海上升压站主变压器冷却方式选择

赵云; 郑明; 郑建伟; 赵云; 郑明; 郑建伟

doi:10.16516/j.gedi.issn2095-8676.2015.03.018

[1]

史磊. 海上升压站设备冷却技术研究 [D]. 广州：华南理工大学，2012.

SHI Lei. Cooling System Study for Transformer Substation of Offshore Wind Power Station [D]. Guangzhou: South China University of Technology, 2012.

[2]

陈敏，佘双翔，刘小松，等. 基于LCC的海上风电场主变压器冗余配置经济性对比与分析 [J]. 电力系统自动化，2015, 39(14): 168-174.

CHEN Min, SHE Shuangxiang, LIU Xiaosong, et al. Economical Assessment on Redundancy Configuration of Main Transformers for Offshore Wind Farm Based on Life Cycle Cost [J]. Automation of Electric Power Systems, 2015, 39(14): 168-174.

[3]

闫培丽，袁兆祥，齐立忠，等. 海上风电场二次系统设计关键技术 [J]. 电力建设，2015, 36(4): 129-133.

YAN Peili, YUAN Zhaoxiang, QI Lizhong, et al. Key Technology of Offshore Wind Farm Secondary System Design [J]. Electric Power Construction, 2015, 36(4): 129-133.

[4]

张明，张哲，叶军. 海上风电场升压平台布置研究初探 [J]. 上海节能，2015(2): 80-84.

ZHANG Ming, ZHANG Zhe, YE Jun. Research On Boost Platform Layout on Offshore Wind Farm [J]. Shanghai Energy Conservation, 2015(2): 80-84.

[5]

施群. 海上平台高压开关装置的研究 [D]. 合肥：合肥工业大学，2003.

SHI Qun. Study of High Voltage Switchgear for Offshore Platform [D]. Hefei: Hefei University of Technology, 2003.

[6]

刘新. 海上风电场的防腐涂装 [J]. 材料保护，2011, 44(4): 20-23.

LIU Xin. Anticorrosive Coating of Offshore Wind Farms [J]. Meterials Protection, 2011, 44(4): 20-23.

[7]

王胜．海上生产装置闭式循环冷却系统 [J]．中国造船，2007(11): 13-15.

WANG Sheng. Closed Cycle Cooling System for Offshore Production Device [J]. SHIPBUILDING OF CHINA, 2007 (11): 13-15.

[8]

QHS300—2003,海上平台暖通空调系统设计方法[S].

[9]

李佰贵，宋建伏. 除盐雾空气净化装置在海洋钻井平台上的应用 [J]. 中国修船，2012(6): 43-44.

LI Baigui, SONG Jianfu. Salt Fog Releasing and Air Filtrating Equipment Used on Drilling Platform [J]. CHINA SHIPREPAIR, 2012 (6): 43-44.

[10]

王华军，邰国华. 三峡水电站主变压器冷却方式的选择 [J]. 人民长江，2009(1): 67-68，104.

WANG Huajun, TAI Guohua. Selection of Main Transformer Cooling Method of Three Gorges Hydropower Station [J]. Yangtze River, 2009(1): 67-68，104.

[11]

广东省电力设计研究院. 用于海上风电场升压站的降温冷却系统：CN 202523989 U[P]. 2012-11-07.

[1]	史磊. 海上升压站设备冷却技术研究 [D]. 广州：华南理工大学，2012. SHI Lei. Cooling System Study for Transformer Substation of Offshore Wind Power Station [D]. Guangzhou: South China University of Technology, 2012.
[2]	陈敏，佘双翔，刘小松，等. 基于LCC的海上风电场主变压器冗余配置经济性对比与分析 [J]. 电力系统自动化，2015, 39(14): 168-174. CHEN Min, SHE Shuangxiang, LIU Xiaosong, et al. Economical Assessment on Redundancy Configuration of Main Transformers for Offshore Wind Farm Based on Life Cycle Cost [J]. Automation of Electric Power Systems, 2015, 39(14): 168-174.
[3]	闫培丽，袁兆祥，齐立忠，等. 海上风电场二次系统设计关键技术 [J]. 电力建设，2015, 36(4): 129-133. YAN Peili, YUAN Zhaoxiang, QI Lizhong, et al. Key Technology of Offshore Wind Farm Secondary System Design [J]. Electric Power Construction, 2015, 36(4): 129-133.
[4]	张明，张哲，叶军. 海上风电场升压平台布置研究初探 [J]. 上海节能，2015(2): 80-84. ZHANG Ming, ZHANG Zhe, YE Jun. Research On Boost Platform Layout on Offshore Wind Farm [J]. Shanghai Energy Conservation, 2015(2): 80-84.
[5]	施群. 海上平台高压开关装置的研究 [D]. 合肥：合肥工业大学，2003. SHI Qun. Study of High Voltage Switchgear for Offshore Platform [D]. Hefei: Hefei University of Technology, 2003.
[6]	刘新. 海上风电场的防腐涂装 [J]. 材料保护，2011, 44(4): 20-23. LIU Xin. Anticorrosive Coating of Offshore Wind Farms [J]. Meterials Protection, 2011, 44(4): 20-23.
[7]	王胜．海上生产装置闭式循环冷却系统 [J]．中国造船，2007(11): 13-15. WANG Sheng. Closed Cycle Cooling System for Offshore Production Device [J]. SHIPBUILDING OF CHINA, 2007 (11): 13-15.
[8]	QHS300—2003,海上平台暖通空调系统设计方法[S].
[9]	李佰贵，宋建伏. 除盐雾空气净化装置在海洋钻井平台上的应用 [J]. 中国修船，2012(6): 43-44. LI Baigui, SONG Jianfu. Salt Fog Releasing and Air Filtrating Equipment Used on Drilling Platform [J]. CHINA SHIPREPAIR, 2012 (6): 43-44.
[10]	王华军，邰国华. 三峡水电站主变压器冷却方式的选择 [J]. 人民长江，2009(1): 67-68，104. WANG Huajun, TAI Guohua. Selection of Main Transformer Cooling Method of Three Gorges Hydropower Station [J]. Yangtze River, 2009(1): 67-68，104.
[11]	广东省电力设计研究院. 用于海上风电场升压站的降温冷却系统：CN 202523989 U[P]. 2012-11-07.