隨著研究發展，不同建築類型有各自適合的主要環境控制策略，像是辦公空間的空調系統與住宅的自然通風，但工業廠房有其特殊性。
根據廠房作業環境的狀態分類，本研究的研究範圍為折衷環境類型的工廠建築。此類型廠房環境尚有改善的可能性，通常包含中低密度的作業人員以及散發餘熱的機械等等，使用空調系統的效益不佳，普遍會採用強制通風來達到熱舒適。
根據本研究的模擬結果顯示，主導整體有效風速範圍比例的是無效風速中的過小風速區間，而過大風速區間的比例甚微，整體而言都在5%以下，甚至有90%的模擬結果落在1%以下。因此調高風速是非常有效的策略，但風速並不能無上限的增加有效風速範圍的比例，相反的，當氣流強到一定的程度時有效風速範圍的比例即開始下降，檢視模擬結果發現此現象是由於氣流彼此碰撞、抵銷，反而導致了有效風速範圍的比例減少。達到風速的效益上限後，想要更進一步提升有效風速範圍就要靠整體的策略設計，其中又以接駁扇的配置最具影響。
透過適當的設計調整，整體有效風速範圍比例可以達到倍率的差異，在15m跨距與30m跨距的模擬結果中可以看到，Case 0與Case 14在0-2m的分析範圍內的有效風速比例差了61.5%與61.1%，若是將空間配置進一步安排，將無效區域設置為機具設備區或儲藏區，則有機會再往上提升有效區域的比例。

In Taiwan's industrial architecture, indoor environments can be categorized into three types: Precisely Controlled Environments (PCE), Austere Environments (AE), and Eclectic Environments (EE). Traditional industries like footwear, textile, or light metal processing usually employ forced ventilation to improve indoor thermal comfort in their EE spaces. This study explored the use of negative pressure fans to enhance the thermal environment in a large-span factory.
The research involved an experimental study to validate the simulation result of computational fluid dynamics (CFD). A case study was also conducted in an actual factory, and the design strategies for fan installation were provided through simulation studies.
With appropriate design adjustments, the effective wind velocity ratio showed a significant difference of 61.5% and 61.1%. If the space configuration is further arranged, and the invalid area is transformed into equipment or storage space, it may be possible to increase the proportion of the effective area even further.

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