本文擬以解析反算法及計算流體力學商業軟體探討節能玻璃對於密式空間之暫態及穩態溫度分佈及熱傳特性的影響。本研究先以解析反算法配合節能玻璃上之溫度量測值來估算該玻璃之消光係數(Extinction coefficient)。為了欲預測進入節能玻璃之熱通量及熱傳係數，故於該玻璃之冷面(Cold surface)的紐塞爾數(Nusselt number)及雷萊數(Rayleigh number)關係式，將假設為已知。本解析反算法之優點是不需任何疊代過程及初始猜測值。除此之外，本文亦將應用計算流體力學商業軟體配合節能玻璃之冷面的實驗量測溫度來求得密閉式空間內之流場及溫度分佈情形。為了欲驗証本文結果之正確性，於冷面之平均熱傳係數的反算結果將與計算流體力學商業軟體所求得之數值結果相比較。此外，以節能玻璃之實驗分析密閉空間內，如具有開孔及抽風下，針對最佳位置與大小等熱場與流場作討論模擬結果之對照並比較流場之變化。

This article is intended to be anti-analytic algorithms and computational fluid dynamics commercial software to explore the impact of energy-saving glass for the dense space of transient and steady-state temperature distribution and heat transfer characteristics. In this study, we resolve anti-algorithm with energy-saving glass temperature measurements to estimate the extinction coefficient of the glass in order to forecast into the heat flux and heat transfer coefficient of the energy-saving glass first, it will be assumed to be known the Nusselt number and the Rayleigh number relation of cold surface in the glass. The advantages of this inverse algorithm do not need any iterative process and the initial guess. In addition, this article will be applied to computational fluid dynamics commercial software with the experimental measurement of the energy-saving glass of cold temperature to obtain the flow field and temperature distribution in a closed space. To verify the results of this paper the correctness of the average heat transfer coefficient in the cold of the inverse results will be compared to the numerical results and computational fluid dynamics commercial software we have obtained. In addition to the experimental analysis of energy-saving glass in a confined space, such as openings and ventilation for the best location and size of the thermal field and flow field for discussion of the control of the simulation results and compare the flow field changes.

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