近年來，擴增實境裝置的發展十分的迅速，由擴增實境而衍生的混和實境更是帶來了相較於擴增實境更好的視覺化體驗。但在營建施工階段，因為施工環境而造成建築資訊模型(Building Information Modeling，BIM)貼合於施工環境的定位問題，導致此一應用的數量甚少。因此本研究主要利用SLAM-based頭戴式混和實境(Mixed Reality，MR)裝置，實作於施工場地使用之BIM室內施工進度視覺化管理系統。而在其中將會比較頭戴式裝置與本研究室先前研究所使用的手持式AR裝置，在使用SLAM技術上將BIM貼合於施工現場的成果差別，並提出在施工場地如何達成較好的裝置定位與貼合的空間特徵點掃描模式。在模型貼合完成之後，使用專案管理生產環境中常用的規劃、管理及控制軟體Oracle Primavera P6規劃施工進度，將營建進度管理概念帶入本系統，並於頭戴式MR裝置中視覺化回饋呈現各種施工進度資料的視覺化模式，如單一構件進度與整體構件進度等等。此外亦將遠端協作模式帶入本系統，使進度管理人員不必親臨現場，僅需熟悉使用頭戴式MR裝置之操作人員使用本系統，進度管理人員便可在中控中心管理各工地的施工進度。

With the development of Augmented Reality (AR), Mixed Reality (MR) that derived from AR has brought better visual experience than AR. However, in the construction phase, Building Information Modeling (BIM) positioning problems are due to the construction environment, resulting in a small number of such applications. Therefore, this research mainly uses a SLAM-based head-mount MR device to implement an indoor BIM visualized construction progress management system. In it, will compare the result of MR device using SLAM to positioning in the construction site to handheld AR device used for this laboratory’s previous research. Then proposes how to achieve better device positioning and spatial feature point scanning mode. After positioning the BIM model, use the commonly used planning, scheduling, controlling software, Oracle Primavera P6, to plan the construction schedule, bring the concept of construction schedule management into this system. Then present visual feedback in MR device with various visualization modes of construction progress data, such as single and overall component progress. In addition, bringing remote collaboration mode into this system, so that only the person on-site who is familiar with using MR device with this system is needed, the schedule manager can manage each site’s schedule in the central control center.

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