WO2020248266A1 - 建筑工程物联网信息管理系统 - Google Patents

建筑工程物联网信息管理系统 Download PDF

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WO2020248266A1
WO2020248266A1 PCT/CN2019/091383 CN2019091383W WO2020248266A1 WO 2020248266 A1 WO2020248266 A1 WO 2020248266A1 CN 2019091383 W CN2019091383 W CN 2019091383W WO 2020248266 A1 WO2020248266 A1 WO 2020248266A1
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construction
module
management module
management
information
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PCT/CN2019/091383
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胡永生
侯建群
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胡永生
侯建群
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Priority to PCT/CN2019/091383 priority Critical patent/WO2020248266A1/zh
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    • G06—COMPUTING; CALCULATING OR COUNTING
    • G06Q—INFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q10/00—Administration; Management
    • G06Q10/06—Resources, workflows, human or project management; Enterprise or organisation planning; Enterprise or organisation modelling

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  • the invention belongs to the construction management technology of construction projects, and specifically relates to a construction project Internet of Things information management system based on an Internet of Things platform to realize comprehensive intelligent management of the construction project.
  • the present invention provides a construction engineering Internet of Things information management system based on an Internet of Things platform, which integrates all building information and building volumes in one display unit by constructing a model processing unit of a lightweight visual model, with precise positions
  • the expressive ability improves the safety of the construction site of the construction project, can realize the closed loop of the information flow in the whole process of the construction project, realize the organic integration between the virtual information management and the physical environment hardware, and facilitate the management of multiple data during the construction process .
  • the present invention provides a construction engineering Internet of Things information management system, which is characterized in that the management system includes:
  • the model processing unit is used to analyze the original model of building information and building volume to generate a lightweight visualization model
  • the data management unit, the communication connection model processing module and the sub-management module is used to obtain the construction site monitoring data of the sub-management module and convert it into the display information of the lightweight visualization model;
  • Sub-management module including personnel and vehicle management module, safety management module, quality management module, construction equipment management module and material management module, used to obtain data and information of each node;
  • Display unit connected to the model processing unit, used to display lightweight visualization models and monitoring
  • the personnel and vehicle management module includes a radio frequency FRID module configured with personnel and a license plate identification module configured with the vehicle, and the radio frequency FRID module and the license plate recognition module are communicatively connected with the data management unit.
  • the security management module includes a video monitoring component that is distributed and communicatively connected, a patrol inspection unit, a human body infrared displacement sensor, and a sound and light alarm unit.
  • the material management module includes sensors and vehicle identification modules added to the weighing system, and a warehouse material information unit.
  • the construction equipment management module includes a tower base monitoring module, which is connected to the safety brake device and controls braking.
  • the sub-management module also includes an environmental monitoring and energy consumption module, a construction elevator monitoring unit, and a construction engineering video monitoring system.
  • the environmental monitoring and energy consumption module includes noise, dust, temperature, humidity, wind speed, wind direction, and sewage monitoring components in the construction environment, as well as online monitoring components for construction water and electricity consumption.
  • the construction elevator monitoring module includes a radio frequency FRID module installed in the elevator and the floor, and a personal information FRID module installed in the safety helmet.
  • the construction project video monitoring system includes monitoring equipment distributed on the construction site.
  • the construction engineering Internet of Things information management system obtains a lightweight visualization model through a model processing unit.
  • the lightweight visualization model can be analyzed using a computer using HIML5/WebGL technology to analyze the original model containing building information and building volume.
  • the model is obtained by lightweight processing on the browser side using WebGL technology.
  • the data management unit can obtain various monitoring data on the construction site, integrate the monitoring data into the lightweight model for visualization, and perform data processing and analysis on a unified IoT platform. After data analysis, hardware feedback and feedback to decision-making , To assist the on-site management of the project.
  • the geometric information in the original model can be exported into triangular one-sided graphic data in a common format, which has the following characteristics according to the order of the triangular faces
  • the rule of parameterization is to divide the network data into points on the surface that are all on the boundary line, and not all points on the surface are on the boundary line.
  • the points on the boundary are simplified, and for the second type of network data
  • the original network data is simplified from left to right and bottom to top layer by layer, and the model is redrawn and rendered in the browser or mobile terminal with WebGL technology, and the weight is lightened.
  • the data management unit Obtain various monitoring data of the construction site through the data management unit, integrate the monitoring data into the lightweight model to make it visible, export the geometric information in the original model into triangular and one-sided graphic data in a common format, and assemble the valuable model in the model
  • Information and attribute information are extracted for structured storage.
  • the attribute data of each building in the model is converted into three-dimensional structure data that can add information, and sensors, controllers, and equipment are added to the converted data platform.
  • the IoT information is updated to the data platform in real time.
  • the construction site data can be uploaded through the on-site management APP.
  • the naming rules built in the model are the same as the naming rules of the daily inspection parts on the on-site management APP to ensure that the quality management forms can be correlated with each other through the model parameters.
  • the anchor points on the model are displayed.
  • the data management unit is used to obtain various monitoring data on the construction site, integrate the monitoring data into the lightweight model to make it visible, and perform data processing and analysis on the same IoT platform, and perform hardware feedback after data analysis, and feedback to decision-making. To assist the on-site management of the project.
  • the personnel and vehicle management module adopts the radio frequency FRID module that is configured with the personnel to realize the attendance registration, qualification certification, three-dimensional visualization of on-site personnel distribution statistics and labor analysis for on-site workers.
  • the license plate recognition module can obtain the registration and automatic license plate recognition information of vehicles entering and leaving the construction site.
  • the video monitoring component of the safety management module can monitor key construction locations.
  • the patrol inspection unit uses the project patrol inspection APP to realize the patrol inspection route and inspection points are marked in the model, and the inspection data can be clicked and viewed in the model. , Realize the record of security on duty and attendance and daily safety of the project.
  • the human body infrared displacement sensor is arranged through the dangerous area of the scene. When a person approaches, the sound and light alarm is activated immediately, and the alarm information is integrated into the model, and the information is automatically relaxed for the relevant personnel to process.
  • the safety management module can also be equipped with a high mold deformation detection unit, which is used to install a flexible dual body deformation monitoring device on the high mold to monitor the deformation of the high mold in real time and provide danger warning.
  • the units of the quality management module can collect the on-site inspections and enter them into the on-site management APP, and upload them to the cloud platform in real time or offline.
  • the data is collected and displayed on the model to realize the informatized collection and management of on-site quality problems.
  • the load-bearing system installs sensors and license plate recognition cameras on the weighbridge on the construction site to automatically register, take photos, and upload data to the material vehicles, and realize data association in the cloud platform model to automatically form material entry reports.
  • the material management module can be constructed as a component material traceability unit to monitor the production, transportation, installation, and acceptance process of the main steel structure or assembly structure of the project.
  • the warehouse material information unit of the material management module pastes the two-dimensional code when the project materials enter the site, and scans the two-dimensional code for material extraction when the material is deployed.
  • the warehousing and deployment information is transmitted to the Internet of Things platform in real time and integrated into the model. Generate report of substance usage data.
  • the tower base monitoring module in the construction equipment management module monitors the boom elevation, rotation angle and load data of the tower base in real time.
  • the data is dynamically visible in the cloud platform model to realize the monitoring of the tower base collision prevention and safe load, and correlation Safe brake control.
  • the environmental monitoring unit in the environmental monitoring and energy consumption module can automatically monitor the construction site noise, dust, temperature, humidity, wind speed, wind direction, and sewage.
  • the data is dynamically displayed in the model and fed back to the water pump, spray dust reduction system, etc.
  • Automatic control equipment to realize real-time environmental monitoring and automatic management and control.
  • the energy consumption management unit is used to obtain the water consumption, electricity consumption and solid waste recycling amount in the construction process of the project, and real-time online monitoring, and realize the three-dimensional visualization and data analysis of the data on the model.
  • the construction elevator monitoring module uses the radio frequency FRID module, which can automatically count the elevator's floor and the number of operators in the elevator when the floor is stopped.
  • the RFID chip When the RFID chip is attached to each floor, the number of chips corresponds to the number of floors.
  • the RFID receiver in the elevator cage automatically counts the elevator's floor and the operator data in the elevator when the elevator stops, and integrates it into the model to visually display each floor of the site in the model The personnel distribution of the elevator, and real-time monitoring of the safe operation of the elevator load.
  • the construction engineering video monitoring system sets up monitoring equipment at important locations on the project construction site, marks the location of the monitoring equipment in the model, and clicks on the corresponding monitoring point in the model to view remote images on the WEB and mobile terminals.
  • the monitoring can be called and stored in real time.
  • the construction engineering Internet of Things information management system has many advantages. First, it has the ability to express the location of the Internet of Things. Each piece of Internet of Things information has a logo that expresses its three-dimensional information, making remote communication in the construction and operation and maintenance process more convenient. Smooth, more efficient remote office, more accurate decision-making. Secondly, it improves the safety of the project site construction.
  • the video monitoring system and the lightweight visualization model Through the linkage of the video monitoring system and the lightweight visualization model, it is more comprehensive and three-dimensional, the monitoring data of large equipment is more real-time and accurate, and the danger warning is more automatic and timely.
  • the Internet of Things technology can undertake the functions of underlying information perception, collection, transmission, and monitoring. Its integrated application with computer technology can realize the closed-loop information flow of the whole building process, realize the organic integration between virtual information management and physical environment hardware, and facilitate the management of multiple data in the building construction process.
  • the lightweight visualization model is the best carrier for the information of the engineering construction process. With the growth of the model and the physical building, the data has been accumulated in a large amount, realizing big data analysis, and improving business efficiency through data analysis, which is a lean transformation and green construction. Provide data support.
  • Fig. 1 is a schematic diagram of the composition framework of a specific embodiment of the present invention.
  • the construction project Internet of Things information management system is mainly composed of a display unit, a model processing unit, a data management unit and multiple management modules.
  • the display unit is connected to the model processing unit and is used to display the lightweight visualization model and monitoring data information.
  • the model processing unit is used to analyze the original model of building information and building volume to generate a lightweight visualization model;
  • the data management unit communicates with the model processing module and the sub-management module, and is used to obtain the construction site monitoring data of the sub-management module and convert it into light Display information of the quantity visualization model.
  • the sub-management module is used to obtain the data and information of each node, including personnel and vehicle management module, safety management module, quality management module, construction equipment management module, material management module, environmental monitoring and energy consumption module, construction elevator monitoring unit and construction engineering Video surveillance system.
  • the personnel and vehicle management module includes a radio frequency FRID module configured with personnel and a license plate identification module configured with the vehicle, and the radio frequency FRID module and the license plate recognition module are communicatively connected with the data management unit.
  • the safety management module includes a video monitoring component, a patrol inspection unit, a human body infrared displacement sensor, and an acousto-optic alarm unit that are distributed and communicatively connected.
  • the material management module includes sensors and vehicle identification modules added to the weighing system, and a warehouse material information unit.
  • the construction equipment management module includes a tower base monitoring module, which is connected to the safety brake device and brakes.
  • the environmental monitoring and energy consumption module includes noise, dust, temperature, humidity, wind speed, wind direction and sewage monitoring components of the construction environment, as well as online monitoring components for construction water consumption and power consumption.
  • the construction elevator monitoring module includes a radio frequency FRID module installed in the elevator and the floor, and a personal information FRID module installed in the safety helmet.
  • the construction engineering video monitoring system includes monitoring equipment distributed on the construction site.

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Abstract

建筑工程物联网信息管理系统，包括：模型处理单元，用于将建筑信息和建筑体量的原始模型进行解析生成轻量可视化模型；数据管理单元，通讯连接模型处理模块和子管理模块，用于获取子管理模块的施工现场监控数据并转化为轻量可视化模型的显示信息；子管理模块，包括人员车辆管理模块、安全管理模块、质量管理模块，施工设备管理模块和材料管理模块，用于获取各节点的数据和信息；显示单元，连接模型处理单元，用于显示轻量可视化模型和监控数据信息。其具备精准的位置表达能力，提高了建筑工程施工现场的安全性，能够实现建筑工程全过程的信息流闭环，实现虚拟信息化管理与实体环境硬件之间的有机融合，方便对建筑施工过程中多个数据进行管理。

Description

建筑工程物联网信息管理系统 技术领域
本发明属于建筑工程的施工管理技术，具体的涉及一种基于物联网平台实现建筑工程全面智能化管理的建筑工程物联网信息管理系统。
背景技术
当前，建筑施工项目存在体量大、施工工期端、工序穿插多、人员流动幅度大等难题，安全监管的难度较大。同时在监管过程中还由于涉及材料种类较多，吊塔、电梯等施工设备数据信息不全面并且不准确等等困难，前述的一个或几个问题的存在，导致无法满足节能减排和绿色施工的要求。而传统管理中使用人工去解决的方式成本高、效率低下，信息获取不及时，最终的管理效果并不理想。则迫切要运用信息化的手段去提质降耗，提高效率，让项目信息化，自动化下向智能化方向进展，实现智慧工地。
现有技术中，已经出现采用指纹门禁、红外线周界报警和视频监控系统等对建筑施工进行管理的应用，但仍然无法解决上述多个问题同时存在情况。同时人流、物料流和管理流无法实现有效的统一，数据信息分散，无法做到高效和智能化施工管理。
发明内容
本发明提供了一种基于物联网平台的建筑工程物联网信息管理系统，其通过构建轻量可视化模型的模型处理单元，将所有建筑信息和建筑体量集合在一个显示单元中，具备精准的位置表达能力，提高了建筑工程施工现场的安全性，能够实现建筑工程全过程的信息流闭环，实现虚拟信息化管理与实体环境硬件之间的有机融合，方便对建筑施工过程中多个数据进行管理。
本发明所采用的技术方案如下：
本发明提供了一种建筑工程物联网信息管理系统，其特征在于所述管理系统包括：
模型处理单元，用于将建筑信息和建筑体量的原始模型进行解析生成轻量可视化模型；
数据管理单元，通讯连接模型处理模块和子管理模块，用于获取子管理模块的施工现场监控数据并转化为轻量可视化模型的显示信息；
子管理模块，包括人员车辆管理模块、安全管理模块、质量管理模块，施工设备管理模块和材料管理模块，用于获取各节点的数据和信息；
显示单元，连接模型处理单元，用于显示轻量可视化模型和监控
数据信息。
具体的讲，所述人员车辆管理模块包括随人员配置的射频FRID模块和车辆配置的牌照设别模块，所述射频FRID模块和牌照识别模 块与数据管理单元通讯连接。
一实施方式中，所述安全管理模块包括分布设置并通讯连接的视频监控组件、巡更巡检单元、人体红外位移传感器和声光报警单元。
一实施方式中，所述材料管理模块包括称重系统加装的传感器和车辆识别模块、仓库材料信息化单元。
另一实施方式中，所述施工设备管理模块包括塔基监控模块，该塔基监控模块与安全制动装置连接并制动控制。
除此之外，所述子管理模块还包括环境监测及能耗模块、施工电梯监控单元和建筑工程视频监控系统。
一实施方式中，所述环境监测及能耗模块包括施工环境的噪音、扬尘、温度、湿度、风速、风向及污水监控组件，以及施工用水量、用电量在线监测组件。
所述施工电梯监控模块包括设置于电梯及楼层的射频FRID模块及安全帽内设自的人员信息FRID模块。
再一实施方式中，所述建筑工程视频监控系统包括分布于施工现场的监控设备。
该建筑工程物联网信息管理系统通过模型处理单元得到轻量可视化模型，该轻量可视化模型可使用计算机采用HIML5/WebGL技术将包含建筑信息和建筑体量的原始模型进行解析。用WebGL技术在浏览器端对模型进行轻量化处理获得。而数据管理单元可获取施工现场各种监控数据，将监控数据集成到轻量化模型上使用使其可视化，并在统一的物联网平台进行数据处理分析，数据分析后进行硬件的反 馈以及反馈给决策，以辅助项目的现场管理。具体应用中，采用HIML5/WebGL技术将包含建筑信息和建筑体量的原始模型进行解析时，可将原始模型中的几何信息导出成通用格式的三角片面图形数据，按照三角面的排列顺序具有的参数化规律，将网络数据分为面上的点都在边界线上，面上的点不全在边界线上，对于第一类网络数据，对边界上的点进行简化，对于第二类网络数据，从边界开始，对原始网络数据进行从左向右，自下而上逐层简化，用WebGL技术在浏览器或移动端对模型进行重新绘制渲染，轻量化处理。通过数据管理单元获取施工现场各种监控数据，将监控数据集成到轻量化模型上使其可视化，将原始模型中的几何信息导出成通用格式的三角片面图形数据，并将模型中的有价值装配信息和属性信息提取出来进行结构化存储，通过提供开发接口将模型中各个构建的属性数据转换为可添加信息的三维立体架构数据，将传感器，控制器，设备添加到已转好的数据平台，经过中间处理器以及数据传输技术，将物联信息实时更新至数据平台。施工现场数据可通过现场管理APP端实现上传，其中，模型中构建命名规则和现场管理APP端日常检测部位的命名规则相同，以保证质量管理的表单能够通过模型参数相互关联，实现质量管理数据在模型上的锚点显示。
数据管理单元用于获取施工现场各种监控数据，将监控数据集成到轻量模型上使其可视化，并在同以物联网平台数据处理分析，数据分析后进行硬件的反馈，以及反馈给决策，以辅助项目的现场管理。
而子管理模块中，人员车辆管理模块采用的随人员配置的射频 FRID模块，实现对现场作业人员进退场考勤登记，资质认证，现场人员三维可视化分布统计和劳动力分析。而牌照识别模块可获取进出施工现场的车辆拍照登记和车牌自动识别信息。
安全管理模块的视频监控组件可监测施工重点位置，巡更巡检单元通过项目巡更巡检APP，实现巡更巡检路线和巡检点在模型中标记，实现巡检数据在模型中点击查看，实现保安执勤考勤及项目日常安全情况记录。通过现场危险区域布置人体红外位移感应器，当有人接近时，声光报警器立即启动，同时报警信息集成到模型中，自动放松信息给相关人员处理。还安全管理模块中还可配置高支模变形检测单元，用于通过高支模上安装柔性二元体变形监控装置，对高支模的变形进行实时监测，进行危险预警。
质量管理模块的各单元可将现场检查情况采集后录入现场管理APP，实时或离线上传至云平台，数据在模型上归集显示，实现现场质量问题信息化收集及管理。材料管理模块中，承重系统通过施工现场地磅加装传感器及车牌识别摄像头，对材料车辆进行自动登记，拍照，数据上传，并在云平台模型中实现数据关联，自动形成材料进场报表。同时材料管理模块可构配件材料追溯单元，用于监控项目主要钢结构或装配式构建的生产，运输，安装，验收的过程。材料管理模块的仓库材料信息化单元通过项目物资入场时粘贴二维码，物质调配时扫描二维码进行材料提取，入库及调配信息实时传输至物联网平台，并集成到模型中，自动生成物质使用数据报表。
另外，施工设备管理模块中的塔基监控模块实时监测塔基的大臂 仰角，回转角和载重数据，数据在云平台模型中动态可视，实现塔基防碰撞，安全载重的监控，并关联安全制动控制。环境监测及能耗模块中的环境监测单元能对施工现场噪声，扬尘，温度，湿度，风速，风向，以及污水的自动化监测，数据在模型中动态显示，并反馈至水泵、喷淋降尘系统等自动控制设备，实现环境实时监测及自动化管控。能耗管理单元，用于获取项目施工过程的用水量，用电量和固体废弃物回收利用量，并实时在线监测，并实现数据在模型上三维可视化和数据分析。
施工电梯监控模块选用射频FRID模块，能自动统计电梯所在楼层和停靠该楼层时电梯里的作业人员数时，在每个楼层粘贴RFID芯片，芯片数量和楼层数一一对应，当载有预载人员信息RFID芯片安全帽的作业人员进出电梯时，电梯笼中RFID接收器自动统计电梯所在楼层和停靠该楼层时电梯里的作业人员数据，集成到模型中，以在模型中直观显示现场各楼层的人员分布情况，并实时监控电梯安全运行载重情况。建筑工程视频监控系统通过项目施工现场重要位置设置监控设备，将监控设备的位置在模型中标记，通过点击模型中相应监控点，进行WEB端和移动端远程影像查看，监控可实时调用及存储。该建筑工程物联网信息管理系统具有多种有点，首先，其具备物联网的位置表达能力，每条物联网信息都有了表达其三维信息的标识，使得建造和运维过程中的远程沟通更加顺畅，远程办公更加高效，决策更加精准。其次，其提高了项目现场施工的安全性，通过视频监控系统和轻量可视化模型联动，更加全面立体，大型设备监控数据更加实时准 确，危险预警更加自动，更加及时。再者，物联网技术能承担底层信息感知，采集，传递，监控的功能。其和计算机技术二者集成应用可以实现建筑全过程信息流闭环，实现虚拟信息化管理与实体环境硬件之间的有机融合，方便对建筑施工过程中多个数据进行管理。另外，轻量可视化模型是工程建造过程信息的最佳载体，随着该模型和实体建筑的增长，数据得到海量积累，实现大数据分析，通过数据分析来改进业务效率，为精益改造、绿色施工提供数据支撑。
下面结合附图和具体实施方式对本发明做进一步的阐述。
附图说明
图1是本发明具体实施方式的组成框架示意图。
具体实施方式
如图1所示，该建筑工程物联网信息管理系统主要由显示单元、模型处理单元、数据管理单元和多个只管理模块组成。显示单元连接模型处理单元，用于显示轻量可视化模型和监控数据信息。模型处理单元用于将建筑信息和建筑体量的原始模型进行解析生成轻量可视化模型；数据管理单元通讯连接模型处理模块和子管理模块，用于获取子管理模块的施工现场监控数据并转化为轻量可视化模型的显示信息。子管理模块用于获取各节点的数据和信息，包括人员车辆管理模块、安全管理模块、质量管理模块，施工设备管理模块、材料管理模块、环境监测及能耗模块、施工电梯监控单元和建筑工程视频监控系统。
具体的讲，所述人员车辆管理模块包括随人员配置的射频FRID 模块和车辆配置的牌照设别模块，所述射频FRID模块和牌照识别模块与数据管理单元通讯连接。所述安全管理模块包括分布设置并通讯连接的视频监控组件、巡更巡检单元、人体红外位移传感器和声光报警单元。所述材料管理模块包括称重系统加装的传感器和车辆识别模块、仓库材料信息化单元。所述施工设备管理模块包括塔基监控模块，该塔基监控模块与安全制动装置连接并制动控制。所述环境监测及能耗模块包括施工环境的噪音、扬尘、温度、湿度、风速、风向及污水监控组件，以及施工用水量、用电量在线监测组件。所述施工电梯监控模块包括设置于电梯及楼层的射频FRID模块及安全帽内设自的人员信息FRID模块。所述建筑工程视频监控系统包括分布于施工现场的监控设备。

Claims (9)

  1. 一种建筑工程物联网信息管理系统，其特征在于所述管理系统包括：模型处理单元，用于将建筑信息和建筑体量的原始模型进行解析生成轻量可视化模型；
    数据管理单元，通讯连接模型处理模块和子管理模块，用于获取子管理模块的施工现场监控数据并转化为轻量可视化模型的显示信息；
    子管理模块，包括人员车辆管理模块、安全管理模块、质量管理模块，施工设备管理模块和材料管理模块，用于获取各节点的数据和信息；
    显示单元，连接模型处理单元，用于显示轻量可视化模型和监控数据信息。
  2. 根据权利要求1所述的建筑工程物联网信息管理系统，其特征在于所述人员车辆管理模块包括随人员配置的射频FRID模块和车辆配置的牌照设别模块，所述射频FRID模块和牌照识别模块与数据管理单元通讯连接。
  3. 根据权利要求1所述的建筑工程物联网信息管理系统，其特征在于所述安全管理模块包括分布设置并通讯连接的视频监控组件、巡更巡检单元、人体红外位移传感器和声光报警单元。
  4. 根据权利要求1所述的建筑工程物联网信息管理系统，其特征在于所述材料管理模块包括称重系统加装的传感器和车辆识别模 块、仓库材料信息化单元。
  5. 根据权利要求1所述的建筑工程物联网信息管理系统，其特征在于所述施工设备管理模块包括塔基监控模块，该塔基监控模块与安全制动装置连接并制动控制。
  6. 根据权利要求1所述的建筑工程物联网信息管理系统，其特征在于所述子管理模块还包括环境监测及能耗模块、施工电梯监控单元和建筑工程视频监控系统。
  7. 根据权利要求6所述的建筑工程物联网信息管理系统，其特征在于所述环境监测及能耗模块包括施工环境的噪音、扬尘、温度、湿度、风速、风向及污水监控组件，以及施工用水量、用电量在线监测组件。
  8. 根据权利要求6所述的建筑工程物联网信息管理系统，其特征在于所述施工电梯监控模块包括设置于电梯及楼层的射频FRID模块及安全帽内设自的人员信息FRID模块。
  9. 根据权利要求6所述的建筑工程物联网信息管理系统，其特征在于所述建筑工程视频监控系统包括分布于施工现场的监控设备。
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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN113140037A (zh) * 2021-05-13 2021-07-20 天讯方舟(北京)信息科技有限公司 一种建筑信息模型轻量化和三维场景可视化系统

Citations (9)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20140344181A1 (en) * 2013-05-17 2014-11-20 Tiffany Hosey Brown Construction trade building information management system, software and method
CN104766362A (zh) * 2014-03-11 2015-07-08 北京博锐尚格节能技术股份有限公司 一种3d能耗展示方法、装置及系统
CN104850970A (zh) * 2015-06-16 2015-08-19 广东航宇卫星科技有限公司 时空数据应急联动的三维可视化运营管理平台
CN105139292A (zh) * 2015-09-21 2015-12-09 国网山东省电力公司电力科学研究院 输变电工程施工阶段环境监管巡检系统及方法
CN106951444A (zh) * 2017-02-17 2017-07-14 深圳市嘉力达节能科技股份有限公司 建筑工程信息处理方法及装置
CN107527143A (zh) * 2017-08-10 2017-12-29 嘉兴恒创电力设计研究院有限公司 基于bim模型的施工现场数据推送、管理方法及管理系统
CN107748959A (zh) * 2017-10-25 2018-03-02 东华理工大学 一种建筑工程管理信息服务系统
CN108520342A (zh) * 2018-03-23 2018-09-11 中建三局第建设工程有限责任公司 基于bim的物联网平台管理方法及其系统
CN109697195A (zh) * 2017-10-24 2019-04-30 长沙搜博网络科技有限公司 一种rfid技术的设备安全与维护系统设计

Patent Citations (9)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20140344181A1 (en) * 2013-05-17 2014-11-20 Tiffany Hosey Brown Construction trade building information management system, software and method
CN104766362A (zh) * 2014-03-11 2015-07-08 北京博锐尚格节能技术股份有限公司 一种3d能耗展示方法、装置及系统
CN104850970A (zh) * 2015-06-16 2015-08-19 广东航宇卫星科技有限公司 时空数据应急联动的三维可视化运营管理平台
CN105139292A (zh) * 2015-09-21 2015-12-09 国网山东省电力公司电力科学研究院 输变电工程施工阶段环境监管巡检系统及方法
CN106951444A (zh) * 2017-02-17 2017-07-14 深圳市嘉力达节能科技股份有限公司 建筑工程信息处理方法及装置
CN107527143A (zh) * 2017-08-10 2017-12-29 嘉兴恒创电力设计研究院有限公司 基于bim模型的施工现场数据推送、管理方法及管理系统
CN109697195A (zh) * 2017-10-24 2019-04-30 长沙搜博网络科技有限公司 一种rfid技术的设备安全与维护系统设计
CN107748959A (zh) * 2017-10-25 2018-03-02 东华理工大学 一种建筑工程管理信息服务系统
CN108520342A (zh) * 2018-03-23 2018-09-11 中建三局第建设工程有限责任公司 基于bim的物联网平台管理方法及其系统

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN113140037A (zh) * 2021-05-13 2021-07-20 天讯方舟(北京)信息科技有限公司 一种建筑信息模型轻量化和三维场景可视化系统

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