隨著科技生活的變化使一般建築和科技廠房等工程之機電系統設計為配合上科技趨勢於設計上愈來愈複雜。機電系統複雜之專案如飯店、生物科技廠、電子廠、醫院等，其機電工程管線複雜度高，因此機電系統整合上的難度提高，於機電工程中整合不完全影響實際施工，例如:管線碰撞，而目前透過BIM(Building Information Modeling)技術輔助機電系統整合，但於實際機電工程施工上還是常發生許多施工問題，原因在於BIM於機電系統整合與實際施工需求並不相符合，整合人員沒有施工人員之施工知識，導致模型管線路徑等雖符合功能需求卻不符合施工需求，且機電工程施工人員施工習慣等問題，也會影響實際施工結果，因此為改善設計整合因素與人為施工因素，本研究透過解析機電工程實際施工問題及資訊來改善BIM為考慮實際施工建置及整合問題，並透過機電模組化施工來降低人為施工因素，機電模組化施工主要透過將機電系統於工廠組合成區塊，將這些區塊於現場進行組裝，這樣的方式減少人力需求、提高施工效率和施工品質等，因此需透過解析機電模組化施工與傳統機電工程施工上的流程及資訊差異，來了解機電模組化施工之資訊需求，且考慮到施工者的施工需求，因此解析機電模組化施工之施工者資訊需求，最後發展符合機電模組化施工之BIM建置規則，規則中包含建置架構及流程，使此BIM模型包含BIM模組化施工所需資訊及施工者所需的施工資訊，並進行應用，提供機電工程準確的施工資訊及材料資訊。

As the complexity of MEP increased, the way of traditional MEP system’s integration which required coordination and communication of different levels as well as carried out integration through manual methods, could led to problems during on-site construction. Some contractors used BIM technology to assist MEP system’s integration, but they did not consider about the actual circumstances on site. Which ended up although the errors of integration had been reduced, it couldn’t be fully applied to the site construction. Besides, it is often because of workers did not follow the drawings or problems such as making corrections based on workers’ own experiences, both led to the result of the differentiation between construction and designing. Therefore, the MEP module which was used abroad would assemble the components in blocks in the factory to reduce the number of on-site assemblies, improving work efficiency and creating a safe-working environment. This research analyzed the problems during MEP construction and the information required for MEP modular construction. And developed a BIM model construction framework as well as process that conformed to MEP modular construction. Improving the application of BIM models to MEP construction problems and making the model accurately apply to MEP modular construction, while providing practically needed information to constructors and MEP modular construction.

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