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학술연구/단체지원/교육 등 연구자 활동을 지속하도록 DBpia가 지원하고 있어요.
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연구자들이 자신의 연구와 전문성을 널리 알리고, 새로운 협력의 기회를 만들 수 있는 네트워킹 공간이에요.
논문 기본 정보
- 자료유형
- 학위논문
- 저자정보
- 지도교수
- 김호민
- 발행연도
- 2014
- 저작권
- 제주대학교 논문은 저작권에 의해 보호받습니다.
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This study introduces electromagnetic design processes of 10-MW-Class High-temperature superconducting synchronous generator for wind Turbine. Superconducting generator can produce 5 times stronger magnetic field than
permanent magnet at least, which enables large scale wind turbine to function as a lighter, smaller and more highly efficient system. These processes are targeted for higher efficiency and shorter high temperature superconductor
(HTS) wires to fabricate 10 MW class superconducting synchronous generator. In this study, the design process was carried out through the following steps. First of all, the basic design models of the superconducting wind generator
were achieved from the two-dimensional (2D) numerical analysis. This step focuses on the design proposal that is possible to fabricate a lighter, smaller and more highly efficient generator while using a less HTS wires. Secondly, analysis model was designed by 3D CAD program for 3D electromagnetic field analysis. This step focuses on the 3D design of superconducting field coil with end shape and the calculation of the HTS wire length, weight and volume of generator. Last but not least, the two-dimensional design proposal was modified and optimized for manufacturing the superconducting generator by using 3D FEA (three-dimensional finite element analysis). This step focuses on the
optimization of the electrical output (induced electromotive force, losses, efficiency, etc.) and superconducting field coil parameters.
permanent magnet at least, which enables large scale wind turbine to function as a lighter, smaller and more highly efficient system. These processes are targeted for higher efficiency and shorter high temperature superconductor
(HTS) wires to fabricate 10 MW class superconducting synchronous generator. In this study, the design process was carried out through the following steps. First of all, the basic design models of the superconducting wind generator
were achieved from the two-dimensional (2D) numerical analysis. This step focuses on the design proposal that is possible to fabricate a lighter, smaller and more highly efficient generator while using a less HTS wires. Secondly, analysis model was designed by 3D CAD program for 3D electromagnetic field analysis. This step focuses on the 3D design of superconducting field coil with end shape and the calculation of the HTS wire length, weight and volume of generator. Last but not least, the two-dimensional design proposal was modified and optimized for manufacturing the superconducting generator by using 3D FEA (three-dimensional finite element analysis). This step focuses on the
optimization of the electrical output (induced electromotive force, losses, efficiency, etc.) and superconducting field coil parameters.
목차
Ⅰ. 서 론 11.1 연구 배경 11.2 연구 목적 및 내용 3Ⅱ. 풍력용 10 MW급 고온초전도 동기발전기 전자장 설계 42.1 고온초전도 동기발전기의 구조 42.2 고온초전도 동기발전기 전자장 설계 52.3 고온초전도 동기발전기 출력 특성 해석을 위한 3차원 모델 설계 152.4 고온초전도 계자코일 특성 해석 17Ⅲ. 풍력용 10 MW급 고온초전도 동기발전기 출력특성 해석 및 결과 고찰 223.1 고온초전도 동기발전기의 출력특성 해석 223.2 고온초전도 동기발전기 전자장 설계 최적화 29Ⅳ. 결 론 41참 고 문 헌 42감사의 글 44
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