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研究生: 陳逸軒
Yi-Hsuan Chen
論文名稱: 以多粒子擾動觀察法克服遮蔽問題之太陽能最大功率追蹤演算法
A Maximum Power Point Tracking Method Based on Multiple Perturb-and-Observe method for Overcoming Solar Partial Shade Problems
指導教授: 連國龍
Kuo-Lung Lian
口試委員: 楊宗銘
Chung-Ming Young
朱家齊
Chia-Chi Chu
林正凱
Cheng-Kai Lin
學位類別: 碩士
Master
系所名稱: 電資學院 - 電機工程系
Department of Electrical Engineering
論文出版年: 2014
畢業學年度: 102
語文別: 中文
論文頁數: 125
中文關鍵詞: 太陽能最大功率追蹤最佳化演算法粒子群演算法模擬退火法多粒子擾動觀察法
外文關鍵詞: Photovoltaic (PV) system, Maximum Power Point Tracking(MPPT), Particle Swarm Optimization (PSO), Simulated Annealing (SA), Perturb-and-Observe (P&O)
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太陽能電池依其電壓與電流之關係可繪出非線性之特性曲線,該曲線會隨日照與溫度改變,依據太陽能電池當下的狀態,有不同的電壓-電流(V-I)特性曲線而有不同的功率輸出,因而需發展出最大功率(Maximum Power Point Tracking, MPPT)追蹤系統,以利於不同遮蔭因素下太陽能電池依然能保持最大功率輸出。
本論文利用太陽能模擬機模擬出太陽能電池因部份遮蔽導致輸出功率-電壓(P-V)特性曲線的多峰現象,此現象會在特性曲線上產生多個區域的最佳解(local maximum),傳統的方法無法辨別是否為全域最佳解(global maximum),而造成無法有效的輸出最大功率,因此本文使用三種最佳化的智能演算法,做最大功率點的搜尋,分別為粒子群演算法(particle swarm optimization, PSO)、模擬退火法(simulated annealing, SA)與多粒子擾動觀察法(multiple-perturb-and-observe, multiple-P&O)。模擬退火法為單一粒子搜尋的智能演算法,且為全域最佳解之搜尋方法,可成功的追蹤到最大功率點,其方法運算簡單,但需較長的搜尋時間。粒子群演算法為群體粒子之隨機搜尋演算法,可成功搜尋到最大功率點,但因其演算法有隨機亂數機制會影響收斂時間。為了克服隨機亂數可能會影響收斂時間的缺點,本文提出多粒子擾動觀察法,以直接搜尋且用群體粒子做最大功率點搜尋,不但時間快且不受亂數機制影響收斂時間。


The characteristic curve of a solar cell depends on its voltage and the current relation, which is dependent on the insulation and the temperature change. Owning to different shading conditions, each solar cell has different voltage-current (V-I) characteristic curve exhibiting different maximum power point. Therefore, maximum power point tracking (MPPT) system must be developed for tracking the maximum power under different shading conditions.
The power-voltage (P-V) characteristic curve has multiple peaks because of partially shading. This thesis proposes three kinds of maximum power point tracking methods which are multiple perturb-and-observe (P&O), simulated annealing (SA) and particle swarm optimization (PSO) for a photovoltaic system to track the global maximum point under partially shaded conditions.
SA is a kind of heuristic algorithm, able to track the maximum power point. The method is simple but takes a long time for the global maximum point (GMP) searching. PSO is also capable of tracking the maximum power point. Nevertheless, PSO may also take a long time to converge. In this thesis, a multiple perturb-and-observe method to allocate GMP. This method is a scenario of experiment results showing that the proposed method is fast and able to track GMP effectively.

摘要 i Abstract ii 誌謝 iii 目錄 v 圖目錄 viii 表目錄 xv 第一章 緒論 1 1.1研究動機與目的 1 1.2文獻探討 3 1.3系統架構與規格 7 1.4論文大綱 7 第二章 直流-直流升壓轉換器之分析 9 2.1前言 9 2.2太陽能電池 9 2.2.1簡介 9 2.2.2太陽能電池模型 10 2.3太陽能電池之遮蔽特性 12 2.3.1簡介 12 2.3.2太陽能電池於遮蔽之特性 12 2.4直流-直流升壓轉換器之分析與控制 14 2.4.1簡介 14 2.4.2直流-直流升壓型轉換器之原理(連續導通模式) 15 2.4.3直流-直流升壓型轉換器電感值與電容值之設計 18 2.5交錯式直流-直流升壓轉換器之分析與控制 22 2.5.1交錯式直流-直流升壓轉換器架構 22 2.5.2交錯式直流-直流升壓轉換器之控制策略 23 2.5.3小訊號分析 25 第三章 太陽能最大功率追蹤演算法 27 3.1前言 27 3.2擾動觀察法 28 3.2.1擾動觀察法之簡介 28 3.3模擬退火法 31 3.3.1模擬退火法基礎理論之簡介 31 3.3.2模擬退火法之演算流程 32 3.3.3應用於太陽能最大功率追蹤之模擬退火法流程 35 3.3.4模擬退火法之參數簡介 35 3.3.5溫度參數之設定 36 3.4粒子群演算法 37 3.4.1粒子群演算法簡介 37 3.4.2粒子群演算法用於最大功率追蹤 38 3.5多粒子擾動觀察法 40 第四章 PSIM電路模擬 41 4.1前言 41 4.2太陽能曲線 42 4.3多粒子擾動觀察法軟體模擬 45 4.4模擬退火法軟體模擬 50 4.5粒子群演算法軟體模擬 55 第五章 硬體實測結果 60 5.1前言 60 5.2數位訊號處理器介面電路 60 5.3交錯式控制架構 63 5.4太陽能模擬機與太陽能曲線 64 5.5擾動觀察法與多粒子擾動觀察法之硬體實測與實驗波形 66 5.5.1擾動觀察法之硬體實測與實驗波形 66 5.5.2多粒子擾動觀察法之硬體實測與實驗波形 70 5.6模擬退火法之硬體實測與實驗波形 81 5.7粒子群演算法之硬體實測與實驗波形 91 5.8討論 102 第六章 結論與未來展望 106 6.1 總結 106 6.2 未來展望 106 參考文獻 108

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