| 1,718 | 26 | 914 |
| 下载次数 | 被引频次 | 阅读次数 |
针对目前水利工程施工阶段工程建管平台功能设置与行业联系不紧密、工程参建各方业务彼此孤立、三维可视化场景功能单一及加载速度慢、 BIM与其他技术手段结合较弱等问题,提出了以Cesium.js+Three.js前端融合框架为基础,以任务流程为主线,采用BIM+GIS+IoT技术搭建符合行业内功能特色的建管平台开发技术路线。以北京市密云水库改造消隐工程为实施点,自主研发了包含四级架构、三大模块、12大功能点的基于BIM的工程建设管理平台,实现了以工程参建各方协作流程为主线的工程建管模式,充分融合扩展了BIM+GIS+IoT的核心技术应用。该平台目前已经上线使用,通过各参建方协同、工程资料档案管理、进度/质量管理及物资码、智慧工地、VR等可视化应用,提升了工程建设管理效率,确保了工程按时按质完成,降低了20%的人力成本。相对于其他平台,BIM+GIS+IoT+VR融合度高,可视化场景应用点及交互效果丰富,在采用Cesium.js与Three.js融合的前端框架下,加载速度提高了50%以上,在实际工程中发挥了巨大的实用作用。
Abstract:Aiming at the problems that the function setting of project construction management platform is not closely related to the relevant sectors, the professional work of all parties involved in the construction of the project are isolated from each other, the function of 3-D visualized scene is single with slow loading speed, BIM is weakly combined with other technical means, etc., a developing technical route for building up a construction management platform conforming to the functional features in the sector with the technique of BIM+GIS+IoT is proposed herein through taking Cesium.js+Three.jsfront-end fusion framework as the basis and the task process as the principal line. Taking Miyun Reservoir Reconstruction and Hidden Hazard Elimination Project in Beijing as the implementation point, a BIM-based project construction management platform including four level architectures, three modules and 12 function points is independently developed, and then the project construction management mode with the collaboration process of all parties involved in the construction of the project as the main line is realized, which fully integrates and expands the application of the core technique of BIM + GIS + IOT. At present, the platform is already used online. Through the collaboration of all participants, project data and file management, progress and quality control, the visualized applications of material code, smart construction site, VR, etc., the efficiency of the project construction management is improved, thus ensures that the project is completed on time and with quality along with the reduction of labor cost of 20%. Compared with the other platforms, the fusion degree of BIM+GIS+IoT+VR is high with rich application points and interactive effects of visualized scenes, of which the loading speed is increased by more than 50% under the front-end framework of JS integration, and then a great practical role is played in the actual construction project.
[1] 刘志明,刘辉.现阶段对水利工程信息化发展的思考[J].水利规划与设计,2021(10):1-4.LIU Zhiming,LIU Hui.Reflections on the development of informatization of water conservancy projects at the present stage[J].Water Resources Planning and Dsign,2021(10):1-4.
[2] 刘辉,方国材.水利行业信息化现状与发展概述[J].水利建设与管理,2021,41(8):81-84.LIU Hui,FANG Guocai.Overview of water conservancy industry information status and development[J].Water Conservancy Construction and Management,2021,41(8):81-84.
[3] 谭勇,王敬锋.水利设计信息化的现状分析和发展策略[J].工程建设与设计,2021(3):90-92.TAN Yong,WANG Jingfeng.Current situation analysis and development strategy of water conservancy design[J].Construction & Design for Project,2021(3):90-92.
[4] 荣德剑.水利工程施工管理信息化应用[J].河南水利与南水北调,2020,49 (7):83-84.RONG Dejian.Informatization application of water conservancy project construction management[J].Henan Water Resources & South-to-North Water Diversion,2020,49 (7):83-84.
[5] 李小龙.基于信息化技术的智慧水利应用及其发展研究[J].智能城市,2020,6(16):161-162.LI Xiaolong.Research on application and development of smart water conservancy based on information technology[J].Intelligent City,2020,6(16):161-162.
[6] 高英.“BIM+”跨界应用开拓智慧水利[J].水利规划与设计,2017(9):154-157.GAO Ying."BIM+" cross-border application develops smart water conservancy[J].Water Resources Planning and Dsign,2017(9):154-157.
[7] 王智阳.BIM技术在三河口水利枢纽智能建造中的应用[J].人民黄河,2021,43(2):142-146.WANG Zhiyang.Application of intelligent construction based on BIM technology in Sanhekou water conservancy project[J].Yellow River,2021,43(2):142-146.
[8] KROPP C,KOCH C,K?NIG M.Interior construction state recognition with 4D BIM registered image sequences[J].Automation in Construction,2018,86:11-32.
[9] HEATON J,PARLIKAD A K,SCHOOLING J.Design and development of BIM models to support operations and maintenance[J].Computers in Industry,2019,111:172-186.
[10] 张轩.基于BIM技术的铁路隧道正向设计研究[J].铁道勘察,2020,46(1):103-107.ZHANG Xuan.Research on forward design of railway tunnel based on BIM technology[J].Railway Investigation and Surveying,2020,46(1):103-107.
[11] 李纯,庞思雨.基于BIM的参数化设计策略研究[J].铁道勘察,2020,46(1):117-122.LI Chun,PANG Siyu.Research of parametric design strategies based on BIM technology[J].Railway Investigation and Surveying,2020,46(1):117-122.
[12] HAN D,KALANTARI M,RAJABIFARD A.Building Information Modeling (BIM) for construction and demolition waste management in Australia:A Research Agenda[J].Sustainability,2021,13:12983.
[13] 蒯鹏程,赵二峰,李培聪,等.基于BIM的水利水电工程全生命周期管理研究[J].水电能源科学,2018,36(12):133-136.KUAI Pengcheng,ZHAO Erfeng,LI Peicong,et al.Research on the whole life cycle management of water conservancy and hydropower projects based on BIM[J].Water Resources and Power,2018,36(12):133-136.
[14] 严沾谋,李希龙,王正清,等.BIM+GIS技术在水利枢纽工程全生命周期的应用[J].水利规划与设计,2018(11):127-129.YAN Zhanmou,LI Xilong,WANG Zhengqing,et al.The application of BIM+GIS technology in the whole life cycle of water conservancy project[J].Water Resources Planning and Dsign,2018(11):127-129.
[15] 陈丽芳.主流BIM平台在水利工程设计施工中的应用研究[J].人民长江,2021,52(2):128-131.CHEN Lifang.Research on the application of mainstream BIM platform in the design and construction of water conservancy projects[J].Yangtze River,2021,52(2):128-131.
[16] 陈文亮,王良,王成,等.BIM 技术在水利工程施工中的应用[J].水利技术监督,2021(6):43-44.CHEN Wenliang,WANG Liang,WANG Cheng,et al.Application of BIM technology in hydraulic engineering construction[J].Techenical Supervision in Water Resources,2021(6) :43-44.
[17] 刘懿韬.BIM技术发展及其在水利工程中的应用[J].水利规划与设计,2019(10):64-66.LIU Yitao.BIM technology development and its application in hydraulic engineering[J].Water Resources Planning and Dsign,2021(10):64-66.
[18] 郭光智,王佳,李罗刚.BIM 技术在水利建设中的应用和发展前景[J].水利规划与设计,2021(10):7-10.GUO Guangzhi,WANG Jia,LI Luogang,et al.Application and development prospect of BIM technology in water conservancy construction[J].Water Resources Planning and Dsign,2021(10):7-10.
[19] 陈科,张力,管林杰,等.考虑几何特征的BIM模型轻量化方法研究[J].人民长江,2022,53(2):209-213.CHEN Ke,ZHANG Li,GUAN Linjie,et al.Research on lightweight method of BIM model considering geometric features[J].Yangtze River,2022,53(2):209-213.
[20] 柳晴晓龙.基于水利工程BIM模型优化加载与交互技术研究[D].郑州:华北水利水电大学,2020.LIU Qingxiaolong.Research on Optimal Model Loading and Interaction Technology Based on Hydraulic Engineering BIM[D].Zhengzhou:North China University Of Water Resources And Electric Power,2020.
[21] 杜政,王海俊,谈震,等.基于IFC与WebGL的水利工程BIM轻量化应用研究[J].中国农村水利水电,2020(11):199-203.DU Zheng,WANG Haijun,TAN Zhen,et al.Research on the lightweight application of water conservancy project BIM based on WebGL and IFC[J].China Rural Water and Hydropower,2020(11):199-203.
[22] CHEN J,LUO Y,ZHANG H,et al.Quality evaluation of lightweight realistic 3D model based on BIM forward design[J].Computer Communications,2021,174(5):75-80.
[23] QUINN C,SHABESTARI A Z,MISIC T,et al.Building automation system-BIM integration using a linked data structure[J].Automation in Construction,2020,118:103257.
[24] 李瑛,林楚凌,惠建伟,等.邕宁水利枢纽一期临时土石围堰施工仿真及BIM可视化[J].中国农村水利水电,2020(5):92-102.LI Ying,LIN Chuling,HUI Jianwei,et al.Simulation of Construction and BIM Visualization for the 1st Stage Temporary Earth-rock Cofferdam of Yongning Water Conservancy Project[J].China Rural Water and Hydropower,2020(5):92-102.
[25] 徐瑞,叶芳毅.基于数字孪生技术的三维可视化水利安全监测系统[J].水利水电快报,2022,43(1):87-91.XU Rui,YE Fangyi.3D visualization water conservancy safety monitoring system based on digital twin technology[J].Express Water Resources & Hydropower Information,2022,43(1):87-91.
[26] 李可.基于BIM的水利枢纽施工多维信息可视化管理系统设计分析[J].水利技术监督,2021(3):37-40,132.LI Ke.Design and analysis of multi-dimensional information visualization management system for water conservancy project construction based on BIM[J].Techenical Supervision in Water Resources,2021(3):37-40,132.
[27] 张佩竹,青舟,付功云.BIM全生命周期管理平台三维引擎选型研究[J].铁道勘察,2021,47(1):114-118.ZHANG Peizhu,QING Zhou,FU Gongyun.Research on 3D engine selection of BIM lifecycle management platform[J].Railway Investigation and Surveying,2021,47(1):114-118.
[28] 文富勇.基于BIM+GIS的大坝安全监测信息可视化展示技术研究[J].水力发电,2021,47(3):94-97.WEN Fuyong.Research on Visual Display Technology of Dam Safety Monitoring Information Based on BIM + GIS[J].Water Power,2021,47(3):94-97.
[29] 刘万斌.基于BIM和GIS的三维建筑信息管理系统研究[D].郑州:华北水利水电大学,2019.LIU Wanbin.Research on 3D Building Information Management System Based on BIM and GIS[D].Zhengzhou:North China University Of Water Resources And Electric Power,2019.
[30] TANG L,CHEN C,LI H,et al.Developing a BIM GIS-integrated method for urban underground piping management in China:a case study[J].Journal of Construction Engineering and Management,2022,148(9):05022004.
[31] 罗海涛.基于“BIM+GIS”的运营城市轨道交通安全监测与评估[J].铁道勘察,2021,47(4):33-36.LUO Haitao.Research on safety monitoring and evaluation of urban rail transit based on “BIM+GIS”[J].Railway Investigation and Surveying,2021,47(4):33-36.
[32] 苏本谦,于德湖,孙宝娣,等.水利工程信息化与BIM+GIS融合应用的研究进展[J].青岛理工大学学报,2020,41(5):126-132.SU Benqian,YU Dehu,SUN Baodi,et al.Research progress of fusion application of hydraulic engineering informatization and BIM+GIS [J].Journal of Qingdao University of Technology,2020,41(5):126-132.
[33] 中华人民共和国水利部.智慧水利建设顶层设计[R].北京:中华人民共和国水利部,2021.Ministry of Water Resources of the People′s Republic of China.Top level design of smart water conservancy construction [R].Beijing:Ministry of Water Resources of the People′s Republic of China,2021.
[34] 高华,刘祾頠,吴祥龙.轨道交通站场BIM设计建模探索[J].铁道勘察,2021,47(1):124-127.GAO Hua,LIU Lingwei,WU Xianglong.Exploration of BIM design and modeling of rail transit station yard[J].Railway Investigation and Surveying,2021,47(1):124-127.
[35] 陈庆财,冯蕾,梁建斌,等.BIM模型数据轻量化方法研究[J].建筑技术,2019,50(4):455-457.CHEN Qingcai,FENG Lei,LIANG Jianbin,et al.Research on lightweight method of BIM model data[J].Architecture Technology,2019,50(4):455-457.
基本信息:
DOI:10.13928/j.cnki.wrahe.2022.11.004
中图分类号:TV51
引用信息:
[1]代进雄,蒋奇,俞锋,等.基于BIM的水利工程建设管理平台研究及应用[J],2022,53(11):37-49.DOI:10.13928/j.cnki.wrahe.2022.11.004.
基金信息:
国家重点研发计划项目(2016YFC0401404);; 北京市科技计划项目(Z161100004516015)
2022-04-12
2022
2022-04-14
2022
1