Self-consistent modeling of waveguide circulator under realistic magnetic field for industrial applications
DC Field | Value | Language |
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dc.contributor.author | Aranganadin, Kaviya | - |
dc.contributor.author | Hsu, Hua-Yi | - |
dc.contributor.author | Lin, Ming-Chieh | - |
dc.date.accessioned | 2022-07-07T13:27:54Z | - |
dc.date.available | 2022-07-07T13:27:54Z | - |
dc.date.created | 2021-11-22 | - |
dc.date.issued | 2020-10 | - |
dc.identifier.uri | https://scholarworks.bwise.kr/hanyang/handle/2021.sw.hanyang/144474 | - |
dc.description.abstract | An RF waveguide circulator is a ferromagnetic passive device with three or four ports, which is used to protect other RF components from excessive signal reflection. The previous studies on the design and development of the circulators deal with achieving broad bandwidth and high transmission efficiency using finite element method (FEM) simulations with a homogenous applied bias field. This work takes a step further and presents a novel self-consistent approach to modeling a ferrite waveguide circulator by solving electromagnetic and magnetostatic equations simultaneously. The comparison between the homogenous and the non-homogenous field models shows the importance of coupling a magnetic circuit to an electromagnetic simulation. The more realistic circulator design presented here still has a broad bandwidth of 180 MHz, insertion loss less than 0.24 dB, reflection, and isolation better than 20 dB operated at the center frequency of 2.45 GHz. It can be used to replace an industrial waveguide circulator, which has only a 50 MHz bandwidth. Hence, by increasing the bandwidth of a circulator, one can reduce the number of units for a dual-frequency magnetrons operating concurrently at 2, 430 and 2, 480 MHz with a working power of 3 kW each employed in the microwave plasma system. | - |
dc.language | 영어 | - |
dc.language.iso | en | - |
dc.publisher | Institute of Electrical and Electronics Engineers Inc. | - |
dc.title | Self-consistent modeling of waveguide circulator under realistic magnetic field for industrial applications | - |
dc.type | Article | - |
dc.contributor.affiliatedAuthor | Lin, Ming-Chieh | - |
dc.identifier.doi | 10.1109/IVEC45766.2020.9520639 | - |
dc.identifier.scopusid | 2-s2.0-85115320227 | - |
dc.identifier.bibliographicCitation | 2020 IEEE 21st International Conference on Vacuum Electronics, IVEC 2020, pp.349 - 350 | - |
dc.relation.isPartOf | 2020 IEEE 21st International Conference on Vacuum Electronics, IVEC 2020 | - |
dc.citation.title | 2020 IEEE 21st International Conference on Vacuum Electronics, IVEC 2020 | - |
dc.citation.startPage | 349 | - |
dc.citation.endPage | 350 | - |
dc.type.rims | ART | - |
dc.type.docType | Conference Paper | - |
dc.description.journalClass | 1 | - |
dc.description.isOpenAccess | N | - |
dc.description.journalRegisteredClass | scopus | - |
dc.subject.keywordPlus | Electromagnetic simulation | - |
dc.subject.keywordPlus | Finite element method | - |
dc.subject.keywordPlus | Magnetrons | - |
dc.subject.keywordPlus | Waveguides | - |
dc.subject.keywordPlus | Broad bandwidths | - |
dc.subject.keywordPlus | Design and Development | - |
dc.subject.keywordPlus | High transmission | - |
dc.subject.keywordPlus | Magnetic-field | - |
dc.subject.keywordPlus | Magnetra | - |
dc.subject.keywordPlus | Passive devices | - |
dc.subject.keywordPlus | RF components | - |
dc.subject.keywordPlus | Self consistent modeling | - |
dc.subject.keywordPlus | Signal reflection | - |
dc.subject.keywordPlus | Transmission efficiency | - |
dc.subject.keywordPlus | Bandwidth | - |
dc.subject.keywordAuthor | FEM | - |
dc.subject.keywordAuthor | Magnetron | - |
dc.subject.keywordAuthor | Self-consistent modeling | - |
dc.subject.keywordAuthor | Waveguide circulator | - |
dc.identifier.url | https://ieeexplore.ieee.org/document/9520639 | - |
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