由於現代人類因工業的高度發展需求而造成地球環境過度的消耗能源、自然資源以及燃燒大量的石化能源達到今日的科技日新月異，但是也引發了許多的災難，例如溫室效應、冰山融化…等等造成全球暖化的危機，因而引起全世界對地球保護意識的覺醒，開始積極倡導綠色生態與永續發展之概念。
BIPV具有發電以及節省能源之優點，也是永續建築當中相當重要的一環，然而實際採用BIPV模式，主要問題為PV模組因受日照及PV模組本身因發電所產生光電轉換效應，而導致溫度升高，進而降低發電量；本研究採用「太陽能節能玻璃」來作為試驗，此玻璃除了傳統PV模組發電之功能外，兼具高度隔熱效果，較傳統模組相比更具節能功效，因此本論文主要研究兩種玻璃應用於建築物上之隔熱性能模擬與實際量測作比較分析及「太陽能節能玻璃」電力模擬，以突顯兩種節能性能之差異。

The high energy demands generated by the rapid development of modern society has caused the excessive consumption of energy, natural resources and huge amount of fossil fuel combustion in the global environment; while these expenditures in energy have enabled unceasing technological advances, they have also led to many disastrous results, such as the greenhouse effect, melting glaciers, and so on. All of these problems have given rise to the global warming crisis. The whole world is finally aware of the importance of global protection and many countries have begun to advocate green ecology and sustainable development.

BIPV boasts power generation and energy-saving advantages, which is very important in regard to sustainable architecture. However, the main problem with BIPV that is actually adopted is that the optical-electrical conversion effect generated by the PV module often results in temperature rise due to long hours of sunshine and power generation, and thereby a reduction in power output. This study adopts “solar energy-saving glass” to conduct our testing. In addition to the power generation function of the traditional PV module, such glass also has excellent heat insulation properties, so it is more energy-saving than traditional modules. This paper mainly focused on an analytical comparison of the simulation and actual measurements of heat insulation performance of two types of glass used in buildings, as well as the power simulation of “solar energy-saving glass”, in order to highlight the differences between the two energy-saving performances.

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