本研究將探討高透光太陽能節能玻璃和不同種類玻璃建材運用於實體試驗屋對室內舒適度之影響，並以冷暖空調及通風系統進行節能分析。於國立臺灣科技大學建置三間玻璃試驗屋，並裝設不同種類之玻璃，分別為高透光太陽能節能玻璃屋、Low-E節能玻璃屋和一般玻璃屋，用於比較不同玻璃之發電差異、光環境差異、熱環境差異、能耗及節能差異、環境及人體舒適度，並研究冷氣空調與通風系統相互搭配，降低耗電，節能減碳。
本研究主要分為五個部分，分別為發電分析、光環境分析、熱環境分析、節能分析和舒適度分析，並針對高透光太陽能節能玻璃進行建築物應用設計模擬分析與環境效益減碳分析。研究結果顯示，由於高透光太陽能節能玻璃能提供建築額外的電力，因此能大幅降低建築外部的電力需求，且高透光太陽能節能玻璃屋能於不開任何空調及通風系統之密閉及自然對流環境中，長時間維持於較佳的環境舒適度以及人體舒適度，充分展現高透光太陽能節能玻璃良好的發電及隔熱性能。建築若運用高透光太陽能節能玻璃，除了能提供優異的發電性能之外，還能擁有明亮的光線，減少照明能耗，同時帶來極佳的空調節能效果，達到節能減碳及環境永續的目的。建築應用設計以臺北為例，運用高透光太陽能節能玻璃的多功能展覽館之全年耗電量減去全年發電量只需要消耗27,743kWh，相較於一般玻璃屋所需之耗電量為141,767kWh，可以節省80%耗電量。對於建築應用設計之多功能展覽館設置於不同地點之模擬分析，以杜拜為例，若運用高透光太陽能節能玻璃之全年碳排量相對於一般玻璃，可節省約116.2公噸的碳排放，相當於臺北大安森林公園3.6個月的CO2吸收量。

In the dissertation, the impact of high see-through heat insulation solar glass and different types of glass building materials on indoor comfort are discussed, which were analyzed by air conditioning and ventilation system. The types of glass used for the three test houses built on the top floor of National Taiwan University of Science and Technology are Heat Insulation Solar Glass, Low-Emissivity Glass, and Ordinary Glass. They are used to compare different types of glass, regarding their power generation, power consumption, and the level of comfort the environment provides to humans, and to study how air conditioning and ventilation systems, when combined, reduce the overall power consumption and carbon emission.
The research is mainly divided into five sections: power generation analysis, light environment analysis, thermal environment analysis, energy saving analysis and comfort analysis, stimulating the power generation, energy consumption and indoor and outdoor light environment by simulation software, and compares the simulation results with the measured results. The results show that, in addition to providing excellent power generation performance, buildings with high see-through heat insulation solar glass can have bright lights, therefore reducing power consumption from lighting products, and can at the same time optimize air conditioning energy efficiency and reach the goal of saving energy and environment sustainability.

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