本文主要在設計及製作太陽能與風力混合型發電系統，在太陽能發電系統中採用直流/直流升壓型功率轉換器，風力發電機系統採用三相切換式整流器來降低輸入電流諧波失真以提高輸入功率因數，並搭配擾動觀察法作為最大功率追蹤控制策略，使其太陽能與風力發電機在現有環境條件下有最大功率輸出。此外，蓄電池系統中以升降壓型截波器作為儲、釋能控制器，來達到系統能量平衡與穩定功率輸出，且提高供電穩定性與供電裕度。後級採用單相全橋式變流器，並以正弦脈寬調變(SPWM)為切換策略，產生單相頻率為60赫茲、電壓有效值110伏特之穩定單相交流電源供負載使用。此複合發電系統是以數位信號處理器(DSP,TMS320F2812A)作為整體系統控制器，以提高系統穩定性與可靠度，並以電壓記錄器記錄系統日功率變化，驗證系統能量輸出之穩定性。

This thesis designs and implements a solar and wind turbine power hybrid generation system. The solar power part employs a DC/DC boost power converter and the wind turbine part employs a three-phase switch-mode rectifier (SMR) to reduce the input current harmonics distortion and increase the input power factor. Cooperating with the perturb-and-observe algorithm Maximum Power Point Tracking (MPPT) strategy, the solar and wind turbine system achieve all-time optimum power output in present environment. In addition, the battery system employs a buck/boost dc chopper as the charge and discharge to balance system energy and stabilize the output power, The last stage, single-phase full-bridge inverter, adopts the sinusoidal pulse width modulation (SPWM) strategy to generate a single-phase AC source at 60 Hz. The hybrid generation system employs a digital signal process or (DSP, TMS320LF2812) as the digital controller. The validity of the proposed system is verified by day-based recording the variation of the power of the system.

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