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市政物联网方案设计与分析

发布时间:2018-05-21 13:25

  本文选题:市政公用事业 + 物联网 ; 参考:《中国海洋大学》2013年硕士论文


【摘要】:本论文利用当今先进的物联网、云计算等先进技术,设计搭建一套完整的市政基础设施智能化管理平台,通过完善园区智能化体系,对数字市政平台进行初步设计。平台可为区域内企业提供更便捷、更高效、高水平的服务,组成部分包括支撑子系统和应用子系统。 支撑子系统包括云计算平台、ZigBee基础通讯网,应用子系统包括GIS平台、智能路灯管理系统、井盖防盗报警系统、综合管沟监控系统、防汛水位测报系统、自动苗木灌溉系统、临时管线管理系统、ZigBee定位系统、排水管道监控系统等子系统。 支撑子系统,以面向应用的物联网数据网络为中心,主要完成信息感知、数据处理、数据回传,以及决策支持等功能,其硬件平台由传感网、核心承载网和信息服务系统等几个大的部分组成,并借助云计算Iaas、PaaSS、SaaS等先进的商业模式把强大的计算能力分发给终端用户。 应用子系统,基于开放式的地理空间信息资源共享服务平台,将智能路灯管理系统、井盖防盗报警系统等八大系统融合在统一平台。(1)智能路灯管理系统,作为物联网技术在路灯行业的应用,实现对照明设施的智能化监控和集中管理;及时、实时的掌握系统运行状况;合理利用电能资源,实现按需照明,杜绝浪费;同时实现设备的故障自动上报和电缆的24小时实时防盗。(2)井盖防盗报警系统通过检测井盖的开合状态来判断井盖和沟井内的电(线)缆是否将受到破坏和盗损。(3)综合管沟监控系统通过监测设备对各管道内的水压、温度等参数信息进行实时采集和监测,并通过ZigBee网络将数据上传到监控中心,形成数据档案。当监测系统检测到水压、温度、湿度、气体等参数的变化范围超出设定值后,系统会自动报警。(4)防汛水位测报系统,在防汛区域的重要地段、地点设置水位监测点,将现场的水位数据通过ZigBee无线数据采集终端单元(DCU)按照固定的时间间隔上报给监测服务器。系统软件根据上报的数据形成水位变化曲线。当水位超出设定值后,系统发出报警信号,同时对事故等级进行判断,启动相应事故联动机制。(5)自动苗木灌溉系统,自动苗木灌溉系统通过现场的传感器定时采集与植物需水相关的气象参量,通过ZigBee基础通讯网反馈到后台主站,以便后台主站通过历史数据总结出各气象参量的历史曲线,供系统更好的预测、决策。(6) ZigBee定位系统不仅实现公共设备的登记、整理、建档功能,同时更是具有追踪,定位,状态查询等功能。(7)排水管道监控系统在排水管道的关键节点设立监控点进行监测,将现场的淤泥高度、水质相关参数以及流量等数据通过ZigBee无线数据采集终端单元(DCU)按照固定的时间间隔上报给监测服务器。 市政物联网设计方案充分利用各类信息资源,建立各类数据资源库,为区域内各部门的宏观决策提供分析和支持,保证决策的准确性、客观性、及时性。同时,系统提供了良好的数据交换接口,为今后的系统升级奠定很好的基础,通过有效的管理能够大幅度的减少水、电等能源费用的支出和事故产生的费用。
[Abstract]:This paper uses advanced technologies such as Internet of things, cloud computing and other advanced technologies to design and build a complete set of intelligent management platform for municipal infrastructure. Through the improvement of the intelligent system of the park, a preliminary design of the digital municipal platform is carried out. The platform can provide more agile, more efficient and high level services for the enterprises in the region, and the components include the branch. Support subsystem and application subsystem.
The supporting subsystem includes the cloud computing platform, the ZigBee basic communication network, the application subsystem including the GIS platform, the intelligent street lamp management system, the well cover anti-theft alarm system, the integrated pipe trench monitoring system, the flood control water level measuring and reporting system, the automatic seedling irrigation system, the temporary pipeline management system, the ZigBee positioning system and the drainage pipeline monitoring system and other subsystems.
The support subsystem, centered on the application oriented Internet of things data network, mainly completes the functions of information perception, data processing, data return, and decision support. The hardware platform consists of several large parts, such as sensor network, core bearing network and information service system, and the advanced business models such as cloud computing Iaas, PaaSS, SaaS and other advanced business models. Large computing power is distributed to end users.
The application subsystem, based on the open geographic spatial information resource sharing service platform, integrates the eight systems of intelligent street lamp management system, well cover anti-theft alarm system in the unified platform. (1) the intelligent street lamp management system, as the application of the Internet of things technology in the street lamp industry, realizes the intelligent monitoring and centralized management of the lighting facilities. Timely and real-time control of the operating conditions of the system; rational use of energy resources to realize on-demand lighting and eliminate waste; at the same time, the automatic reporting of equipment failures and the 24 hours of the cable will be realized in real time. (2) the wellhead burglar alarm system determines whether the electric (line) cable in the well cover and in the ditch will be damaged by detecting the opening and closing of the well cover. (3) the monitoring system can collect and monitor the water pressure, temperature and other parameters in the pipeline through monitoring equipment, and upload the data to the monitoring center through the ZigBee network and form the data files. When the monitoring system detects the water pressure, temperature, humidity, gas and other parameters, the system is beyond the set value. (4) the monitoring and reporting system of flood control water level, the water level monitoring point is set in the important section of the flood control area, the water level data of the field is reported to the monitoring server by the ZigBee wireless data acquisition terminal unit (DCU) according to the fixed time interval. The system software is based on the reported data to form the water level change curve. When the water level is beyond the water level, the water level exceeds the water level. After setting the value, the system sends out the alarm signal, at the same time to judge the accident grade and start the corresponding accident linkage mechanism. (5) the automatic seedling irrigation system, the automatic seedling irrigation system collects the meteorological parameters related to the plant water through the sensor of the site, and feedback to the main station through the ZigBee basic communication network, so that the backstage main station is connected. Through historical data, the historical curves of the meteorological parameters are summed up for better prediction and decision. (6) ZigBee positioning system not only realizes the registration, arrangement and filing function of public equipment, but also has the functions of tracking, positioning, and state inquiry. (7) the monitoring system of drainage pipeline is set up to monitor the key nodes of the drainage pipeline. The data of the site's silt height, water quality parameters and flow data are reported to the monitoring server by the ZigBee wireless data acquisition terminal unit (DCU) at a fixed time interval.
The design scheme of the municipal Internet of things makes full use of all kinds of information resources and sets up various data repositories to provide analysis and support for the macro decision of various departments in the region, and to ensure the accuracy, objectivity and timeliness of the decision-making. At the same time, the system provides a good data exchange interface, which lays a good foundation for the upgrading of the system in the future and is effective. The management can greatly reduce the expenditure of water, electricity and other energy costs and the cost of accidents.
【学位授予单位】:中国海洋大学
【学位级别】:硕士
【学位授予年份】:2013
【分类号】:TU99;TP391.44;TN929.5

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