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研究生: 阮成忠
Nguyen, Thanh-Trung
論文名稱: 建構營建虛實整合環境 —以工程施作為例
The Framework of Developing the Cyber-Physical Environment for Construction Operations
指導教授: 馮重偉
Feng, Chung-Wei
學位類別: 碩士
Master
系所名稱: 工學院 - 土木工程學系
Department of Civil Engineering
論文出版年: 2023
畢業學年度: 111
語文別: 英文
論文頁數: 93
中文關鍵詞: BIM原件ID點雲資訊模型BIM結合點雲點雲可視化
外文關鍵詞: BIM Element ID, Point cloud information model, BIM-point cloud integration, Point cloud visualization
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  • Although existing research primarily utilizes 3D simulation models, the limitations of reality visualization persist. To address this matter, this study proposes combining Building Information Modeling (BIM) and point cloud data to establish a more comprehensive and accurate digital environment, thereby reducing the gap between virtual models and the real point cloud of the construction site. The developed framework facilitates the integration of BIM with point cloud data, enabling the creation of a complete and precise model suitable for simulating construction site realities.
    This research firstly categorized the engineering information according to Industry Standards, aiding engineers in identifying necessary information for specific construction tasks and selecting relevant information for modeling in BIM tools. Then, the process for creating BIM models tailored to specific purposes is elucidated, encompassing geometry creation and information determination based on different Levels of Development. Next, to establish a connection between point cloud data and engineering information, an Element ID is introduced as a point cloud property linking the point cloud data with a database; the alignment method unifies diverse point cloud coordinate systems. Finally, when imported into a virtual environment, the resulting point cloud model incorporates information, thus becoming a point cloud information model.
    The combined point cloud is visualized in Unity to demonstrate the framework's capabilities. This serves as evidence of the framework's feasibility and effectiveness in creating a simulated environment that combines BIM information and point cloud data. Each point cloud element can connect to the database containing task-relevant information, such as the paint material, element relationships, etc. This can aid an implemented robot to automate the navigation and its behavior.

    ABSTRACT I ACKNOWLEDGMENTS II TABLE OF CONTENTS III LIST OF TABLES VII LIST OF FIGURES VIII 1. INTRODUCTION 1 1.1. Background 1 1.2. Objectives 3 1.3. Research Procedure 3 1.4. Research Scope 5 1.5. Thesis Structure 5 2. PROBLEM STATEMENT AND LITERATURE REVIEW 7 2.1. Problem Statement 7 2.2. Cyber-Physical System (CPS) 8 2.2.1. The Cyber-Physical System Architecture 8 2.2.2. The Cyber-Physical System for Construction Simulation 9 2.3. Building Information Modeling (BIM) 12 2.3.1. BIM as the Cyber Component of CPS 12 2.3.2. BIM for Construction Simulation 13 2.3.3. BIM Information Requirements 14 2.3.4. Information Extraction 17 2.4. Point Cloud Data 19 2.4.1. Point Cloud Data as the Physical Component of CPS 19 2.4.2. Point Cloud Information Model 20 2.4.3. Point Cloud for the Construction Simulation 22 2.5. Integration between the BIM and Point Cloud 26 2.6. Summary 27 3. RESEARCH METHODOLOGY 29 3.1. Building Information Modelling (BIM) 30 3.1.1. Element Identification 31 3.1.2. Level of Development (LOD) 31 3.1.3. Information Extraction Method 34 3.2. Point Cloud Data 38 3.2.1. Scanning Equipment 38 3.2.2. Synthetic BIM-based Point Cloud 39 3.2.3. Point Cloud Properties 40 3.2.4. Multiple Point Cloud Alignment Method 41 3.3. Data Storage Format and Tool 45 3.3.1. Data Transformation 45 3.3.2. Relational Database Tool 46 3.4. Virtual Environment 47 4. DEVELOPMENT OF CYBER-PHYSICAL SYSTEM 49 4.1. Research Framework 49 4.2. Development of the BIM for a Cyber-Physical Environment 51 4.2.1. BIM Creation Process 51 4.2.2. Level of Development (LoD) 52 4.2.3. Engineering Information Categories 54 4.2.4. Information Database 61 4.3. The Point Cloud Quality Requirements 63 4.4. Development of the BIM-Point Cloud Integration Method 66 4.4.1. Coordinates System 66 4.4.2. Geometry Alignment Method 67 4.4.3. Point Cloud Processing 68 4.4.4. Information Alignment Method 72 5. CASE STUDY 73 5.1. Case Study Description 73 5.2. Framework Implementation 73 5.2.1. Developing BIM according to uses 73 5.2.2. Engineering Information Database 79 5.2.3. Environment Scanning 80 5.2.4. BIM-Point Cloud Data Integration Process 81 5.2.5. Implementation Result 84 6. CONCLUSIONS AND SUGGESTIONS 87 6.1. Conclusions and Discussions 87 6.2. Future Works 88 7. REFERENCES 89

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