육상용 4 MW급 풍력터빈 나셀의 모듈화 설계

@article{ART002482621},
author={ 박선호 and 유광호 and 김미선 and 정종훈 and 임정호 and 방조혁 },
title={육상용 4 MW급 풍력터빈 나셀의 모듈화 설계},
journal={풍력에너지저널},
issn={2093-5099},
year={2019},
volume={10},
number={2},
pages={39-46},
doi={10.33519/kwea.2019.10.2.005},
url={http://dx.doi.org/10.33519/kwea.2019.10.2.005}

TY - JOUR
AU - 박선호
AU - 유광호
AU - 김미선
AU - 정종훈
AU - 임정호
AU - 방조혁
TI - 육상용 4 MW급 풍력터빈 나셀의 모듈화 설계
T2 - 풍력에너지저널
PY - 2019
VL - 10
IS - 2
PB - 한국풍력에너지학회
SP - 39-46
SN - 2093-5099
AB - Due to transportation and installation challenges, the average size of wind turbines is limited to within 2～3 MW class in the worldwide onshore market. These challenges can be overcome with the modularization of large components such as rotor blades, nacelles and towers. The purpose of this paper is the modular design of an onshore 4 MW class wind turbine nacelle, which includes a power converter system and main transformer. Same logistics conditions for the onshore 2 MW class wind turbine nacelle were taken into account in the design stage. During the concept study, a conventional and reliable drivetrain with a long shaft and CRB + DTRB bearing arrangement was chosen among three different drivetrain concepts, and the main nacelle components were grouped into three modules, DT (drive-train), NA (nacelle) and TR (transformer). Each module and component was designed and optimized in detail to meet the required weights and dimensions. A full-scale prototype of the 4.2 MW nacelle was installed in a modular manner and tested successfully at Yeonggwang, a site in South Korea.
KW - 육상, 4 MW급, 풍력터빈, 나셀, 모듈화 설계
DO - 10.33519/kwea.2019.10.2.005
UR - http://dx.doi.org/10.33519/kwea.2019.10.2.005
ER -

박선호 , 유광호 , 김미선 , 정종훈 , 임정호 and 방조혁 (2019). 육상용 4 MW급 풍력터빈 나셀의 모듈화 설계. 풍력에너지저널, 10( 2), 39- 46.

박선호 , 유광호 , 김미선 , 정종훈 , 임정호 and 방조혁 . 2019, “육상용 4 MW급 풍력터빈 나셀의 모듈화 설계”, 풍력에너지저널, vol. 10, no. 2, pp. 39-46. Available from: doi:10.33519/kwea.2019.10.2.005

박선호 유광호 et al. 김미선 정종훈 임정호 방조혁 “육상용 4 MW급 풍력터빈 나셀의 모듈화 설계” 풍력에너지저널 10.2 pp. 39-46 (2019): 39.

박선호 , 유광호 , 김미선 , 정종훈 , 임정호 , 방조혁 . 육상용 4 MW급 풍력터빈 나셀의 모듈화 설계 풍력에너지저널 [Internet]. 2019; 10( 2), : 39-46. Available from: doi:10.33519/kwea.2019.10.2.005

박선호 , 유광호 , 김미선 , 정종훈 , 임정호 and 방조혁 . “육상용 4 MW급 풍력터빈 나셀의 모듈화 설계” 풍력에너지저널 10, no.2 (2019): 39-46. doi: 10.33519/kwea.2019.10.2.005

홈 권호 목록 논문 목록 논문 상세

육상용 4 MW급 풍력터빈 나셀의 모듈화 설계

풍력에너지저널

약어 : -

2019, vol.10, no.2, pp.39 - 46

DOI : 10.33519/kwea.2019.10.2.005

발행기관 : 한국풍력에너지학회

연구분야 : 기타공학

박선호¹ , 유광호² , 김미선³ , 정종훈⁴ , 임정호⁵ , 방조혁⁶

¹유니슨(주), 풍력연구소

²유니슨(주), 풍력연구소

³유니슨(주), 풍력연구소

⁴유니슨(주), 풍력연구소

⁵유니슨(주), 풍력연구소

⁶유니슨(주), 풍력연구소

인용한 논문 수 : - 서지 간략 보기

초록

Due to transportation and installation challenges, the average size of wind turbines is limited to within 2～3 MW class in the worldwide onshore market. These challenges can be overcome with the modularization of large components such as rotor blades, nacelles and towers. The purpose of this paper is the modular design of an onshore 4 MW class wind turbine nacelle, which includes a power converter system and main transformer. Same logistics conditions for the onshore 2 MW class wind turbine nacelle were taken into account in the design stage. During the concept study, a conventional and reliable drivetrain with a long shaft and CRB + DTRB bearing arrangement was chosen among three different drivetrain concepts, and the main nacelle components were grouped into three modules, DT (drive-train), NA (nacelle) and TR (transformer). Each module and component was designed and optimized in detail to meet the required weights and dimensions. A full-scale prototype of the 4.2 MW nacelle was installed in a modular manner and tested successfully at Yeonggwang, a site in South Korea.

키워드

육상, 4 MW급, 풍력터빈, 나셀, 모듈화 설계

참고문헌(15)

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