Methodology of Designing Micro-Strip Directional Couplers on Interdigitated Structures
Методика Проектирования Микрополосковых Направленных Ответвителей на Встречно-Штыревых Структурах
Document type :
Compte-rendu et recension critique d'ouvrage
Title :
Methodology of Designing Micro-Strip Directional Couplers on Interdigitated Structures
Методика Проектирования Микрополосковых Направленных Ответвителей на Встречно-Штыревых Структурах
Методика Проектирования Микрополосковых Направленных Ответвителей на Встречно-Штыревых Структурах
Author(s) :
Ostankov, A. [Auteur]
Shchetinin, N. [Auteur]
Dachian, Serguei [Auteur]
Laboratoire Paul Painlevé - UMR 8524 [LPP]
Shchetinin, N. [Auteur]
Dachian, Serguei [Auteur]
Laboratoire Paul Painlevé - UMR 8524 [LPP]
Journal title :
Bulletin of Voronezh State Technical University
Pages :
70-75
Publication date :
2020
HAL domain(s) :
Statistiques [stat]/Applications [stat.AP]
English abstract : [en]
The article presents the author's methodology for designing a two-loop directional coupler on planar multi-section interdigital structures. The use of interdigitated structures allows significantly reducing the dimensions ...
Show more >The article presents the author's methodology for designing a two-loop directional coupler on planar multi-section interdigital structures. The use of interdigitated structures allows significantly reducing the dimensions of the topology, which is especially important for the UHF range. The initial stage of the methodology involves obtaining an equivalent coupler circuit in T- or U-shaped sections with concentrated inductive and capacitive elements, including the calculation of their nominal values. At the stage of transition from an electric circuit with lumped elements to a planar topology, the original analytical relation is used to determine the number of sections of the interdigital structure by the value of the lumped capacity. There is a technique for obtaining analytical relations of a similar content for any other, different from the used, geometric and dielectric parameters of the section. At the final stage, local use of the CAD optimization apparatus is assumed. The combination of parametric optimization and ready-made topological solutions can significantly reduce the time for designing microstrip miniature couplers. The technique was tested in relation to the design of a directional coupler with an operating frequency of 0.9 GHz. Whereas the area of the synthesized topology of the double-loop coupler is 30% of the area of the traditional topology with a slight deterioration of the main indicatorsShow less >
Show more >The article presents the author's methodology for designing a two-loop directional coupler on planar multi-section interdigital structures. The use of interdigitated structures allows significantly reducing the dimensions of the topology, which is especially important for the UHF range. The initial stage of the methodology involves obtaining an equivalent coupler circuit in T- or U-shaped sections with concentrated inductive and capacitive elements, including the calculation of their nominal values. At the stage of transition from an electric circuit with lumped elements to a planar topology, the original analytical relation is used to determine the number of sections of the interdigital structure by the value of the lumped capacity. There is a technique for obtaining analytical relations of a similar content for any other, different from the used, geometric and dielectric parameters of the section. At the final stage, local use of the CAD optimization apparatus is assumed. The combination of parametric optimization and ready-made topological solutions can significantly reduce the time for designing microstrip miniature couplers. The technique was tested in relation to the design of a directional coupler with an operating frequency of 0.9 GHz. Whereas the area of the synthesized topology of the double-loop coupler is 30% of the area of the traditional topology with a slight deterioration of the main indicatorsShow less >
Language :
Anglais
Popular science :
Non
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