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研究生: 林偉民
Lin, Wei-min
論文名稱: 太陽能發電系統對台電配電系統之衝擊分析
Impact Analysis of Photovoltaic Generation System on Taipower Distribution Systems
指導教授: 王醴
Wang, Li
學位類別: 碩士
Master
系所名稱: 電機資訊學院 - 電機工程學系
Department of Electrical Engineering
論文出版年: 2007
畢業學年度: 95
語文別: 中文
論文頁數: 119
中文關鍵詞: 太陽能發電系統換流器匯流排衝擊分析
外文關鍵詞: impact analysis, photovoltaic (PV) generation system, inverter bus
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  • 本論文係分析大容量太陽能發電系統和市電併聯運轉時,對於市電系統、負載和換流器輸出端上可能發生之特性影響,並探討對台電配電系統之衝擊。文中根據換流器之特性而提出換流器匯流排之理論,並根據某太陽能發電廠之實際參數,利用EMTP-RV 模擬軟體來建立模型,並進行功率潮流分析。
    在穩態研究部份,本論文分別針對不同負載下和不同太陽能發電容量、市電端電壓變動以及電壓不平衡率之影響,做一詳細探討。在動態研究部份,本論文分別針對孤島、獨立負載、市電解聯和市電順序投入等特性,做詳細之研究。最後根據穩態及動態模擬結果,完成高容量太陽能發電系統對台電配電系統之衝擊分析。

    This thesis analyzes both dynamic and steady-state performances of a large-scale photovoltaic (PV) generation system connected to a utility grid. The impact analysis of the studied PV system on Taipower distribution system is also carried out.
    According to the characteristics of an inverter connected to a bus of a distribution system, the theory of inverter bus is proposed to solve power flow of the distribution system according to actual parameters of the PV system. The software EMTP-RV is employed to establish the model and calculate the power flow of the studied system.
    Steady-state characteristics of the PV system subject to changes of loading condition, photovoltaic output power, and grid voltage are performed.
    Dynamic characteristics of the studied PV system under various operating conditions such as islanding, stand alone, and loss of grid are also explored. The simulated results can be employed to determine the impacts of the
    studied PV system to the connected distribution systems under various operating conditions.

    頁數 中文摘要..................................................I 英文摘要.................................................II 致謝................................................... III 目錄.....................................................IV 表目錄..................................................VII 圖目錄.................................................. IX 符號表..................................................XII 第一章 緒論.............................................. 1 1-1 研究背景............................................. 1 1-2 研究動機............................................. 2 1-3 文獻回顧............................................. 3 1-4 論文內容大綱......................................... 9 第二章 太陽能發電系統................................... 11 2-1 前言................................................ 11 2-2 太陽能發電系統之現況................................ 11 2-3 太陽能發電系統之基本原理............................ 12 2-4 太陽能發電系統之種類及特性.......................... 13 2-4-1 太陽能發電系統之種類.............................. 13 2-4-2 太陽能發電系統之特性...............................13 2-5 太陽能發電系統之數學模型............................ 16 2-5-1 太陽能陣列之模型.................................. 16 2-5-2 蓄電池與傳輸線之模型.............................. 16 2-5-3 直流/直流升壓式轉換器............................. 17 2-5-4 直流傳輸線與直流/交流換流器模組................... 18 2-6 交流/直流轉換器之數學模型........................... 19 2-6-1 交流/直流轉換器之d-q 軸數學模型................... 19 2-6-2 交流/直流轉換器之a-b-c 軸數學模型................. 20 2-7 EMTP-RV 模擬所使用之元件模型........................ 21 第三章 電力潮流分析..................................... 26 3-1 前言................................................ 26 3-2 電力潮流之基本原理.................................. 26 3-3 傳統電力系統匯流排類型.............................. 27 3-4 微電源(micro-sources)在系統中之匯流排特性........... 28 3-4-1 微電源併聯市電.................................... 29 3-4-2 微電源連接獨立負載................................ 30 3-5 換流器匯流排之特性.................................. 30 3-6 EMTP-RV 軟體介紹.................................... 33 第四章 太陽能發電系統對配電系統衝擊之穩態分析........... 39 4-1 前言................................................ 39 4-2 系統參數值.......................................... 39 4-3 系統架構............................................ 41 4-4 衝擊方法之分析...................................... 42 4-4-1 模式一:換流器功率因數的限制...................... 42 4-4-2 模式二:換流器視在功率之限制...................... 49 4-4-3 模式三:換流器電流大小之限制...................... 54 4-4-4 模式四:三相不平衡之分析.......................... 56 4-5 某太陽能發電廠之模擬結果............................ 60 4-5-1 負載功率因數為0.85 落後之模擬情況................. 60 4-5-2 負載功率因數為0.95 領先之模擬情況................. 74 4-6 動態電壓崩潰指數之分析.............................. 89 第五章 太陽能發電系統對配電系統衝擊之動態分析........... 91 5-1 前言................................................ 91 5-2 獨立供電模式........................................ 91 5-3 孤島模式.............................................97 5-4 太陽能發電系統依序與市電併聯之模式................. 102 5-5 太能能發電系統依序與市電解聯之模式................. 104 第六章 結論與未來研究方向.............................. 106 6-1 結論............................................... 106 6-2 未來研究方向....................................... 107 參考文獻............................................... 108 附錄 :再生能源發電系統併聯技術要點.................... 112 作者簡介............................................... 118

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