簡易檢索 / 詳目顯示

研究生: 李康勁
Lee, Hong-Keng
論文名稱: 依據設計、施工及維護資訊需求建構機電工程BIM資訊整合模型及資料庫系統之研究
The Study of Developing the BIM-Based MEP Model and Database System according to the Information Needs within Design, Constructability and Maintenance Phases
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: 2011
畢業學年度: 99
語文別: 中文
論文頁數: 82
中文關鍵詞: 機電系統建物資訊模型IFC
外文關鍵詞: MEP Systems, Building Information Modeling, Industry Foundation Classes
相關次數: 點閱:90下載:14
分享至:
查詢本校圖書館目錄 查詢臺灣博碩士論文知識加值系統 勘誤回報
  • 建築專案主要是由結構、建築和機電三大部分所組成,隨著人們對生活品質的要求逐漸提升,不斷改善建築環境的舒適度與便利性,使得現代建築之機電系統設計與施工漸趨複雜化。在實務上,由於機電系統種類繁多,專業知識較不易為其他工種所了解,為解決設計或施工上界面整合的問題,必需透過不斷重複的溝通與協調,然而,由於缺乏有效的電腦輔助工具,在設計或施工衝突的檢核與協調上,往往需要耗費大量人力、時間。
    因此,本研究從機電系統的資訊處理著手,以IFC-based 之建物資訊模型(BIM)為基礎,在3D視覺模擬的平台上,建立可整合多面向資訊之MEP(Mechanical, Electrical, and Plumbing)資訊模型,以作為機電系統在規劃設計或施工作業上的資訊整合核心。在作法上,本研究透過與MEP業者訪談、參與協調會議、工地調查、研讀相關文獻以及規範限制等方式,分析機電系統於生命週期各階段之資訊處理程序與需求,依此建立機電圖形元件之標準屬性架構,並藉由BIM(Building Information Modeling)技術,於Autodesk Revit MEP建模平台上,進一步延伸圖形元件之標準屬性內容,使其可充分描述機電系統之多面向屬性資料,以滿足專案計劃與施工管控之資訊需求。
    本研究針對機電系統解析其工程作業之資訊需求,其中包括給排水系統、消防系統、強電系統、弱電系統、空調系統與特殊管路系統,而所延伸之資料屬性架構可分為設計面向、階層面向、施工行為面向以及營運與維護面向。設計面向之資訊屬性用以確認機電系統能滿足規範及其功能性,其中包括元件的功能、材料、成本、支撐系統、絕緣外層之材料及厚度、間距、排水坡度、壓力等;階層面向屬性用以敘述各元件空間層級資料,將管件、設備等機電元件準確分配至適當之存放及施工地點,提高物料分配的準確度,進而避免多次的採購、查驗與吊裝作業,提高專案進行的效率;施工行為面向確保其施工性,讓工地施工更流暢而有效率,其資訊屬性包括管線及設備之所需安裝空間、作業順序、訂貨交付時間等;運作與維護資訊屬性則具備了降低運作及維護成本及維修的困難性的功能,其中包含設備元件的維修空間需求及頻率等。
    以此多面向資料屬性架構為基礎,藉由BIM技術所建構之機電系統資訊整合模型,可滿足專案計劃與施工管控之資訊需求,此模型可應用於(1)提供工程人員準確的2D或3D結構機電整合界面圖,(2)統計各樓層各空間所需元件,做為物料管理之依據,(3)協助機電系統與建築、結構系統之衝突檢核,(4)以設備與管路維護頻率,計算其維護日期,(5)設備與管路維護所需空間,提供施工人員做為參考預留維護空間…等。經案例驗證顯示,藉由BIM技術所建構之資訊整合資料庫系統,能協助工程人員在數量計算、預算成本編列、物料管理以及維護與管理等作業,能有效提升資訊處理與整合的一致性與效率。

    Construction project contains structure, architecture, and MEP (Mechanical, Electrical, and Plumbing), MEP systems become more complex in order to improve the environment and convenience of building. MEP systems contain a lot of components, and its knowledge is very specialized, therefore, Engineers and workers always need to spend a lot of human resources and time on coordination process.
    Therefore, this research develops a BIM-Based MEP Model based on Industry Foundation Classes (IFC) with 3D visual simulation platform, to incorporate multi-aspects of construction information required for project planning. This research analyzes processing procedures and requirements in various stages of the life cycle of MEP systems. Then, extent the properties set of MEP components based on requirements of information, in order to satisfy the information needs of project planning and control of construction.
    The framework of extended attributes can be divided into four aspects, includes geometric, containment hierarchy, construction behavior, operation and maintenance. Attributes set of geometric aspect meet the regulation and function of MEP systems, attributes set of containment hierarchy to describe the hierarchy information of each component, attributes set of construction behavior to fulfill its constructability, finally, attributes set of operation and maintenance can reduce costs and difficulties of maintenance.
    BIM-Based MEP Model of this research can satisfy the information needs of project planning and control of construction, it help engineers on quantity survey, calculate budget cost, resource management, operation and maintenance.

    摘要 I Abstract III 誌謝 IV 目錄 V 圖目錄 VII 表目錄 IX 第一章 緒論 1 1.1 研究背景與動機 1 1.2 研究目的 2 1.3 研究範圍 2 1.4 研究方法、步驟與流程 3 1.5 論文內容與架構 4 第二章 文獻回顧 6 2.1機電工程作業 6 2.2 建築資訊模型(BIM) 13 2.3 建築資訊模型於機電領域的應用 15 2.4 小結 17 第三章 研究方法 18 3.1 資訊需求解析 18 3.2 Autodesk Revit MEP 20 3.3 Revit DB Link 21 3.4 資料庫管理系統 24 3.5 小結 26 第四章 機電工程資訊整合模型之建構 27 4.1 機電系統介紹 27 4.2 使用者對於機電工程作業資訊需求 29 4.2.1 設計階段資訊需求 29 4.2.2 施工階段資訊需求 34 4.2.3 營運與維護階段資訊需求 36 4.3 機電圖形元件各面向屬性資料定義 37 4.3.1 幾何面向屬性資料 38 4.3.2 階層面向屬性資料 39 4.3.3 施工行為面向屬性資料 41 4.3.4 營運與維護面向屬性資料 43 4.4 機電工程資訊整合模型之建構 43 4.4.1 機電工程資訊處理程序 43 4.4.2 機電圖形元件屬性資料表 44 4.4.3 機電工程資訊整合模型建構程序 49 4.5小結 50 第五章 機電工程資訊整合資料庫系統之功能介紹與案例分析 51 5.1機電工程資訊整合模型與資料庫案例建構 51 5.2 機電工程資訊整合資料庫系統開發與功能說明 52 5.2.1 數量計算與統計 53 5.2.2 預算成本編列 56 5.2.3 物料管理 58 5.2.4 營運與維護管理 61 5.3小結 63 第六章 結論與建議 64 6.1 結論 64 6.2 未來研究方向與建議 65 參考文獻 66 附錄A 詳細屬性資料表 70 附錄B 訪談對象背景資料 74 附錄C 機電工程常用文件與報表 75 自述 82

    英文部分
    [1] Baker, G. E., Miller R., and Miller M. R., Miller's guide to home plumbing., McGraw-Hill, New York, (2005).
    [2] Barison, M. B. and Santos, E.T., An overview of BIM specialists, Computing in Civil and Building Engineering, Nottingham, (2010).
    [3] Echeverry, D., Ibbs, C. W., and Kim, S., “Sequencing Knowledge for Construction Scheduling”, Journal of Construction Engineering and Management, 117(1), 118-130, (1991).
    [4] Hergunsel, Mehmet Fuat, “Benefits of Building Information Modeling for Construction Managers and BIM Based Scheduling”, Master Thesis, Worcester Polytechnic Institute, Worcester, MA, (2011).
    [5] Horman, M. J., Orosz M. P., and Riley, D. R., “Sequence Planning for Electrical Construction”, Journal of Construction Engineering and Management, 132(4), 363-372, (2006).
    [6] Jeffrey A. Hoffer, Joey F. George, Joseph S. Valacich, “Modern System Analysis and Design”, Pearson Education International, (2008).
    [7] Joyce, M., Residential construction academy :plumbing., Delmar Learning, Clifton Park, NY, (2005).
    [8] Korman, T. and Tatum, C., “Development of a Knowledge-Based System to Improve Mechanical, Electrical, and Plumbing Coordination”, CIFE Technical Report, No129, Stanford University, Stanford, CA, (2001).
    [9] Korman, T. M., Fischer, M. A., and Tatum, C. B., “Knowledge and Reasoning for MEP Coordination”, Journal of Construction Engineering and Management, 129(6), 627-634, (2003).
    [10] Korman, T. M. and Tatum C. B., “Prototype Tool for Mechanical, Electrical, and Plumbing Coordination”, Journal of Computing in Civil Engineering, 20(1), 38-48, (2006).
    [11] Korman, T. M., Lonny, S., and Elbert, S., “Using Building Information Modeling to Improve the Mechanical, Electrical, and Plumbing Coordination Process for Buildings”, Proceedings of the AEI conference, ASCE, (2008).
    [12] Khanzode, A., Fisher, M., and Reed, “Benefits and Lessons Learned of Implementing Building Virtual Design and Construction (Vdc) Technologies for Coordination of Mechanical, Electrical, and Plumbing (Mep) Systems on a Large Healthcare Project”, ITcon, 13, 324-342, (2008).
    [13] McFarland, Jessica E, “Building information modeling for MEP”, K-State Electronic Theses, Dissertations, and Reports, (2007).
    [14] Miller, R., Miller M. R., and Baker G. E., Miller's guide to home wiring.,: McGraw-Hill, New York, (2005).
    [15] Mikati, S., Roller, T. G., Tommelein, I. D., Khanzode, A., “Priority Conversations: A Case Study on Priority Walls”, Proceedings of IGLC-15, Michigan, USA, July, (2007).
    [16] McDowall and Robert, Fundamentals of HVAC systems :SI edition., American Society of Heating: Refrigerating and Air-Conditioning Engineers eLearning., Atlanta, (2007).
    [17] Ning Gu, Kerry London, “Understanding and facilitating BIM adoption in the AEC industry”, Automation in Construction, 19, 988-999, (2011).
    [18] Salman Azhar, “Building Information Modeling (BIM): Trends, Benefits, Risks, and Challenges for the AEC Industry”, American Society of Civil Engineers, Reston, (2011).
    [19] Stein, B., Building technology :mechanical and electrical systems. 2nd ed., J. Wiley, New York, (1997).
    [20] Staub, S., and Fischer, M., “Industrial Case Study of Electronic Design, Cost, and Schedule Integration”, CIFE Working Paper, No122, Stanford University, Stanford, CA, (1998).
    [21] Steffy, G., Architectural lighting design., John Wiley, New York, (2002).
    [22] Sorge, H.W., Residential wiring :an introductory approach. 2nd ed., Thomson Delmar Learning, Clifton Park, NY, (2005).
    [23] Staub-French, S. and Khanzode A., “3D and 4D modeling for design and construction coordination: issues and lessons learned”, ITcon, 12, 381-407, (2007).
    [24] Smith, D. and Tardif, M., Building Information Modeling: A strategic implementation guide for architects, engineers, constructors, and real estate asset managers., John Wiley & Sons, Hoboken, (2009).
    [25] Smith, L. and Joyce M.A., Plumbing technology :design and installations., Thomson/Delmar Learning, Australia, (2008).
    [26] Tatum, C.B. and Thomas, K., “Coordinating Building Systems: Process and Knowledge”, Journal of Architectural Engineering, 6(4), 116-121, (2000).
    [27] Tao, Y. W. K., and Janis R.R., Mechanical and Electrical Systems in Buildings., Prentice Hall, Columbus, (2001).
    [28] Trost, J. and Choudhury I., Design of mechanical and electrical systems in buildings., Pearson/Prentice Hall, Upper Saddle River, (2004).
    [29] Tatum C. B. and Korman T., “MEP Coordination in Building and Industrial Projects”, CIFE Working Paper, No54, Stanford University, Stanford, CA, (2006).
    [30] Y. Arayici, P. Coates, L. Koskela M. Kagioglou C. Usher, K. O'Reilly, “Technology adoption in the BIM implementation for lean architectural practice”, Automation in Construction, 20, 189-195, (2011).
    [31] Youngsoo Jung, Mihee Joo, “Building information modelling (BIM) framework for practical implementation”, Automation in Construction, 20, 126-133, (2011).

    中文部分

    [1] 李如貴,「公寓大廈水電消防維護管理實務」,永然文化,2004。
    [2] 李冠文,「建構符合機電包商施工需求之3D繪圖元件模型之研究」國立成功大學土木工程研究所,碩士論文,2009。
    [3] 李政憲,「高層集合住宅建築與設備介面之整合」,營建自動化計畫成果報告,1995。
    [4] 郭斯傑,黃契介,吳俊達,「建築工程施工作業空間規劃與衝突分析流程之研究」,中國土木水利工程學刊,489-501,2002。
    [5] 郭斯傑,「機電設備之變更設計對建築工程總完工期程之分析與影響 (1/2)」,行政院國科會專題研究計畫期中報告 (NSC-2211-E-002-089),2003。
    [6] 郭斯傑,「機電設備之變更設計對建築工程總完工期程之分析與影響 (2/2)」,行政院國科會專題研究計畫期中報告 (NSC-2211-E-002-080),2004。
    [7] 郭斯傑,陳曉晴,詹慕祖,「建築工程中機電設備施工排序之研究」,建築學報,45,121-141,2004。
    [8] 陳天來,「水電工程施工與監造實務」,詹氏,1996。
    [9] 陳志泰,「水電工程圖面估算實務」,詹氏,1996。
    [10] 詹慕祖,「機電工程變更設計對工期的影響」,國立臺灣大學土木工程研究所,碩士論文,2000。
    [11] 戴期甦、陳曉晴、郭斯傑,「建築工程機電系統施工界面整合之探討」,建築學報,2007。
    [12] 陳怡兆,「專案資訊整合模型之建構與專案管理資訊系統之應用」國立成功大學土木工程研究所,博士論文,2009

    網站資料
    [1] CIFE Technical Reports , CIFE, 2007. http://cife.stanford.edu/Publications/index.html
    [2] 公共工程綱要編碼,公共工程委員會,2007。http://www.pcc.gov.tw

    下載圖示 校內:立即公開
    校外:2021-01-01公開
    QR CODE