本文輔以人機介面設計，達成溫度系統可調裝置之規劃控制。其中本文採行之方法乃經由物件化導向設計概念，透過視窗面板完成設定及監視，兼以強化系統操作便利，進而將其應用至溫控系統控制之最佳互動溝通平台建置。而在負載調節上，則係以固態電驛驅動電熱負載及脈波寬度調變，以達成機組風扇轉速控制，並輔以嵌入溫度變化因子至演算模型，期使更加優質提高溫控系統節能效能。又本文之電源驅動主以太陽能電池，並應用單晶片作為系統核心，整合完成系統程式開發，續經由硬體實現與波形實測分析，研究成果應有助於整合負載調節及溫控電動機組之規劃控制參考之需。

This thesis aims to integrate a man-machine interface with a temperature control system. The concept of object-oriented programming along with monitoring of buttons and icons on the panel is adopted such that the convenience of operation can be better achieved. Meanwhile, the man-machine interface has been further implemented to better its interactive platform. In the load regulation, temperature changes are incorporated into computational models, while solid state relays are also installed with electric-heat load drives with pulse width modulation enacted for fan speed control, in anticipation of reaching a more efficient temperature control system. For this designated system, the solar cells are served as electric source for energy saving need. Then, the single chip is also well programmed and embedded in the core of the system. Through the hardware realization and waveform measurement analysis, the research results gained from this thesis are useful to be references in temperature control applications.

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