{"id":{"repo_id":"birmingham","oai_identifier":"oai:etheses.bham.ac.uk:1534"},"canonical_url":"https://search.dev.ndltd.org/etd/birmingham/oai:etheses.bham.ac.uk:1534","repository":{"repo_id":"birmingham","name":"University of Birmingham","base_url":"https://etheses.bham.ac.uk/cgi/oai2"},"display":{"title":"Synthesis of coupled resonator circuits with multiple outputs using coupling matrix optimization","abstract":"Design techniques used for two-port coupled resonator circuits are extended in this thesis to multi-port coupled resonator circuits. Three-port coupled resonator power dividers and diplexers are demonstrated in particular. The design approach is based on coupling matrix optimization, and it allows synthesis of coupled resonator power dividers with arbitrary power division, and diplexers with contiguous and non-contiguous bands. These components have been synthesised with novel topologies that can achieve Chebyshev and Quasi-elliptic filtering responses. To verify the design methodology, some components with Chebyshev filtering response have been designed, fabricated and tested. X-band coupled resonator devices have been realized using waveguide cavities: 3-dB power divider, unequal power divider, 4-resonator diplexer, and 12-resonator diplexer. An E-band 12-resonator coupled resonator diplexer has been designed to be used as a front end component in the transceiver of a wireless communications system. An H-band coupled resonator diplexer with embedded bends has been designed and realized using micromachining technology.","abstract_html":"Design techniques used for two-port coupled resonator circuits are extended in this thesis to multi-port coupled resonator circuits. Three-port coupled resonator power dividers and diplexers are demonstrated in particular. The design approach is based on coupling matrix optimization, and it allows synthesis of coupled resonator power dividers with arbitrary power division, and diplexers with contiguous and non-contiguous bands. These components have been synthesised with novel topologies that can achieve Chebyshev and Quasi-elliptic filtering responses. To verify the design methodology, some components with Chebyshev filtering response have been designed, fabricated and tested. X-band coupled resonator devices have been realized using waveguide cavities: 3-dB power divider, unequal power divider, 4-resonator diplexer, and 12-resonator diplexer. An E-band 12-resonator coupled resonator diplexer has been designed to be used as a front end component in the transceiver of a wireless communications system. An H-band coupled resonator diplexer with embedded bends has been designed and realized using micromachining technology.","abstract_has_math":false,"creators":["Skaik, Talal"],"institution":"University of Birmingham","degree_name":"d_ph","degree_level":"d_ph","degree_discipline":null,"degree_department":null,"school":null,"contributors":[],"advisors":[],"committee_chairs":[],"committee_members":[],"year":2011,"date_issued":"2011-07","date_published":"2011-07","updated_at":"2026-07-24T01:11:37Z","subjects":["TK Electrical engineering. Electronics Nuclear engineering","TA Engineering (General). 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These components have been synthesised with novel topologies that can achieve Chebyshev and Quasi-elliptic filtering responses. To verify the design methodology, some components with Chebyshev filtering response have been designed, fabricated and tested. X-band coupled resonator devices have been realized using waveguide cavities: 3-dB power divider, unequal power divider, 4-resonator diplexer, and 12-resonator diplexer. An E-band 12-resonator coupled resonator diplexer has been designed to be used as a front end component in the transceiver of a wireless communications system. An H-band coupled resonator diplexer with embedded bends has been designed and realized using micromachining technology."]},{"key":"dc:format","label":"Dc Format","values":["application/pdf"]},{"key":"dc:title","label":"Title","values":["Synthesis of coupled resonator circuits with multiple outputs using coupling matrix optimization"]}]}],"canonical_facts":{"dc:contributor.sponsor":["other"],"dc:creator":["Skaik, Talal"],"dc:date":["2011-07"],"dc:date.issued":["2011-07"],"dc:description.abstract":["Design techniques used for two-port coupled resonator circuits are extended in this thesis to multi-port coupled resonator circuits. Three-port coupled resonator power dividers and diplexers are demonstrated in particular. The design approach is based on coupling matrix optimization, and it allows synthesis of coupled resonator power dividers with arbitrary power division, and diplexers with contiguous and non-contiguous bands. 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