Baselevel data quick response platform for emergency management

Abstract

The invention relates to a basic data quick response platform for emergency management, which is applied to the field of big data, public base stations are distributed on streets to form mutually communicated mesh areas, the public base stations are communicated with gutter inlets, a basic public platform is provided for the masses through the public base stations, and the public base stations are provided for the masses. Pedestrians can freely feed back on the public base station when street ponding occurs, and according to feedback information of the masses, the water pressure sensor is combined to monitor ponding inside the gutter inlet and comprehensively verify the ponding condition, so that a municipal administration department can quickly acquire the road ponding conditions of multiple areas of an urban area, and the urban area is protected. And after the authenticity of the accumulated water is judged, the accumulated water can be dispatched and discharged through an intercommunication area formed by the public base stations, and emergency drainage operation can be effectively carried out on the street before the municipal administration department arranges personnel for treatment, so that the traffic safety of pedestrians and vehicles on the road is improved.

Description

Technical Field

[0001] The present invention relates to a grassroots data rapid response platform, in particular to a grassroots data rapid response platform for emergency management applied in the field of big data. Background Art

[0002] Emergency management refers to the critical activities of public institutions in the face of emergencies, ensuring the safety of life, health, and property by implementing a series of prevention, response, and recovery measures. These measures cover the entire process of prevention, response, and recovery, and rely on the effective application of multiple tools, including science, technology, planning, and management.

[0003] For example, the specification of Chinese patent CN118446865B discloses an intelligent platform for grassroots emergency management, including a communication and command system, an energy supply system, a mobile micro-firefighting system, a publicity and warning system, an environmental monitoring system, a biochemical detection system, a disposal tool system, and a driving and emergency conversion system. The communication and command system is used to monitor the disaster situation in the monitored area in real time and feedback the disaster situation to the service end; the mobile micro-firefighting system is used to command grassroots emergency management personnel to perform fire-fighting operations through preset fire-fighting equipment when the disaster situation is a fire.

[0004] Chinese patent CN115205738B is applied to an emergency drainage method and system for urban waterlogging. A first sample set is constructed using processed waterlogging images and a trained cyclic generative adversarial network model. A MobileNetv2 model is trained based on the first sample set to obtain a waterlogging degree recognition model. The real-time waterlogging images are processed using the waterlogging degree recognition model. The method of the present invention can achieve timely and accurate monitoring of waterlogging points, and can actively provide accurate drainage plans.

[0005] In the existing technology, on rainy days, it is difficult for managers to promptly learn about the overall waterlogging situation in the urban area and deal with the waterlogging on the roads in a timely manner, which can easily cause inconvenience to pedestrians and vehicles on the road, and even cause problems with the safety of people's lives and property. Summary of the Invention

[0006] In view of the above-mentioned prior art, the technical problem to be solved by the present invention is that on rainy days, it is difficult for the prior art to timely know the overall waterlogging situation in the urban area and to carry out emergency drainage treatment.

[0007] In order to solve the above problems, the application provides a grassroots data rapid response platform for emergency management, which comprises an emergency drainage system and a plurality of public base stations, the connection between the plurality of public base stations forms a mesh structure, the street where the plurality of public base stations located in the central area of the mesh structure is a water-logging prone street, the street where the plurality of public base stations located in the outer edge area of the mesh structure is a drainage prone street, the plurality of public base stations are arranged near the street rainwater inlet, and the pre-buried pipe is in internal communication with the corresponding rainwater inlet, the water pressure sensor is fixedly connected inside the pipe opening of the pre-buried pipe close to the rainwater inlet, the plurality of public base stations are in mutual communication through the water conveying pipeline, and water circulation is realized between any two public base stations.

[0008] The use method of the above-mentioned grassroots data rapid response platform for emergency management comprises the following steps:

[0009] Step one, personnel connect the mobile terminal with the public base station, reflect the road waterlogging situation to it, and input the actual waterlogging data, the waterlogging data including the road A information and the waterlogging image existing waterlogging;

[0010] Step two, the public base station preliminarily verifies the waterlogging situation of road A according to the reflection data of the masses and the meteorological data of the day, and then obtains the monitoring data of a plurality of water pressure sensors near road A for further verification;

[0011] Step three, when the data of at least one water pressure sensor changes obviously, the following automatic drainage operation is performed:

[0012] Suppose that the public base station corresponding to the water pressure sensor whose data changes is pumping platform A, and the public base stations corresponding to the water pressure sensors whose data does not change are selected platforms, a plurality of selected platforms located on the drainage prone street are selected as drainage platforms B;

[0013] Start the pumping platform A and the drainage platform B, the pumping platform A pumps out the water from the corresponding rainwater inlet, and then transmits the water to a plurality of drainage platforms B through a plurality of water conveying pipelines, the drainage platform B drains the water into the corresponding rainwater inlet, so that the water enters the drainage pipe channel, and the water outside the waterlogging is drained.

[0014] As a further supplement of the application, the public base station comprises a station terminal fixedly installed on the ground, a touch screen panel fixedly connected to the outer end of the station terminal, a double-way water pump fixedly connected to the inside of the station terminal, one end of the pre-buried pipe penetrating through the station terminal and fixedly communicated with one port of the double-way water pump, a water collecting cavity opened in the inside of the station terminal, and another port of the double-way water pump communicated with the water collecting cavity through a water pipe.

[0015] As a further supplement to the present application, the side wall of the water collection chamber is fixedly connected with an extension pipe extending to the outside. The water supply pipeline includes a main pipe, a multi-way pipe and a long branch pipe. One end of the main pipe is connected to the extension pipe through a flange, and the other end of the main pipe is connected to one of the pipe mouth flanges of the multi-way pipe. The long branch pipe flange is connected between a pair of multi-way pipes.

[0016] As a further supplement to the present application, the extension tube includes a short tube with a plurality of microholes opened on the top of the short tube. The outer end of the short tube is wrapped with a mesh cloth, and the mesh cloth covers the outer ends of the openings of the microholes.

[0017] As a further supplement to this application, the emergency drainage system includes an operating unit, a connection unit, a grassroots feedback unit, an automatic emergency unit, a public feedback unit and an active emergency unit. The touch screen panel is electrically connected to the operating unit, the water pressure sensor is connected to the grassroots feedback unit, the bidirectional water pump is electrically connected to the automatic emergency unit, and the connection unit is used to connect to the user's mobile phone terminal.

[0018] As a further supplement to this application, a storage groove is opened at the side end of the embedded pipe, a movable door is hinged at the edge end of the storage groove, an electronic lock is connected between the movable door and the inner wall of the storage groove, the electronic lock is connected to the active emergency unit, and a hose is placed inside the storage groove.

[0019] As a further supplement to this application, the long branch pipe includes multiple branch pipe bodies, and two-way pipes are flange-connected between adjacent branch pipe bodies. A sealing pipe is threadedly connected to one of the pipe ends of the two-way pipe, and the connector of the hose matches the pipe end of the two-way pipe.

[0020] As a further supplement to the present application, a filter is fixedly connected to the pipe end of the embedded pipe extending to the inside of the rainwater outlet.

[0021] A grassroots data rapid response platform for emergency management, the method of using which further includes the following steps:

[0022] Step 4. In step 2, when the data from multiple water pressure sensors do not change significantly, it indicates that Road A does not belong to the street where any public base station is located. At this time, the public base station sends the water accumulation situation of Road A to the traffic management system. The traffic management system arranges staff to go to Road A, and the staff uses the public base station to actively drain Road A.

[0023] As a further supplement to this application, the active drainage operation includes the following operations: the staff connects the mobile phone terminal to the public base station, logs in to the public base station, opens the electronic lock through the active emergency unit, takes out the hose, and connects the hose to the two-way pipe closest to Road A, and then starts the drainage platform B, and extracts the accumulated water on Road A through the water pipe and hose and discharges it into the drainage channel.

[0024] To sum up, this application forms an interconnected network area by distributing public base stations on the streets, and the public base stations are connected to the storm drains. The public base stations provide a grassroots public platform for the public, so that pedestrians can freely provide feedback on the public base stations when street water accumulates. According to the feedback information from the public, combined with the water pressure sensor to monitor the water accumulation inside the storm drain, the water accumulation situation is comprehensively verified, so that the municipal management department can quickly obtain the road water accumulation situation in multiple areas of the city, and after determining the authenticity of the water accumulation, the interconnected area composed of public base stations can be used to dispatch and discharge the water. Before the municipal management department arranges personnel to deal with it, the street can be effectively drained of emergency drainage operations, thereby improving the traffic safety of pedestrians and vehicles on the road. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 This is a system block diagram of the first and second implementation modes of this application;

[0026] Figure 2 This is a schematic diagram of the distribution of public base stations on the street in the first and second implementation modes of this application;

[0027] Figure 3 A mesh structure formed by the public base stations of the first and second embodiments of this application;

[0028] Figure 4 Schematic diagram of the distribution of water pipelines between public base stations in the first and second implementation modes of this application;

[0029] Figure 5 This is a front structural diagram of a public base station according to the first and second implementation modes of the present application;

[0030] Figure 6 The three-dimensional structure of the public base station of the first and second embodiments of this application Figure 1 ;

[0031] Figure 7 The three-dimensional structure of the public base station of the first and second embodiments of this application Figure 2 ;

[0032] Figure 8 The three-dimensional structure of the public base station of the first and second embodiments of this application Figure 3 ;

[0033] Figure 9 The three-dimensional structure of the public base station of the first and second embodiments of this application Figure 4 ;

[0034] Figure 10 Schematic diagram of connections between adjacent public base stations in the first and second implementation modes of this application;

[0035] Figure 11Figure 2 is a perspective view of the public base station and the water pipeline of the second embodiment of the present application;

[0036] Figure 12 Figure 3 is a schematic view of the partial side structure of the public base station of the first and second embodiments of the present application;

[0037] Figure 13 Figure 4 is a schematic view of the side structure of the hose of the second embodiment of the present application.

[0038] Explanation of figure numbers:

[0039] 1 pre-buried pipe, 2 water pressure sensor, 3 station terminal, 301 water collecting cavity, 302 storage groove, 4 bidirectional water pump, 5 touch screen panel, 6 extension pipe, 61 short pipe, 6101 micropore, 62 mesh cloth, 71 main pipeline, 72 multi-way pipe, 73 long branch pipe, 7301 branch pipe body, 7302 two-way pipe, 7303 pipe sealing element, 8 movable door, 9 hose, 10 filter screen. DETAILED DESCRIPTION

[0040] The two embodiments of the present application will be described in detail below with reference to the accompanying drawings.

[0041] First embodiment:

[0042] The present application provides a grassroots data rapid response platform for emergency management, please refer to Figure 1 , comprising an emergency drainage system and a plurality of public base stations, in combination with Figure 2 , Figure 3 and Figure 4 , the connection between the plurality of public base stations forms a mesh structure, the street where the plurality of public base stations located in the central area of the mesh structure is a waterlogging-prone street, and the street where the plurality of public base stations located in the outer edge area of the mesh structure is a water-drainage-prone street, which facilitates the drainage of water in the central area to the surrounding areas in the later stage.

[0043] In combination with Figure 5 and Figure 6 , the plurality of public base stations are arranged near the street rainwater inlet, and are in communication with the corresponding rainwater inlets through the pre-buried pipe 1, the pre-buried pipe 1 is fixedly connected with the water pressure sensor 2 inside the pipe opening near the rainwater inlet, and the water pressure sensor 2 is arranged at the manhole cover near the rainwater inlet, so that in the normal non-waterlogging condition, the water pressure sensor 2 does not monitor the water pressure data; when a street is waterlogged, the rainwater inlets in the water-covered area will inevitably be in a full water overflow state, at which time the water pressure sensor 2 will monitor obvious water pressure data, therefore, the monitoring data of the water pressure sensor 2 can effectively verify whether there is waterlogging phenomenon near the rainwater inlet.

[0044] The public base station includes a platform terminal 3 fixedly installed on the ground, the outer end of the platform terminal 3 is fixedly connected to a touch screen panel 5, the interior of the platform terminal 3 is fixedly connected to a two-way water pump 4, the end of the embedded pipe 1 away from the rainwater outlet passes through the platform terminal 3 and is fixedly connected to one port of the two-way water pump 4, a water collection chamber 301 is opened inside the platform terminal 3, and the other port of the two-way water pump 4 is connected to the water collection chamber 301 through a water pipe.

[0045] Combine Figure 2 and Figure 4 As shown, multiple public base stations are interconnected through water pipelines. The optimal setting of the pipelines is: on the basis of ensuring that water can flow between any two public base stations, the number and length of the water pipelines are minimized, the street space occupied by them and the material cost are reduced, and it is ensured that there is only one transmission path between any two public base stations.

[0046] See also Figures 7 to 10 The side wall of the water collection chamber 301 is fixedly connected with an extension pipe 6 extending to the outside. The water delivery pipeline includes a main pipe 71, a multi-way pipe 72 and a long branch pipe 73. One end of the main pipe 71 is connected to the extension pipe 6 through a flange, and the other end of the main pipe 71 is flange-connected to one of the pipe openings of the multi-way pipe 72. The long branch pipe 73 is flange-connected between a pair of multi-way pipes 72, that is, the long branch pipe 73 is connected between the multi-way pipes 72 on the two public base stations. The multi-way pipe 72 can be selected from straight pipes, tee pipes, four-way pipes, etc. according to actual conditions, depending on how many other public base stations the public base station is connected to. For example, when the public base station is connected to two other public base stations in the surrounding area, the multi-way pipe 72 adopts a tee pipe, one end of the tee pipe is connected to the multi-way pipe 72, and the other two ends are respectively connected to the multi-way pipes 72 on the other two public base stations through a pair of long branches 73.

[0047] When there is water accumulation in a stormwater outlet on a certain street or its vicinity, the two-way water pump 4 on the corresponding public base station is turned on to extract the rainwater in the stormwater outlet, and then dispersedly transported to the water collection chambers 301 of other remaining public base stations through the extension pipe 6 and the water pipeline. At the same time, the two-way water pump 4 on the public base station near the non-waterlogged area on the easily drained street is also started to extract the rainwater in the water collection chamber 301 and discharge it into the stormwater outlet without water accumulation, so that it can be discharged along the pipe.

[0048] See also Figure 12The extension tube 6 includes a short tube 61, and a plurality of micropores 6101 are opened on the short tube 61. The aperture of the micropore 6101 can be set to 5 mm. The outer end of the short tube 61 is fixedly wrapped with a mesh cloth 62, and the mesh cloth 62 covers the outer end of the opening of the micropore 6101. The number of winding circles of the mesh cloth 62 can be set to 2-3 circles. The setting of the micropore 6101 provides an air diffusion channel between the extension tube 6, the water pipe and the water collection chamber 301 and the outside world, so that when the present application is not in use, the internal gas space of the above three is not easily too high due to external light, and when it is drained, When the two-way water pump 4 is turned off and pumping and drainage are stopped, the rainwater remaining inside the above three can gradually flow out to the outside through the micropores 6101; the mesh cloth 62 plays a semi-sealed role on the micropores 6101, which does not affect the ventilation and drainage functions of the micropores 6101. At the same time, during the normal water supply and drainage process of the short pipe 61, the rainwater in the short pipe 61 is blocked by the mesh cloth 62 when passing through the micropores 6101, and is not easy to be ejected to the outside. The rainwater is absorbed by the mesh cloth 62 and is in a state of slowly overflowing outward. However, due to the slow overflow state and small overflow amount, it will not have a significant impact on the water supply and drainage process.

[0049] The emergency drainage system includes an operating unit, a computer unit, a grassroots feedback unit and an automatic emergency unit. The touch screen panel 5 is electrically connected to the operating unit, the water pressure sensor 2 is connected to the grassroots feedback unit, and the two-way water pump 4 is electrically connected to the automatic emergency unit. The computer unit is used to connect to the user's mobile phone terminal. The grassroots feedback unit is used to receive feedback information from the public and monitoring data from the water pressure sensor 2, and at the same time obtain meteorological information from the Meteorological Bureau. The waterlogging situation is verified by integrating various data. The emergency drainage system is connected to the background terminal of the municipal management department, so that municipal management department personnel can be informed of the waterlogging situation on the urban roads in a timely manner.

[0050] On rainy days, when there is water accumulation on the streets, pedestrians on the road, when passing by a nearby public base station, can connect their mobile phone terminal to the public base station through touch screen operations on the touch screen panel 5, input the street water accumulation situation on the touch screen panel 5, and send the captured street water accumulation image to the public base station through the mobile phone terminal. The automatic emergency unit verifies the street water accumulation situation reported by the pedestrians based on the content reported by the personnel, the meteorological data of the day and the monitoring data of the corresponding water pressure sensor 2, and starts the automatic drainage operation when it is determined that there is a certain degree of authenticity.

[0051] The method of using the above-mentioned grassroots data rapid response platform for emergency management includes the following steps:

[0052] Step 1: The operator connects the mobile phone terminal to the public base station, reports the road waterlogging situation, and inputs the actual waterlogging data, which includes the information of the road A with waterlogging and the waterlogging image;

[0053] This application provides a grassroots public platform for the public by setting up public base stations. On the one hand, the municipal management department can quickly obtain the road waterlogging situation in multiple areas of the city through the public's own feedback on actual rainy days. On the other hand, before the municipal management department arranges personnel to deal with it, the public base stations can be used to carry out emergency drainage operations on the streets in a timely and effective manner.

[0054] Step 2: The public base station conducts a preliminary verification of the waterlogging situation on Road A based on the public feedback data and the weather data of the day, and then obtains the monitoring data of multiple water pressure sensors 2 near Road A for further verification;

[0055] Step 3: When the data of at least one water pressure sensor 2 changes significantly, perform the following automatic drainage operation:

[0056] Assume that the public base station corresponding to the water pressure sensor 2 whose data has changed is pumping platform A, and the public base stations corresponding to the other water pressure sensors 2 whose data has not changed are candidate platforms. Select multiple candidate platforms located on the easily drained street as drainage platform B.

[0057] Start pumping platform A and drainage platform B. Pumping platform A pumps out the accumulated water from the corresponding rainwater inlet, and then transmits it to multiple drainage platforms B through multiple water pipes. Drainage platform B discharges the accumulated water into the corresponding rainwater inlet, allowing it to enter the drainage pipe, thereby realizing the external diversion and drainage of the accumulated water.

[0058] In addition, in step 2, when the public's feedback data does not contain water accumulation image information such as pictures or videos, and the local meteorological data on that day shows that there is no rain, the preliminary verification result is judged to be slightly authentic, and there is no change in the data of the water pressure sensor 2, then the automatic drainage operation will not be performed.

[0059] Combine Figure 5 As shown, the pipe end of the embedded pipe 1 extending to the inside of the rainwater outlet is fixedly connected to a filter 10. The filter 10 starts filtering the water flow entering the embedded pipe 1, making it difficult for impurities to enter the embedded pipe 1, the public base station and the water pipeline.

[0060] Second implementation method:

[0061] This embodiment adds the following structure on the basis of the first embodiment: Figure 5 and Figure 7 As shown, a storage groove 302 is provided at the side end of the embedded pipe 1, and a movable door 8 is hinged at the edge end of the storage groove 302. An electronic lock is connected between the movable door 8 and the inner wall of the storage groove 302, and the electronic lock is connected to the active emergency unit. A hose 9 is placed inside the storage groove 302. Figure 9As shown, the hose 9 is composed of a rubber hose and metal joints with both ends fixedly connected, and is conveniently stored in the storage slot 302 due to its flexible feature.

[0062] Combine Figure 10 and Figure 11 The long branch pipe 73 includes multiple branch pipe bodies 7301, and two-way pipes 7302 are flange-connected between adjacent branch pipe bodies 7301. A sealing pipe 7303 is threadedly connected to one of the pipe ends of the two-way pipe 7302, and the connector of the hose 9 matches the pipe end of the two-way pipe 7302.

[0063] The emergency drainage system also includes a public feedback unit and an active emergency unit. The public feedback unit is connected to the traffic management system and is used to send road waterlogging conditions to the traffic management system. The electronic lock is connected to the active emergency unit. The public feedback unit is used for staff to log in to the public base station (ordinary people do not need to log in to connect to the public base station).

[0064] By adding the above structure, the method for using the grassroots data rapid response platform for emergency management further includes the following steps:

[0065] Step 4: In step 2, when the data from the multiple water pressure sensors 2 do not change significantly, it indicates that Road A does not belong to the street where any public base station is located (because there is no water in the rainwater outlet, the automatic drainage operation in step 3 cannot extract the accumulated water. Therefore, in this case, the automatic drainage operation in step 3 is not performed). At this time, the public base station sends the water accumulation situation of Road A to the traffic management system. The traffic management system arranges staff to go to Road A, and the staff uses the public base station to actively drain Road A;

[0066] The active drainage operation includes the following operations: the staff connects the mobile phone terminal to the public base station, logs in to the public base station, opens the electronic lock through the active emergency unit, takes out the hose 9, connects the metal connector at one end of the hose 9 to the two-way pipe 7302 closest to the road A, and then starts the drainage platform B, and extracts the accumulated water on the road A through the water supply pipe and the hose 9 and discharges it into the drainage channel.

[0067] Specifically, the length of the hose 9 can be set to 5-10 meters. Due to the flexible characteristics of the hose 9, after the staff connects the hose 9, the metal joint at the other end of the hose 9 can be extended into the accumulated water. Because the density of the metal joint is greater than the density of rainwater, the metal joint will sink to the bottom of the accumulated water, making it convenient to draw rainwater into the interior of the hose 9; when the drainage platform B is started, the active emergency unit will start the two-way water pump 4 on the drainage platform B. Through the extraction of the two-way water pump 4, negative pressure is generated in the water supply pipe and the hose 9, thereby facilitating the extraction of accumulated water, and then transporting it to the drainage platform B through the water supply pipe, and discharged into the rainwater outlet without water accumulation through the corresponding embedded pipe 1.

[0068] In combination with the current actual demand, the above-mentioned embodiments adopted by the present application are not limited thereto, various changes made within the knowledge of those skilled in the art without departing from the concept of the present application still fall within the protection scope of the present application.

Claims

1. A grassroots data rapid response platform for emergency management, characterized by: The invention comprises an emergency drainage system and a plurality of public base stations, wherein the lines between the plurality of public base stations form a mesh structure, wherein the streets where the plurality of public base stations are located in the central area of ​​the mesh structure are prone to water accumulation, and the streets where the plurality of public base stations are located in the outer edge area of ​​the mesh structure are prone to drainage, wherein the plurality of public base stations are all arranged near the street rainwater outlets and are connected to the interior of the corresponding rainwater outlets through pre-buried pipes (1), wherein the interior of the pre-buried pipes (1) near the rainwater outlets is fixedly connected with a water pressure sensor (2), and the plurality of public base stations are interconnected through water pipes, and water flow is achieved between any two public base stations; The method of using the above-mentioned grassroots data rapid response platform for emergency management includes the following steps: Step 1: The operator connects the mobile phone terminal to the public base station, reports the road waterlogging situation, and inputs the actual waterlogging data, which includes the information of the road A with waterlogging and the waterlogging image; Step 2: The public base station conducts a preliminary verification of the waterlogging situation on Road A based on the public feedback data and the weather data of the day, and then obtains the monitoring data of multiple water pressure sensors (2) near Road A for further verification; Step 3: When the data of at least one water pressure sensor (2) changes significantly, the following automatic drainage operation is performed: Assume that the public base station corresponding to the water pressure sensor (2) whose data has changed is the pumping platform A, and the public base stations corresponding to the other water pressure sensors (2) whose data has not changed are the candidate platforms. Select multiple candidate platforms located on the streets that are easy to drain as the drainage platform B; Start pumping platform A and drainage platform B. Pumping platform A pumps out the accumulated water from the corresponding rainwater inlet, and then transmits it to multiple drainage platforms B through multiple water pipes. Drainage platform B discharges the accumulated water into the corresponding rainwater inlet, allowing it to enter the drainage pipe, thereby realizing the external diversion and drainage of the accumulated water.

2. The grassroots data rapid response platform for emergency management according to claim 1 is characterized by: The public base station comprises a platform terminal (3) fixedly installed on the ground, the outer end of the platform terminal (3) is fixedly connected to a touch screen panel (5), the interior of the platform terminal (3) is fixedly connected to a two-way water pump (4), one end of the pre-buried pipe (1) away from the rainwater outlet passes through the platform terminal (3) and is fixedly connected to one port of the two-way water pump (4), a water collection cavity (301) is provided inside the platform terminal (3), and the other port of the two-way water pump (4) is connected to the water collection cavity (301) through a water pipe.

3. The grassroots data rapid response platform for emergency management according to claim 2 is characterized by: An extension pipe (6) extending to the outside is fixedly connected to the side wall of the water collection chamber (301); the water delivery pipeline comprises a main pipeline (71), a multi-way pipe (72) and a long branch pipe (73); one end of the main pipeline (71) is connected to the extension pipe (6) via a flange; the other end of the main pipeline (71) is flange-connected to one of the pipe openings of the multi-way pipe (72); and the long branch pipe (73) is flange-connected between a pair of multi-way pipes (72).

4. The grassroots data rapid response platform for emergency management according to claim 3 is characterized by: The extension tube (6) comprises a short tube (61), a plurality of micropores (6101) are provided on the short tube (61), a mesh cloth (62) is wrapped around the outer end of the short tube (61), and the mesh cloth (62) covers the outer end of the opening of the micropore (6101).

5. The grassroots data rapid response platform for emergency management according to claim 3 is characterized by: The emergency drainage system comprises an operating unit, a computer connection unit, a base feedback unit, an automatic emergency unit, a public feedback unit and an active emergency unit; the touch screen panel (5) is electrically connected to the operating unit; the water pressure sensor (2) is connected to the base feedback unit; the bidirectional water pump (4) is electrically connected to the automatic emergency unit; and the computer connection unit is used to connect to a user's mobile phone terminal.

6. The grassroots data rapid response platform for emergency management according to claim 5, characterized in that: A storage groove (302) is provided at the side end of the embedded pipe (1), a movable door (8) is hinged at the edge end of the storage groove (302), an electronic lock is connected between the movable door (8) and the inner wall of the storage groove (302), and the electronic lock is connected to the active emergency unit. A hose (9) is placed inside the storage groove (302).

7. The grassroots data rapid response platform for emergency management according to claim 6, characterized in that: The long branch pipe (73) includes a plurality of branch pipe bodies (7301), and two-way pipes (7302) are flange-connected between adjacent branch pipe bodies (7301). A sealing member (7303) is threadedly connected to one of the pipe ends of the two-way pipe (7302), and the joint of the hose (9) matches the pipe end of the two-way pipe (7302).

8. The grassroots data rapid response platform for emergency management according to claim 1 is characterized by: The pipe end of the embedded pipe (1) extending to the inside of the rainwater outlet is fixedly connected to a filter screen (10).

9. The grassroots data rapid response platform for emergency management according to claim 7, characterized in that: The method of use also includes the following steps: Step 4. In step 2, when the data of multiple water pressure sensors (2) do not change significantly, it indicates that Road A does not belong to the street where any public base station is located. At this time, the public base station sends the water accumulation situation of Road A to the traffic management system. The traffic management system arranges staff to go to Road A, and the staff uses the public base station to actively drain water from Road A.

10. The grassroots data rapid response platform for emergency management according to claim 9, characterized in that: The active drainage operation includes the following operations: the staff connects the mobile phone terminal to the public base station, logs in to the public base station, opens the electronic lock through the active emergency unit, takes out the hose (9), connects the hose (9) to the two-way pipe (7302) closest to the road A, and then starts the drainage platform B to extract the accumulated water on the road A through the water pipeline and the hose (9) and discharge it into the drainage channel.

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