Abstract
A review of physical principles of design as well as some ways of technical realization of controlled resonance semiconductor devices at millimeter and submillimeter wavelengths is presented. The operation of such devices is based on cyclotron and magnetoplasma resonances as well as on Fabry-Perot resonance. Such choice has been made due to the fact that these resonance phenomena are the most typical ones for the magnetized semiconductor plasma.
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References
E.D.Palik, J.K.Furdyna, “Infrared and microwave magnetoplasma effects in semiconductors”, Rep. Prog. Phys.,33, 1193 (1970).
J.Požela, Plasma and current instabilities in semiconductors, — Pergamon Press (1981).
A.J.Dinardo, Y.Klinger, F.R.Arams, “Passive nonreciprocal HF helicon devices”, IEEE trans.,EMC 10, 270 (1968).
R.B.Tolutis, “On the properties of semiconductor HF isolators on the basis of the size resonance effect of electromagnetic magnetoplasma waves”, Radiotek. i Elektron.,23, 607 (1978) (Engl. transl. Radio Eng. Electron. Phys.).
J.Gremillet, “Undirectional device having means for transmitting only one sense of a circulary polarized wave”, USA Patent No 3.286.203.
R.E.Hayes, W.G.May, “The use of semiconductors in nonreciprocal devices for submillimeter wavelengths”, Proc. Symp. Submillimeter Waves, New York, Polytechnic Press, pp. 237–250 (1970).
H.J.Kuno, W.D.Hershberger, “Solid-state plasma controlled nonreciprocal microwave device”, IEEE trans.,MMT 15, 57 (1967).
H.J.Kuno, W.D.Hershberger, “Microwave Faraday effect and propagation in a circular solid-state plasma waveguide”, IEEE trans.,MTT 15, 661 (1967).
K.Suzuki, “Room temperature solid-state plasma nonreciprocal microwave devices”, IEEE trans.,ED 16, 1018 (1969).
K.Suzuki, R.Hirota, “Nonreciprocal millimeter-wave devices using a solid-state plasma at room temperature”, IEEE trans.,ED 18, 408 (1971).
A.Laurinavičius, J.Požela, “Investigation of microwave dispersion in n-InSb by magnetoreflection”, Phys. Stat. Sol. (a),21, 733 (1974).
V.K.Kanonenko, E.M.Kuleshov, “Nonreciprocal microwave propagation in n-InSb”, Radiotek. i Electron.,18, 1429 (1973). (Engl. transl.: Radio Eng. Electron. Phys.).
A.C.Baynham, A.D.Boardman, M.R.B.Dunsmore, “Radiation filters”, UK Patent No 1.237.708.
A.Laurinavičius, P.Malakauskas, “Pecularities of electromagnetic wave propagation in a waveguide with gyromagnetic semiconductor wall”, Litovskii Fiz. Sbornik,22, No 3, 48 (1982) (Engl. transl.: Soviet Phys. — Collection).
J.Maurer, A.Libchaber, J.Bok, “tNonlinear effects associated with helicon wave propagation”, Proc. 7-th Internat. Conf. Phys. Semiconduct., (Plasma effects in solids), Dunod, Paris, pp. 49–52 (1964).
A.Laurinavičius, J.Požela, “Nonlinear effects in n-InSb associated with the propagation of high power microwave helicon”, Fiz. Tech. Poluprov.,7, 2036 (1973) (Engl. transl.: Soviet Phys.-Semicond.).
W.G.May, B.R.McLeod, “A waveguide isolator using InSb”, IEEE Trans.,MTT 16, 877 (1968).
B.R.McLeod, W.G.May, “A 35 GHz isolator using a coaxial solid state plasma in a longitudinal magnetic field”, IEEE trans.,MTT 19, 510 (1971).
M.Kanda, W.G.May, “A millimeter-wave isolator containing a semiconductor rod in a circular waveguide”, IEEE trans.,IM 24, 264 (1975).
M.Kanda, W.G.May, “New millimeter-wave isolator containing a semiconductor rod in a circular waveguide”, Electronics Letters,11, 261 (1975).
M.Kanda, W.G.May, “Hallow-cylinder waveguide isolators for use at millimeter wavelengths”, IEEE trans.,MTT 22, 913 (1974).
A.Laurinavičius, J.Požela, “Investigation of helicon waves from magnetoreflection in InSb samples at microwave frequencies”, Litovskii Fiz. Sbornik,11, 65 (1971) (Engl. transl.: Soviet Phys. — Collection).
V.K.Kononenko, E.M.Kuleshov, “Nonreciprocal semiconductor devices using the effect of magnetoplasma reflection minimum”, Radiotek. i Elektron.,25, 1717 (1980) (Engl. transl: Radio Eng. Electron. Phys.)
A.Laurinavičius, unpublished.
V.K.Kononenko, E.M.Kuleshov, A.Laurinavičius, J.Požela, V.N.Polupanov, “Quasioptical attenuator”, USSR Patent No 657.486.
A.Laurinavičius, “Semiconductor isolator for submillimeter waves”, Radiotek. i Elektron.,24, 1095 (1979). (Engl. transl.: Radio Eng. Electron. Phys.).
A.Laurinavičius, V.Balynas “Semiconductor isolator based on cyclotron resonance phenomenon”, Electronics Letters,15, 15 (1979).
P.L.Richards, G.E.Smith, “Far-infrared circular polarizer”, RSI,25, 1535 (1964).
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Laurinavičius, A. Resonance phenomena in the magnetized semiconductor plasma and their application for the design of the millimeter and submillimeter wave components. Int J Infrared Milli Waves 4, 163–184 (1983). https://doi.org/10.1007/BF01008601
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DOI: https://doi.org/10.1007/BF01008601