ELECTROMECHANICALLY TUNABLE DIELECTRIC MICROWAVE DEVICES
DOI:
https://doi.org/10.20535/2411-2976.12010.%25pAbstract
High-tunable low-loss microwave dielectric devices are designed by electromechanical alteration in the configuration of device components. Specifically, this device consists of dielectric and metallic parts with an air gap between them. The gap location provides the largest perturbation in the electromagnetic field and a mini-actuator controls the device. Through experiments conducted, we test and apply the high-tunable dielectric resonators and filters as well as wide-band low loss phase shifters.
References
Lucyszyn S. and Robertson I. D. Synthesis techniques for high performance octave bandwidth 180o analog phase shifters // IEEE Transactions on Microwave Theory and Techniques. ─ 1992. ─ Vol. 40, N. 4. ─ P. 731─740.
Lee C. S., Tran J. M. Coplanar waveguide semiconductor phase shifter // Microwave and Optical Technology Letters. ─ 1995. ─ Vol. 10, N. 2. ─ P. 100─102.
Ellinger F., Vogt R., Bachtold W. Compact reflectivetype phase-shifter MMIC for C-band using a lumped-element coupler // IEEE Transactions on Microwave Theory and Techniques. ─ 2001. ─ Vol. 49, N. 5. ─ P. 913─917.
Rao J. B. L., Patel D. P., Krichevsky V. Voltagecontrolled ferroelectric lens phased arrays // IEEE Transactions on Antennas and Propagation. ─ 1999. ─ Vol. 47, N. 3. ─ P. 458─468.
Deleniv A., Abadei S., Gevorgian S. Tunable ferroelectric filter-phase shifter // IEEE MTT-S International Microwave Symposium Digest. ─ June 2003. ─ Vol. 2. ─ Р. 1267─ 1270.
Coplanar ferroelectric phase shifter on silicon substrate with TiO2 buffer layer / Ki-Byoung Kim, Tae-Soon Yun, Hyun-Suk Kim, et al. // Proceedings of European Microwave Conference EuMC-2005, Paris, October 4─6, 2005. ─ Vol. 1. ─ P. 649─652.
Demonstration of a photonically controlled RF phase shifter / S. S. Lee, A. H. Udupa, H. Erlig, et al. // IEEE Microwave Guided Wave Letters. ─ 1999. ─ N. 9. ─ P. 357─ 359.
Phase modulation efficiency and transmission loss of silicon optical phase shifters / Ling Liao, Ansheng Liu, R. Jones, et al. // IEEE Journal of Quantum Electronics. ─ 2005. ─ Vol. 41, N. 2. ─ Р. 250─257.
Molchanov V. I., Yakimenko Yu. I., Pashkov V. M. Possibility of piezo-effect application for alteration of resonant frequency of solid state microwave filters // Proceedings of Conference “Problems in Microwave Integral Electronics”, Leningrad, April 1984. ─ P.156 [in Russian].
Molchanov V. I., Pyatchanin S. V., Prokopenko Yu. V. Split dielectric resonator with air gap // Izvestiya Vuzov. Radioelectronics. ─ 1987. ─ N. 1. ─ P. 31─35 [in Russian].
Possibillities of electromechalical alteration of microwave oscillating systems / Yu. I. Yakimenko, S. A. Kravchuk, T. N. Naritnik, et al. // Izvestiya Vuzov. Radioelectronics. ─ 1988. ─ N. 10. ─ P. 50─56 [in Russian].
Yegorov Yu. V. Partially filled rectangular waveguides. ─ Moscow: Soviet Radio, 1967. ─ 214 p. [in Russian].
Ilchenko M. E., Kudinov E. V. Ferrite and dielectric microwave resonators. ─ Kiev: Kiev University publisher, 1973. ─ 175 p. [in Russian].
Frequency-tunable microwave dielectric resonator / Yu. M. Poplavko, Yu. V. Prokopenko, V. I. Molchanov, at al. // IEEE Transactions on Microwave Theory and Techniques. ─ 2001. ─ Vol. 49, N. 6. ─ P. 1020 ─ 1026.
Pratsiuk B. B., Prokopenko Yu. V., Poplavko Yu. M. Method of mistuning compensation for tunable filter based on dielectric resonators // Electronics and communications. ─ 2009. ─ Vol. 5, N. 2. ─ P. 19─22 [in Russian].
Yun T.-Y., Chang K. Analysis and optimization of a phase shifter controlled by a piezoelectric transducer // IЕЕЕ Transactions on Microwave Theory and Techniques. ─ 2002. ─ Vol. 50, N. 1. ─ P. 105─111.
Epitaxial BST thin film as microwave phase shifter / B. J. Kim, S. Baik, Y. Poplavko, Y. Prokopenko // Integrated Ferroelectrics. ─ 2001. ─ Vol. 34. ─ P. 207─214.
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