本研究將針對照光機進行模擬分析，分析其內部cell的溫度場，目的為降低各流道上cell之間的溫度差，使cell在通過照光機後，其功率在戶外使用時，輸出穩定性佳，其性能衰退的現象不會太嚴重。而在本研究將會定義了溫度差異性(Temperature Difference)作為性能指標，透過此指標來判斷其設計是否可以減少cell之間的溫度差。在對其機構作設計變更時，需要具備流體力學的基礎概念與熱傳遞的理論，並且還需要閱讀相關文獻，以利於可以快速地改善其性能指標。
為了減少時間與成本的浪費，將透過模擬分析軟體Fluent作分析，首先將真實情況的機台建立成3-D模型，並對此模型做網格劃分，再將真實情況之材料參數、邊界條件輸入其求解器中，分析其流動情況與溫度的變化，並根據其模擬情況，作相對應之設計變更，並比較各設計之品質特性的好壞。
為了使模擬具有系統性與高效率的分析，在此將會引進田口設計法，首先需要先選擇出影響重要的因子與變動的水準數，並選擇合適的田口直交表對其系統做模擬分析，最後再選出其達到目標的理想機能，本研究目標為縮小cell之間的溫度差異性，是為望小的機能。再根據田口設計表所模擬出的結果，計算其品質特性，並比較其各因子對其品質特性影響的程度，選出其最佳化之設計，以期望能縮小各流道之間cell溫度差。

Before the producing process of solar cells is completed, an illuminating oven will be applied to illuminate and heat solar cells to decrease the extent of cells’ degradation and make cells’ performance be more stable. Currently, due to the design of illuminating oven, it leads to solar cells can’t be simultaneously heated to the same temperature in an illuminating oven. The purpose of this research is to heated solar cells to the same temperature, so new mechanisms are designed to reduce the temperature difference between cells. First, the temperature is defined difference as a performance index to determine the design is good or not. Second, using ANSYS FLUENT software simulates the original designs of mechanisms. Third, based on the simulation results above, the new mechanisms are designed to improve the performance. The mechanism designs divide into shutters design and adding short lamps. In the design of shutters, the geometry, angle and pitch of shutters are all changed to influence flow field which decreases the temperature difference between cells. In the design of adding short lamps, using Taguchi methods assists the design of short lamps. Through adjusting short lamps’ power and positions, the lowest temperature of cells is increased to the same temperature as other cells. Through the new mechanism designs, the max temperature difference decreases from 110oC to 41.25oC.

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