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研究生: 陳朝港
Chao-Kan Chen
論文名稱: 並聯市電之太陽能螢光燈照明系統研製
Design and Implementation of Solar Energy Parallel line with Fluorescent Lamp Lighting System
指導教授: 蕭弘清
Horng-Ching Hsiao
口試委員: 辜志承
Jyh-Cherng Gu
蕭弘清
Horng-Ching Hsiao
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: 2005
畢業學年度: 93
語文別: 中文
論文頁數: 85
中文關鍵詞: 太陽能市電並聯螢光燈電子安定器擾動與觀察法
外文關鍵詞: electronic ballast, word: photovoltaic, perturb and observe method, parallel line, fluorescent lamp
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  • 本文旨在設計並聯市電之太陽能螢光燈照明系統。本系統將太陽能板產生的電能,經由功率轉換器結合最大功率追蹤法則,將日間太陽能儲存於蓄電池,以供應全天候螢光燈照明所需能量,另為確保蓄電池電力能夠穩定供應,再結合市電並聯以AC-DC轉換器作為輔助充電電路。本論文以具零電壓切換功能之直流轉換器作為太陽能充電電路,以降低開關切換損失,有效將太陽能儲存於蓄電池;AC-DC輔助充電電路則利用具有功率因數校正功能之返馳式電路來達成;由DC-AC轉換器先轉換24 V蓄電池直流電壓為200 V左右之高頻方波,利用推挽式直流轉換器與串聯諧振並聯負載電路,合成為推挽式串聯諧振並聯負載電子安定器,不但具有零電壓切換功能,亦可直接將電池電壓昇壓後點燈,取代傳統的Class D架構。
    由於電池電壓的變動會造成燈管電壓不穩定及照度不足等現象,特利用頻率調光的方式使燈管輸出穩定之光源。
    在控制方面,利用德州儀器(Texas Instrument)公司所生產的TMSLF2407數位訊號處理器(DSP)為控制核心,完成太陽能最大功率之追蹤,並利用DSP產生可變頻的訊號來達到調光的目的,以取代傳統硬體IC電路,加速電路設計時程。
    經由實驗結果顯示,本系統可有效利用綠色能源減少地球能源損耗,再加上零電壓及零電流電路的應用,提高系統效率、降低電力損失,另由於DSP的運用更縮小了電路體積;本系統適合裝設於學校或住家,以減少一般燈具照明費用之支出。


    The purpose of the study is to design and implementation of solar energy parallel line supplying fluorescent lamp illumination system. The power in the photovoltaic board deliverly to the batteries by using Maximum Power Point Tracking (MPPT) method. And supply all needed energy to fluorescent lamp at daytime. Adding a AC-DC converter as a auxiliary circuit. In this research, a ZVS DC/DC converter had been used to play a solar charging circuit for reducing the switch conduction loss so that it can store the photovoltaic power more efficiently. The auxiliary AC-DC charging circuit is perform by a flyback converter, which with power factor correction function. A DC-AC converter was adopted to rise the battery voltage to about 200V square wave. Than through a resonant.circuit to implement the electronic ballast. By combining a push-pull DC/DC converter and a series resonant parallel loaded circuit as a push-pull series resonant parallel loaded electronic ballast, which is not only with zero voltage converter function, but also rise the battery voltage to drive lamp and instead of traditional Class D electronic ballast
    Because of the fluctuate of batteries voltage will be resulting the lamp voltage unstable and illumination not enough. By using frequency control method will stabilize the lamp output.
    On the control aspect, a digital signal processor (TMSLF2407) made by Texas Instrument Company was introduced as a control kernel, which perform maximum power point tracking control and frequency modulation to adjust luminous output, instead of traditional IC hardware circuit to speed up the circuit design stage.
    The result of the experiment shows that the system is able to reduce the energy loss in the earth. Also the ZVS and ZCS circuit are implemented, that reduce power loss and improve the system efficiency. In addition, the dimensions of circuit can be shrunk., it can be operated at school and house to reduce the lighting cost.

    第一章 緒論1 1.1研究背景與動機1 1.2研究範圍與方法2 1.3文獻回顧3 1.4論文內容編排4 第二章 太陽能板及螢光燈特性分析6 2.1太陽能板特性及控制6 2.1.1基本原理及分類6 2.1.2特性介紹8 2.2最大功率追蹤12 2.3螢光燈特性13 2.4螢光燈的電壓-電流特性15 2.5燈管的負變化量阻抗及穩定條件17 2.6結語18 第三章 電路架構19 3.1系統架構19 3.2功因校正FlyBack電路原理20 3.3太陽能充電電路24 3.4螢光燈交流電子安定器電氣規範26 3.5推挽式電子安定器動作分析27 3.6電子安定器啟動及穩態分析30 3.6.1啟動模式31 3.6.2穩態模式32 3.7調頻與調壓調光34 3.7.1頻率調光34 3.7.2調壓調光36 3.8結語37 第四章 硬體電路設計及軟體規劃38 4.1功因校正電路設計38 4.1.1功因校正電路參數設定38 4.1.2功率因數校正電路參數計算46 4.2太陽能充電電路之設計47 4.2.1太陽能板規格47 4.2.2元件規格選定48 4.2.3驅動電路51 4.2.4太陽能板電壓電流回授電路51 4.3推挽式安定器設計52 4.3.1諧振電路參數計算52 4.3.2推挽式變壓器設計54 4.4DSP 控制器規劃59 4.4.1MPPT充電程式軟體規劃59 4.4.2市電並聯之規劃61 4.4.3推挽式電子安定器軟體規劃62 4.5結語64 第五章 實驗結果65 5.1功率校正電路量測65 5.2太陽能充能量測70 5.3市電並聯量測73 5.4安定器調光量測75 5.5結語77 第六章 結論與展望78 6.1結論78 6.2未來研究方向79 參考文獻80

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