashin, P.A. Yagoubov, R.W.M. Hoogeveen, W. Wild Iintegrated submillimeter receiver for TELIS. IEEE Trans. Appl. Supercond. 17, 336 (2007)
G. de Lange, D. Boersma, J. Dercksen, P. Dmitriev, A. Ermakov, L. Filippenko, H. Golstein, R. Hoogeveen, L. de Jong, A. Khudchenko, N. Kinev, O. Kiselev, B. van Kuik, A. de Lange, J. van Rantwijk, A. Sobolev, M. Torgashin, E. de Vries, P. Yagoubov, V. Koshelets, Development and characterization of the superconducting integrated receiver channel of the TELIS atmospheric sounder. Supercond. Sci. Technol. 23(4), 045016 (2010)
T. Nagatsuma, K. Enpuku, F. Irie, K. Yoshida, Flux-flow type Josephson oscillator for millimeter and submillimeter wave region. J. Appl. Phys. 54, 3302, (1983), see also Pt. II: J. Appl. Phys. 56, 3284 (1984); Pt. III, J. Appl. Phys. 58, 441 (1985); Pt. IV, J. Appl. Phys. 63, 1130 (1988)
V.P. Koshelets, P.N. Dmitriev, A.B. Ermakov, A.S. Sobolev, M.Y.u. Torgashin, V.V. Kurin, A.L. Pankratov, J. Mygind, Optimization of the phase-locked flux-flow oscillator for the submm integrated receiver. IEEE Trans. Appl. Supercond. 15, 964–967 (2005)
I. Mehdi, THz local oscillator technology. Proc. SPIE 5498, 103 (2004)
R.W.M. Hoogeveen, P.A. Yagoubov, A. de Lange, A.M. Selig, V.P. Koshelets, B.N. Ellison, M. Birk, Proc. SPIE 5978, 440 (2005)
R.W.M. Hoogeveen, P.A. Yagoubov, G. de Lange, A. de Lange, V. Koshelets, M. Birk, B. Ellison, Proc. SPIE 6744, 67441U-1 (2007)
F. Friedl-Vallon, G. Maucher, M. Seefeldner, O. Trieschmann, A. Kleinert, A. Lengel, C. Keim, H. Oelhaf, H. Fischer, Appl. Opt. 43, 3335 (2004)
V.P. Koshelets, S.V. Shitov, A.B. Ermakov, O.V. Koryukin, L.V. Filippenko, A.V. Khudchenko, M.Y.u. Torgashin, P. Yagoubov, R. Hoogeveen, O.M. Pylypenko, Superconducting integrated receiver for TELIS. IEEE Trans. Appl. Supercond. 15, 960–963, 2005
V.P. Koshelets, S.V. Shitov, A.V. Shchukin, L.V. Filippenko, J. Mygind, A.V. Ustinov, Self-pumping effects and radiation linewidth of Josephson flux flow oscillators. Phys Rev B 56, 5572–5577 (1997)
P.N. Dmitriev, I.L. Lapitskaya, L.V. Filippenko, A.B. Ermakov, S.V. Shitov, G.V. Prokopenko, S.A. Kovtonyuk, V.P. Koshelets, High quality Nb-based integrated circuits for high frequency and digital applications. IEEE Trans. Appl. Supercond. 13(2), 107–110 (2003)
M.Y.u. Torgashin, V.P. Koshelets, P.N. Dmitriev, A.B. Ermakov, L.V. Filippenko, P.A. Yagoubov, Superconducting integrated receivers based on Nb-AlN-NbN circuits. IEEE Trans. Appl. Supercond. 17, 379–382 (2007)
V.P. Koshelets, S.V. Shitov, A.V. Shchukin, L.V. Filippenko, J. Mygind, Linewidth of submillimeter wave flux-flow oscillators. Appl. Phys. Lett. 69, 699–701 (1996)
V.P. Koshelets, J. Mygind, Flux flow oscillators for superconducting integrated submm wave receivers, in Studies of High Temperature Superconductors, 39, ed. by A.V. Narlikar (NOVA Science Publishers, New York, 2001) 213–244
V.P. Koshelets, A.B. Ermakov, P.N. Dmitriev, A.S. Sobolev, A.M. Baryshev, P.R. Wesselius, J. Mygind, Radiation linewidth of flux flow oscillators. Supercond. Sci. Technol. 14, 1040–1043 (2001)
V.P. Koshelets, S.V. Shitov, P.N. Dmitriev, A.B. Ermakov, L.V. Filippenko, V.V. Khodos, V.L. Vaks, A.M. Baryshev, P.R. Wesselius, J. Mygind, Towards a phase-locked super- conducting integrated receiver: prospects and limitations. Phys. C 367, 249–255 (2002)
A.L. Pankratov, Form and width of spectral line of a Josephson flux flow oscillator. Phys. Rev. B. 65, 054504 (2002)
V.P. Koshelets, A.B. Ermakov, S.V. Shitov, P.N. Dmitriev, L.V. Filippenko, A.M. Baryshev, W. Luinge, J. Mygind, V.L. Vaks, D.G. Pavel’ev, Superfine resonant structure on IVC of long Josephson junctions and its influence on flux flow oscillator linewidth. IEEE Trans. Appl. Supercond. 11, 1211–1214 (2001)
P. Berberich, R. Buemann, H. Kinder, Monochromatic phonon generation by the Josephson effect. Phys. Rev. Lett. 49(20), 1500–1503 (1982)
V.P. Koshelets, S.V. Shitov, L.V. Filippenko, P.N. Dmitriev, A.B. Ermakov, A.S. Sobolev, M.Y.u. Torgashin, A.L. Pankratov, V.V. Kurin, P. Yagoubov, R. Hoogeveen Superconducting phase-locked local oscillator for a submm integrated receiver. Supercond. Sci. Technol. 17, $127–$131 (2004)
A.L. Pankratov, V.L. Vaks, V.P. Koshelets, Spectral properties of phase locked flux flow oscillator. J. Appl. Phys. 102, 0629 (2007)
A.V. Khudchenko, V.P. Koshelets, P.N. Dmitriev, A.B. Ermakov, P.A. Yagoubov, O.M. Pylypenko, Cryogenic phase detector for superconducting integrated receiver. IEEE Trans. Appl. Supercond. 17, 606–608 (2007)
E. Schomburg, R. Scheuerer, S. Brandl, K.F. Renk, D.G. Paveliev, Y.u. Koschurinov, V. Ustinov, A. Zhukov, A. Kovsh, P.S. Kopev, Electron. Lett. 35(17) (1999)
P. Yagoubov, H. van de Stadt, R. Hoogeveen, V. Koshelets, M. Birk, A. Murk, in Proceedings of the 28th ESA Antenna Workshop on Space Antenna Systems and Technologies, Noordwijk, 2, 763 (2005)
P.A. Yagoubov, W.J. Vreeling, H. van de Stadt, R.W.M. Hoogeveen, O.V. Koryukin, V.P. Koshelets, O.M. Pylypenko, A. Murk, in Proceedings of the 16th Intern. Conf. on Space Terahertz Technology, Gothenburg, 438 (2005)
A. Murk, P. Yagoubov, U. Mair, M. Birk, G. Wagner, H. van de Stadt, R. Hoogeveen, N. Kämpfer, Proc. of the 28th ESA Antenna Workshop on Space Antenna Systems and Technologies, Noordwijk, 757 (2005)
B.N. Ellison, B.P. Moyna, D.N. Matheson, A. Jones, S.M.X. Claude, C. Mann, B.J. Kerridge, R. Siddans, R. Munro, W.J. Reburn, in Proceedings of 2nd ESA Workshop on Millimetre Wave Technology and Applications, Espoo, (1998)
S. Cherednichenko, V. Drakinskiy, T. Berg, P. Khosropanah, E. Kollberg, Rev. Sci. Instrum. 79, 034501 (2008)
A. Emrich, S. Andersson, M. Knis Proceedings of the joint 31st International Conference on Infrared Millimeter Waves and 14th International Conference on Teraherz Electronics, Shanghai, 314 (2006)
Acknowledgements
The authors thank colleagues at DLR, IPM, IREE, and SRON for help and assistance in the SIR channel design and characterization: J Barkhof, A Baryshev, J Kooi, O Koryukin, A Pankratov, D Paveliev O Pylypenko, M Romanini, and S Shitov; as well as T de Graauw and W Wild are acknowledged for their support of this work.
The work was supported in parts by RFBR projects 09–02–00246, 09–02–12172-ofi-m, Grant for Leading Scientific School 5423.2010.2 and State contract No. 02.740.11.0795.
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Koshelets, V.P. et al. (2011). Integrated Submm Wave Receiver: Development and Applications. In: Sidorenko, A. (eds) Fundamentals of Superconducting Nanoelectronics. NanoScience and Technology. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-20158-5_10
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