CN111519730A - Intelligent water speed and water flow path regulating planning system - Google Patents

Intelligent water speed and water flow path regulating planning system Download PDF

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CN111519730A
CN111519730A CN202010260965.XA CN202010260965A CN111519730A CN 111519730 A CN111519730 A CN 111519730A CN 202010260965 A CN202010260965 A CN 202010260965A CN 111519730 A CN111519730 A CN 111519730A
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water pump
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代棋帆
赵冰
王�琦
冯晨
严艺薰
郑丹丹
刘勋
戴其琛
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China University of Geosciences
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    • EFIXED CONSTRUCTIONS
    • E03WATER SUPPLY; SEWERAGE
    • E03FSEWERS; CESSPOOLS
    • E03F1/00Methods, systems, or installations for draining-off sewage or storm water
    • EFIXED CONSTRUCTIONS
    • E03WATER SUPPLY; SEWERAGE
    • E03FSEWERS; CESSPOOLS
    • E03F3/00Sewer pipe-line systems
    • E03F3/04Pipes or fittings specially adapted to sewers
    • EFIXED CONSTRUCTIONS
    • E03WATER SUPPLY; SEWERAGE
    • E03FSEWERS; CESSPOOLS
    • E03F5/00Sewerage structures
    • E03F5/22Adaptations of pumping plants for lifting sewage
    • EFIXED CONSTRUCTIONS
    • E03WATER SUPPLY; SEWERAGE
    • E03FSEWERS; CESSPOOLS
    • E03F7/00Other installations or implements for operating sewer systems, e.g. for preventing or indicating stoppage; Emptying cesspools
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01MTESTING STATIC OR DYNAMIC BALANCE OF MACHINES OR STRUCTURES; TESTING OF STRUCTURES OR APPARATUS, NOT OTHERWISE PROVIDED FOR
    • G01M3/00Investigating fluid-tightness of structures
    • G01M3/02Investigating fluid-tightness of structures by using fluid or vacuum
    • G01M3/26Investigating fluid-tightness of structures by using fluid or vacuum by measuring rate of loss or gain of fluid, e.g. by pressure-responsive devices, by flow detectors
    • GPHYSICS
    • G01MEASURING; TESTING
    • G01WMETEOROLOGY
    • G01W1/00Meteorology
    • G01W1/14Rainfall or precipitation gauges

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Abstract

本发明提供一种智能调节水速与水流路线规划系统,具体包括:云端、水泵传感器和降雨量传感器;所述水泵传感器和所述降雨量传感器均通过无线网络的方式与所述云端连接;所述水泵传感器,安置于城市各处下水管道的排水泵,用于获取城市各处下水管道的排水情况;所述降雨量传感器,安置于城市各处路面,用于获取城市各处的降雨量情况;所述云端收集城市排水情况和降雨情况,进行降水量排往河流的路线规划,保证城市路面不出现雨水淤积。本发明的有益效果是:在不破坏原有的城市排水系统的情况下,及时将城市内部雨水排出,解决了雨天城市道路因排水系统故障导致的积水问题。

Figure 202010260965

The present invention provides an intelligent water speed and water flow route planning system, which specifically includes: a cloud, a water pump sensor and a rainfall sensor; both the water pump sensor and the rainfall sensor are connected to the cloud through a wireless network; The water pump sensor is installed in the drainage pumps of the sewer pipes in various places in the city, and is used to obtain the drainage conditions of the sewer pipes in various places in the city; the rainfall sensor is installed on the road surfaces in various places in the city, and is used to obtain the rainfall conditions in various places in the city. ; The cloud collects urban drainage conditions and rainfall conditions, and conducts route planning for the amount of precipitation to be discharged to rivers, so as to ensure that rainwater accumulation does not occur on urban road surfaces. The beneficial effects of the invention are: without destroying the original urban drainage system, the rainwater in the city can be drained in time, and the problem of water accumulation caused by the failure of the drainage system on urban roads in rainy days is solved.

Figure 202010260965

Description

一种智能调节水速与水流路线规划系统An intelligent adjustment water speed and water flow route planning system

技术领域technical field

本发明涉及城市规划领域,尤其涉及一种智能调节水速与水流路线规划系统。The invention relates to the field of urban planning, in particular to an intelligently adjusting water speed and water flow route planning system.

背景技术Background technique

目前城市排水系统现存问题较多,湿地公园、渗水地面等调水方法也只是一定程度上的解决,当降水量过大时,排水系统泄水量不足以及时把雨水排入河流中去,雨水就会淤积、倒灌在城市的街道中,给人们造成极大的困扰,且部分排水管道、排水渠由于各种原因致无法使用也屡见不鲜,又会在雨天造成一定程度的交通问题,然而重修排水系统等基础设施会给交通和市政预算造成较大负担,且排水泄水问题未必完全解决。基于此,本发明采用排水系统不便,通过在城市内布置多个降水量采集传感器,排水道内也布置多个水流监测传感器。收集这些信息传送给互联网端进行人工智能分析处理,通过分析城市各部分的降水量和每个排水管道目前的排水能力,互联网人工智能云端规划出每个排水道的当前必须达到的水流量,然后互联网人工智能云端控制调速泵将其负责的那段排水道流速调至正确值,通过众多水泵的相互配合,短暂合理提高城市排水系统或某一严重水涝区域的排水能力,使城市或城市严重水涝区域内积水可以及时排到城市河流中,减轻因积水造成的交通问题。At present, there are many existing problems in the urban drainage system, and water transfer methods such as wetland parks and seepage surfaces can only be solved to a certain extent. It will silt up and pour back into the streets of the city, causing great trouble to people. It is not uncommon for some drainage pipes and drainage channels to be unusable due to various reasons, and it will cause a certain degree of traffic problems in rainy days. However, the drainage system is rebuilt. Such infrastructure will impose a greater burden on transportation and municipal budgets, and the problem of drainage may not be completely solved. Based on this, it is inconvenient to use the drainage system in the present invention. By arranging multiple precipitation collection sensors in the city, multiple water flow monitoring sensors are also arranged in the drainage channel. Collect this information and send it to the Internet for artificial intelligence analysis and processing. By analyzing the precipitation in various parts of the city and the current drainage capacity of each drainage pipeline, the Internet artificial intelligence cloud plans the current water flow that must be achieved for each drainage channel, and then The Internet artificial intelligence cloud controls the speed-regulating pump to adjust the flow rate of the drainage channel it is responsible for to the correct value. The stagnant water in the severely waterlogged area can be discharged into the urban river in time to alleviate the traffic problems caused by the stagnant water.

发明内容SUMMARY OF THE INVENTION

有鉴于此,本发明提供了一种智能调节水速与水流路线规划系统。In view of this, the present invention provides an intelligent adjustment water speed and water flow route planning system.

本发明提供一种智能调节水速与水流路线规划系统,包括:The present invention provides an intelligently adjusting water speed and water flow route planning system, comprising:

云端、水泵传感器和降雨量传感器;所述水泵传感器和所述降雨量传感器均通过无线网络的方式与所述云端连接;所述水泵传感器有多个,分别设置于城市各处下水管道的排水泵中,用于获取城市各处排水道的排水情况;所述降雨量传感器有多个,分别设置于城市地表的不同位置,用于获取城市各处的降雨量情况;所述云端通过所述水泵传感器和所述降雨量传感器收集城市的排水情况和降雨情况,并规划降雨量排往河流的路线。Cloud, water pump sensor and rainfall sensor; both the water pump sensor and the rainfall sensor are connected to the cloud through a wireless network; there are multiple water pump sensors, which are respectively installed in the drainage pumps of the sewer pipes around the city It is used to obtain the drainage conditions of the drainage channels in various parts of the city; there are multiple rainfall sensors, which are respectively set at different positions on the surface of the city to obtain the rainfall conditions of various parts of the city; the cloud passes the water pump through the The sensor and the rainfall sensor collect the drainage and rainfall of the city, and plan the route of the rainfall to the river.

进一步地,每个所述水泵传感器包括安装于水泵上的摄像头和安装于水泵上的流速传感器;所述摄像头用于拍摄排水道的排水图像,并将排水图像上传至所述云端;所述流速传感器用于检测水泵排水数据,并将排水数据上传至所述云端;所述云端根据所述排水图像采用前馈卷积神经网络分析得到排水道是否堵塞;所述云端根据所述排水数据分析得到排水道的排水量;所述排水情况包括,排水道是否堵塞和排水道的排水量。Further, each of the water pump sensors includes a camera installed on the water pump and a flow rate sensor installed on the water pump; the camera is used to photograph the drainage image of the drainage channel, and upload the drainage image to the cloud; the flow rate The sensor is used to detect water pump drainage data, and upload the drainage data to the cloud; the cloud uses a feedforward convolutional neural network to analyze the drainage image to obtain whether the drainage channel is blocked; the cloud analyzes the drainage data to obtain The drainage volume of the drainage channel; the drainage situation includes whether the drainage channel is blocked and the drainage volume of the drainage channel.

进一步地,所述降雨量传感器,包括单片机、电容传感器、承水器和电机;所述电机通过连接杆连接至承水器;所述承水器底部设置有所述电容传感器;所述电容传感器和所述电机均与所述单片机电性连接;所述单片机用于读入所述电容传感器的电容值从而计算水量;当水量增加时,电容传感器的电容值变大;当电容值达到达到预设的电容阈值时,所述承水器中的雨水溢出,所述电机转动带动所述承水器翻转,将水倒出,同时所述单片机记录电机转动的次数,确定降水总量。Further, the rainfall sensor includes a single-chip microcomputer, a capacitive sensor, a water carrier and a motor; the motor is connected to the water carrier through a connecting rod; the capacitive sensor is provided at the bottom of the water carrier; the capacitive sensor and the motor are electrically connected to the single chip microcomputer; the single chip microcomputer is used to read the capacitance value of the capacitive sensor to calculate the water volume; when the water volume increases, the capacitance value of the capacitive sensor becomes larger; when the capacitance value reaches the predetermined value When the capacitance threshold is set, the rainwater in the water receiver overflows, and the rotation of the motor drives the water receiver to turn over to pour out the water.

进一步地,所述水泵是由电机带动水泵扇叶旋转,以进行水流调节的;所述电机还包括控制驱动装置,所述控制驱动装置也与所述云端通过无线网络连接;所述云端与所述控制驱动装置通信,调节所述电机转速,以调节排水量。Further, the water pump is driven by a motor to drive the pump blades to rotate to adjust the water flow; the motor further includes a control and drive device, and the control and drive device is also connected to the cloud through a wireless network; the cloud and the Communication with the control drive device to adjust the rotational speed of the motor to adjust the displacement.

进一步地,所述水泵还安装有水泵行走机构轮子,用于排水道堵塞情况下的移动,疏通排水道。Further, the water pump is also equipped with a water pump running mechanism wheel, which is used for moving when the drainage channel is blocked and dredging the drainage channel.

进一步地,所述降雨量传感器在城市地表,每隔L m放置一个,以覆盖整座城市;L为预设值,且L>0。Further, the rainfall sensor is placed on the surface of the city, and one is placed every L m to cover the entire city; L is a preset value, and L>0.

进一步地,所述的排水道包括位于地表排水渠和位于地下排水管;所述排水渠和所述排水管均有多个,共同组成城市排水系统。Further, the drainage channels include surface drainage channels and underground drainage pipes; there are multiple drainage channels and drainage pipes, which together form an urban drainage system.

所述云端通过所述水泵传感器和所述降雨量传感器收集城市的排水情况和降雨情况,并规划降雨量排往河流的路线,具体为:The cloud collects the city's drainage and rainfall conditions through the water pump sensor and the rainfall sensor, and plans a route for the rainfall to be discharged to the river, specifically:

S101:所述云端通过无线网络的方式,收集城市内安装的所述降雨量传感器检测的降雨量数据,进行汇总得到城市总降雨量;S101: The cloud collects the rainfall data detected by the rainfall sensor installed in the city through a wireless network, and aggregates to obtain the total rainfall in the city;

S102:所述云端通过无线网络的方式,收集城市内安装的所述水泵传感器检测的排水情况,进行分析,得到存在故障的排水道、正常排泄的排水道和城市当前排水道总排水量;S102: The cloud collects, through a wireless network, the drainage situation detected by the water pump sensor installed in the city, and analyzes it to obtain the faulty drainage channel, the drainage channel that is normally drained, and the total drainage volume of the current drainage channel in the city;

S103:所述云端根据当前总排水量大于城市总降雨量的原则,对正常排泄的排水道内控制驱动装置发出控制信号,通过提高电机转速调节水泵扇叶的转速,以加大正常排泄的排水道内水泵的流速,加大排水量;对于存在故障的排水道,暂时通过降低电机转速调节水泵扇叶的转速,以降低存在故障的排水道内水泵的流速,减少排水量;同时,所述云端还通过短信方式通知相关人员存在故障的排水管道的具体位置;S103: The cloud sends a control signal to the control drive device in the drainage channel for normal drainage according to the principle that the current total drainage volume is greater than the total urban rainfall, and adjusts the rotation speed of the fan blades of the pump by increasing the speed of the motor, so as to increase the water pump in the drainage channel for normal drainage. For the faulty drainage channel, the speed of the pump fan blade is temporarily adjusted by reducing the motor speed to reduce the flow rate of the pump in the faulty drainage channel and reduce the drainage volume; at the same time, the cloud also informs via SMS. The specific location of the faulty drainage pipe for the relevant personnel;

S104:相关人员通过水泵行走机构轮子改变所述存在故障的排水管道内水泵的位置疏通堵塞,或者替换水泵,以对存在故障的排水管道进行维修,使其恢复为正常排泄的排水道;S104: Relevant personnel change the position of the water pump in the faulty drainage pipeline through the wheel of the water pump running mechanism to clear the blockage, or replace the water pump, so as to repair the faulty drainage pipeline and restore it to a normal drainage channel;

S105:所述云端对恢复为正常排泄的排水道,通过提高电机转速调节水泵扇叶的转速,以加大恢复为正常排泄的排水道内水泵的流速,进一步加大排水量,执行排水任务。S105: The cloud adjusts the speed of the fan blades of the water pump by increasing the motor speed for the drainage channel restored to normal drainage, so as to increase the flow rate of the water pump in the drainage channel restored to normal drainage, further increase the drainage volume, and perform the drainage task.

本发明提供的技术方案带来的有益效果是:在不破坏原有的城市排水系统的情况下,及时将城市内部雨水排出,解决了雨天城市道路因排水系统故障导致的积水问题。The beneficial effects brought by the technical solution provided by the invention are: without destroying the original urban drainage system, the rainwater in the city can be drained in time, and the problem of water accumulation on urban roads caused by the failure of the drainage system in rainy days is solved.

附图说明Description of drawings

图1为本发明一种智能调节水速与水流路线规划系统的结构图;Fig. 1 is the structure diagram of a kind of intelligent adjustment water speed and water flow route planning system of the present invention;

图2是本发明实施例中卷积神经网络结构图;2 is a structural diagram of a convolutional neural network in an embodiment of the present invention;

图3是本发明实施例中降雨量传感器结构图;3 is a structural diagram of a rainfall sensor in an embodiment of the present invention;

图1中,各编号表示意义如下:In Figure 1, the meanings of each number are as follows:

1.云端 2.水泵扇叶 3.水泵行走机构轮子 4.水泵传感器 5.降雨量传感器 6.地表 7.水泵 8.第一排水管 9.第二排水管 10.第一排水渠 11.第二排水渠 12.第三排水渠13.河流。1. Cloud 2. Water pump fan blade 3. Water pump running mechanism wheel 4. Water pump sensor 5. Rainfall sensor 6. Surface 7. Water pump 8. First drain pipe 9. Second drain pipe 10. First drain channel 11. No. 1 Second drain 12. Third drain 13. River.

具体实施方式Detailed ways

为使本发明的目的、技术方案和优点更加清楚,下面将结合附图对本发明实施方式作进一步地描述。In order to make the objectives, technical solutions and advantages of the present invention clearer, the embodiments of the present invention will be further described below with reference to the accompanying drawings.

请参考图1,本发明的实施例提供了一种智能调节水速与水流路线规划系统的结构图,具体包括:云端1、水泵传感器2和降雨量传感器5;所述水泵传感器2和所述降雨量传感器5均通过无线网络的方式与所述云端连接;所述水泵传感器2有多个,分别设置于城市各处下水管道的排水泵中,用于获取城市各处排水道的排水情况;所述降雨量传感器5有多个,分别设置于城市地表6的不同位置,用于获取城市各处的降雨量情况;所述云端通过所述水泵传感器2和所述降雨量传感器5收集城市的排水情况和降雨情况,并规划降雨量排往河流13的路线。Referring to FIG. 1, an embodiment of the present invention provides a structural diagram of a system for intelligently adjusting water speed and water flow route planning, which specifically includes: a cloud 1, a water pump sensor 2, and a rainfall sensor 5; the water pump sensor 2 and the The rainfall sensors 5 are all connected to the cloud through a wireless network; there are multiple water pump sensors 2, which are respectively arranged in the drainage pumps of the sewer pipes in various places in the city, and are used to obtain the drainage conditions of the drainage channels in various places in the city; There are a plurality of the rainfall sensors 5, which are respectively arranged at different positions on the urban surface 6 to obtain the rainfall conditions in various parts of the city; Drainage and rainfall, and plan the route of rainfall to river 13.

每个所述水泵传感器2包括安装于水泵7上的摄像头和安装于水泵7上的流速传感器;所述摄像头用于拍摄排水道的排水图像,并将排水图像上传至所述云端1;所述流速传感器用于检测水泵排水数据,并将排水数据上传至所述云端1;所述云端根据所述排水图像采用前馈卷积神经网络分析得到排水道是否堵塞;本发明实施例中,所述卷积神经网络是一种前馈神经网络,它的人工神经元可以响应一部分覆盖范围内的周围单元,提取图像特征。主要包含卷积层、池化层、全连接层;其具体结构参考图2,图2是本发明实施例中卷积神经网络结构图;其中,卷积层是一组平行的特征图,它通过在输入图像上滑动不同的卷积核并运行一定的运算而组成;池化层是一种非线性形式的降采样,本专利实施例中采用最大池化层的方法;在经过几个卷积和最大池化层之后,神经网络中的高级推理通过完全连接层来完成;卷积层输出后,将提取的图像特征输入两层全连接层,最后通过softmax层输出分类结果,即排水道是否堵塞。Each of the water pump sensors 2 includes a camera installed on the water pump 7 and a flow rate sensor installed on the water pump 7; the camera is used to capture the drainage image of the drainage channel, and upload the drainage image to the cloud 1; the The flow rate sensor is used to detect water pump drainage data, and upload the drainage data to the cloud 1; the cloud uses a feedforward convolutional neural network to analyze whether the drainage channel is blocked according to the drainage image; in the embodiment of the present invention, the A convolutional neural network is a feedforward neural network whose artificial neurons can respond to surrounding units within a partial coverage area to extract image features. It mainly includes a convolution layer, a pooling layer, and a fully connected layer; its specific structure refers to Figure 2, which is a structural diagram of a convolutional neural network in an embodiment of the present invention; wherein, the convolution layer is a set of parallel feature maps, which It is formed by sliding different convolution kernels on the input image and running certain operations; the pooling layer is a non-linear form of downsampling, and the method of the maximum pooling layer is adopted in this patent embodiment; after several convolutions After the product and max pooling layer, the advanced reasoning in the neural network is completed by the fully connected layer; after the output of the convolutional layer, the extracted image features are input into the two fully connected layers, and finally the classification result is output through the softmax layer, that is, the drain Is it blocked.

请参考图3,图3是降雨量传感器结构图;所述降雨量传感,包括单片机、电容传感器、承水器和电机;所述电机通过连接杆连接至承水器;所述承水器底部设置有所述电容传感器;所述电容传感器和所述电机均与所述单片机电性连接;所述单片机用于读入所述电容传感器的电容值从而计算水量;当水量增加时,电容传感器的电容值变大;当电容值达到达到预设的电容阈值时,所述承水器中的雨水溢出,所述电机转动带动所述承水器翻转,将水倒出,同时所述单片机记录电机转动的次数,确定降雨总量。Please refer to FIG. 3, which is a structural diagram of a rainfall sensor; the rainfall sensor includes a single-chip microcomputer, a capacitive sensor, a water carrier and a motor; the motor is connected to the water carrier through a connecting rod; the water carrier The capacitive sensor is arranged at the bottom; the capacitive sensor and the motor are both electrically connected to the single-chip microcomputer; the single-chip microcomputer is used to read the capacitance value of the capacitive sensor to calculate the water volume; when the water volume increases, the capacitive sensor When the capacitance value reaches the preset capacitance threshold, the rainwater in the water receiver overflows, and the motor rotates to drive the water receiver to turn over to pour out the water, and the single-chip microcomputer records the The number of times the motor turns to determine the total amount of rainfall.

所述云端1根据所述排水数据分析得到排水道的排水量;所述排水情况包括,排水道是否堵塞和排水道的排水量。The cloud 1 analyzes and obtains the drainage volume of the drainage channel according to the drainage data; the drainage condition includes whether the drainage channel is blocked and the drainage volume of the drainage channel.

所述水泵7是由电机带动水泵扇叶2旋转,以进行水流调节的;所述电机还包括控制驱动装置,所述控制驱动装置也与所述云端1通过无线网络连接;所述云端1与所述控制驱动装置通信,调节所述电机转速,以调节排水量。The water pump 7 is driven by the motor to rotate the water pump fan blade 2 to adjust the water flow; the motor further includes a control driving device, and the control driving device is also connected to the cloud 1 through a wireless network; The control drive communicates to adjust the motor speed to adjust the displacement.

所述水泵7还安装有水泵行走机构轮子3,用于排水道堵塞情况下的移动,疏通排水道。The water pump 7 is also equipped with a water pump running mechanism wheel 3, which is used for moving when the drainage channel is blocked and dredging the drainage channel.

本实施例中,所述降雨量传感器5在城市地表6,每隔5m放置一个,以覆盖整座城市;。In this embodiment, the rainfall sensor 5 is placed on the urban surface 6, and one is placed every 5m to cover the entire city;

所述的排水道包括位于地表6排水渠和位于地下排水管;所述排水渠和所述排水管均有多个,共同组成城市排水系统。本实施例中,只列举出三个排水渠和两个排水管,分别为第一排水渠10、第二排水渠11、第三排水渠12、第一排水管8和第二排水管9.The drainage channels include 6 drainage channels located on the surface and underground drainage pipes; there are multiple drainage channels and drainage pipes, which together form an urban drainage system. In this embodiment, only three drains and two drains are listed, namely the first drain 10, the second drain 11, the third drain 12, the first drain 8 and the second drain 9.

所述云端通过所述水泵传感器2和所述降雨量传感器5收集城市的排水情况和降雨情况,并规划降雨量排往河流13的路线,具体为:The cloud collects the drainage and rainfall conditions of the city through the water pump sensor 2 and the rainfall sensor 5, and plans a route for the rainfall to be discharged to the river 13, specifically:

S101:所述云端1通过无线网络的方式,收集城市内安装的所述降雨量传感器5检测的降雨量数据,进行汇总得到城市总降雨量;S101: The cloud 1 collects the rainfall data detected by the rainfall sensor 5 installed in the city through a wireless network, and summarizes to obtain the total rainfall in the city;

S102:所述云端1通过无线网络的方式,收集城市内安装的所述水泵传感器4检测的排水情况,进行分析,得到存在故障的排水道、正常排泄的排水道和城市当前排水道总排水量;S102: The cloud 1 collects, through a wireless network, the drainage situation detected by the water pump sensor 4 installed in the city, and analyzes it to obtain the faulty drainage channel, the drainage channel normally drained, and the total drainage volume of the current drainage channel in the city;

S103:所述云端1根据当前总排水量大于城市总降雨量的原则,对正常排泄的排水道内控制驱动装置发出控制信号,通过提高电机转速调节水泵扇叶2的转速,以加大正常排泄的排水道内水泵7的流速,加大排水量;对于存在故障的排水道,暂时通过降低电机转速调节水泵扇叶2的转速,以降低存在故障的排水道内水泵7的流速,减少排水量;同时,所述云端1还通过短信方式通知相关人员存在故障的排水管道的具体位置;S103: The cloud 1 sends a control signal to the control and drive device in the drainage channel for normal drainage according to the principle that the current total drainage volume is greater than the total urban rainfall, and adjusts the rotation speed of the pump fan blade 2 by increasing the motor speed, so as to increase the drainage volume of normal drainage. The flow rate of the water pump 7 in the channel is increased, and the drainage volume is increased; for the drainage channel with fault, the speed of the pump fan blade 2 is temporarily adjusted by reducing the motor speed to reduce the flow rate of the water pump 7 in the faulty drainage channel and reduce the drainage volume; at the same time, the cloud 1 The specific location of the faulty drainage pipe is also notified to the relevant personnel through text messages;

S104:相关人员通过水泵行走机构轮子3改变所述存在故障的排水管道内水泵7的位置疏通堵塞,或者替换水泵7,以对存在故障的排水管道进行维修,使其恢复为正常排泄的排水道;S104: Relevant personnel change the position of the water pump 7 in the faulty drainage pipeline through the wheel 3 of the water pump running mechanism to clear the blockage, or replace the water pump 7, so as to repair the faulty drainage pipeline and restore it to a normal drainage channel ;

S105:所述云端1对恢复为正常排泄的排水道,通过提高电机转速调节水泵扇叶2的转速,以加大恢复为正常排泄的排水道内水泵7的流速,进一步加大排水量,执行排水任务。S105: The cloud 1 pair of drainage channels restored to normal drainage adjust the rotational speed of the water pump fan blades 2 by increasing the motor speed, so as to increase the flow rate of the water pump 7 in the drainage channel restored to normal drainage, further increase the drainage volume, and perform drainage tasks .

本发明的有益效果是:在不破坏原有的城市排水系统的情况下,及时将城市内部雨水排出,解决了雨天城市道路因排水系统故障导致的积水问题。The beneficial effects of the invention are: without destroying the original urban drainage system, the rainwater in the city can be drained in time, and the problem of water accumulation caused by the failure of the drainage system on urban roads in rainy days is solved.

在不冲突的情况下,本文中上述实施例及实施例中的特征可以相互结合。The above-described embodiments and features of the embodiments herein may be combined with each other without conflict.

以上所述仅为本发明的较佳实施例,并不用以限制本发明,凡在本发明的精神和原则之内,所作的任何修改、等同替换、改进等,均应包含在本发明的保护范围之内。The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of the present invention shall be included in the protection of the present invention. within the range.

Claims (8)

1. The utility model provides an intelligent regulation water speed and water flow route planning system which characterized in that: the system comprises a cloud (1), a water pump sensor (4) and a rainfall sensor (5); the water pump sensor (4) and the rainfall sensor (5) are connected with the cloud end in a wireless network mode; the water pump sensors (4) are respectively arranged in the drainage pumps of the sewer pipelines at various places of the city and are used for acquiring the drainage condition of the sewer pipelines at various places of the city; the rainfall sensors (5) are arranged at different positions of the urban ground surface (6) respectively and used for acquiring the rainfall conditions of all places in the city; the cloud end collects the urban drainage condition and the rainfall condition through the water pump sensor (4) and the rainfall sensor (5), and plans a route of the rainfall to the river (13).
2. The system of claim 1, wherein the system comprises: each water pump sensor (4) comprises a camera arranged on the water pump (7) and a flow velocity sensor arranged on the water pump (7); the camera is used for shooting a drainage image of the drainage channel and uploading the drainage image to the cloud end (1); the flow velocity sensor is used for detecting water pump drainage data and uploading the drainage data to the cloud end (1); the cloud (1) analyzes whether the drainage channel is blocked or not by adopting a feedforward convolutional neural network according to the drainage image; the cloud (1) analyzes the drainage data to obtain the drainage quantity of the drainage channel; the drainage conditions include whether the drain is clogged and the amount of drainage of the drain.
3. The system of claim 1, wherein the system comprises: the rainfall sensor (5) comprises a single chip microcomputer, a capacitance sensor, a water bearing device and a motor; the motor is connected to the water bearing device through a connecting rod; the bottom of the water bearing device is provided with the capacitance sensor; the capacitance sensor and the motor are both electrically connected with the single chip microcomputer; the single chip microcomputer is used for reading in the capacitance value of the capacitance sensor so as to calculate the water quantity; when the amount of water increases, the capacitance value of the capacitive sensor becomes large; when the capacitance value reaches a preset capacitance threshold value, rainwater in the water bearing device overflows, the motor rotates to drive the water bearing device to overturn, water is poured out, and meanwhile the single chip microcomputer records the rotation times of the motor to determine the total rainfall.
4. The system of claim 2, wherein the system comprises: the water pump (7) is characterized in that the motor drives the water pump fan blades (2) to rotate so as to adjust water flow; the motor further comprises a control driving device, and the control driving device is also connected with the cloud end (1) through a wireless network; the cloud end (1) is communicated with the control driving device to adjust the rotating speed of the motor so as to adjust the water displacement.
5. The system of claim 4, wherein the system comprises: the water pump (7) is also provided with a water pump travelling mechanism wheel (3) which is used for moving under the condition that the drainage channel is blocked and dredging the drainage channel.
6. The system of claim 1, wherein the system comprises: the rainfall sensors (5) are arranged on the urban ground surface (6) every Lm to cover the whole city; l is a preset value, and L > 0.
7. The system of claim 1, wherein the system comprises: the drainage channel comprises a drainage channel positioned on the ground surface (6) and an underground drainage pipe; the drainage channel with the drain pipe all has a plurality ofly, constitutes urban drainage system jointly.
8. The system of claim 2, wherein the system comprises: the cloud end collects the urban drainage condition and the rainfall condition through the water pump sensor (4) and the rainfall sensor (5), and plans a route of the rainfall to the river (13), and specifically comprises the following steps:
s101: the cloud (1) collects rainfall data detected by the rainfall sensor (5) installed in a city in a wireless network mode, and summarizes the rainfall data to obtain the total rainfall of the city;
s102: the cloud (1) collects the drainage conditions detected by the water pump sensors (4) installed in cities in a wireless network manner, and analyzes the drainage conditions to obtain the drainage channels with faults, the drainage channels with normal drainage and the total drainage quantity of the current drainage channels in the cities;
s103: the cloud end (1) sends a control signal to a control driving device in a normally-drained drainage channel according to the principle that the current total drainage is larger than the total rainfall of a city, and adjusts the rotating speed of a fan blade (2) of a water pump by increasing the rotating speed of a motor so as to increase the flow speed of a water pump (7) in the normally-drained drainage channel and increase the drainage; for the water drainage channel with the fault, temporarily reducing the rotating speed of the motor to adjust the rotating speed of the fan blade (2) of the water pump so as to reduce the flow speed of the water pump (7) in the water drainage channel with the fault and reduce the water drainage amount; meanwhile, the cloud (1) informs related personnel of the specific position of the faulty drainage pipeline in a short message manner;
s104: related personnel change the position of the water pump (7) in the drainage pipeline with the fault through the water pump travelling mechanism wheel (3) to dredge the blockage, or replace the water pump (7) so as to maintain the drainage pipeline with the fault and restore the drainage pipeline to a drainage channel with normal drainage;
s105: high in the clouds (1) is to recovering for normal excretory drain, through the rotational speed that improves motor speed regulation water pump flabellum (2) to increase the velocity of flow that resumes for water pump (7) in the normal excretory drain, further increase displacement, execute the drainage task.
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Application publication date: 20200811