Urban flood control dam device

Abstract

The application discloses a kind of urban flood control embankment devices of quick deployment of flood drainage, including flood control board, the flood control board is set to L-shaped structure;Supporting mechanism is hingedly arranged in the side of the flood control board, the lower portion of the supporting mechanism is hingedly arranged with adjustable board group, inclined bracing plate is hingedly arranged above the adjustable board group, and the top of the inclined bracing plate is adjustably connected with supporting mechanism;Detachable connection mechanism is arranged at the junction of adjacent flood control board;The application sets flood control board, and supporting mechanism is adjustably connected by hinge in the side of flood control board, when it is needed to put into flood control work, adjust supporting mechanism vertically flood control board arrangement, or supporting mechanism and flood control board are in non-parallel state, flood control board can be placed stably under the action of supporting mechanism, when ending flood control task, adjust supporting mechanism parallel flood control board arrangement, i.e. supporting mechanism is set to fit frame, reduce the size of flood control embankment device.

Description

Technical Field

[0001] This invention relates to the field of flood control equipment, specifically to a rapid deployment flood control dike device for urban drainage. Background Technology

[0002] Heavy rain brings a large amount of rainwater in a short period of time. If the storm drain pipes in the city are small in diameter or the drain outlets are blocked by garbage, the rainwater will accumulate on the roads, causing traffic paralysis, making it difficult for pedestrians to pass, and in severe cases, it may even flood the ground floor of buildings (such as underground parking lots and subways), damaging facilities and items.

[0003] To prevent damage to lower-level buildings, common flood control methods include stacking sandbags and constructing concrete flood walls.

[0004] Concrete flood walls, as a relatively robust and permanent flood control facility, have played an important role in some water conservancy projects. However, they also have significant limitations. First, concrete flood walls are fixed structures with high construction costs, requiring not only large quantities of building materials but also complex construction processes, including foundation treatment, formwork erection, concrete pouring, and curing. Second, these fixed flood walls lack flexibility and cannot be dynamically adjusted according to different water level changes and flood conditions.

[0005] When floods strike, people manually move sandbags and pile them up along the sides of buildings to form temporary water barriers. However, sandbag flood control presents several problems. Firstly, filling and transporting sandbags relies heavily on manpower, resulting in high labor intensity and low efficiency. In emergency flood situations, it is difficult to complete the construction of sandbag dikes of sufficient length and height in a short time. Secondly, sandbags rely solely on mutual compression and friction for stability, leading to poor overall integrity and stability. After prolonged immersion and impact by floodwaters, sandbags are prone to displacement and collapse, causing flood leakage and even dike breaches.

[0006] To address the problems of the time-consuming and laborious process of stacking sandbags and the poor flexibility of concrete flood control walls, some new flood control equipment has emerged on the market. For example, a Chinese patent with publication number CN109356092B discloses a flood control dike for water conservancy projects. Support frame one, support frame two, support frame three, and support frame four are located at the four corners of the flood control wall. Support frame one and support frame two have a sliding groove one on one side of their upper ends, and support frame three and support frame four have a sliding groove two on one side of their upper ends. The movable frame has two sets of rollers one that cooperate with the sliding groove one on one side, and two sets of rollers two that cooperate with the sliding groove two on one side of the movable frame near the sliding groove two.

[0007] The aforementioned patent describes a flood control dike with an adjustable device that slides diagonally up and down on the floodwall. This allows the dike's height to be raised very quickly during floods, nearly doubling its height and significantly improving its flood control effectiveness. However, while the dike provided by this patent can be quickly deployed, its overall structure is not adjustable. This means that when the dike is not in use, it requires considerable storage space, increasing storage costs. Summary of the Invention

[0008] The purpose of this invention is to provide a rapid deployment flood control dike device for urban drainage, which aims to improve the problem that traditional flood control measures cannot be deployed quickly and that new flood control measures require a large storage space.

[0009] The present invention is implemented as follows: a rapid deployment flood control dike device for urban drainage includes a flood control plate, which is configured as an L-shaped structure; a support mechanism is hinged to the side of the flood control plate, an adjustable plate assembly is hinged to the lower part of the support mechanism, and a diagonal brace is hinged to the upper part of the adjustable plate assembly, the top of the diagonal brace being adjustablely connected to the support mechanism; a connecting mechanism is detachably installed at the junction of adjacent flood control plates; a detection mechanism is detachably installed on a certain flood control plate, the detection mechanism including a liquid level sensor and supporting components, the supporting components being connected to the liquid level sensor.

[0010] Preferably, the support mechanism is configured as a triangular flag structure, with multiple hinges on the side of the support mechanism and the hinges connected to the frame of the flood control plate. The support mechanism is also arranged along the height direction of the flood control plate.

[0011] Preferably, the adjustable board assembly includes a main board, a first support board, and a second support board. The first support board and the second support board are located on the same side of the main board and are hinged together at their ends. The ends of the first support board and the second support board that are far apart from each other are respectively hinged to the main board and adjustablely connected.

[0012] Preferably, the motherboard is hinged at the bottom of the support mechanism, and a receiving groove is provided on the lower side. A convex shaft is fixedly provided at the end of the receiving groove, and a sliding hole is provided on the upper side, with the sliding hole arranged along the length direction of the receiving groove.

[0013] Preferably, a drive shaft is fixedly provided at the end of the second support plate, the drive shaft is provided through the sliding hole, and a nut is threaded on the top. The end of the first support plate away from the second support plate is connected to the convex shaft through a bearing.

[0014] Preferably, the bottom of the brace plate is hinged to the main plate, and the top is hinged to a threaded tube. The threaded tube is located above the sliding hole of the support mechanism and is threaded onto the adjusting stud. The end of the adjusting stud is connected through the support mechanism via a bearing.

[0015] Preferably, a base plate is fixedly installed below the internally threaded pipe, and a plug plate is fixedly installed at the bottom of the base plate. At the same time, a top cylinder is installed below it, and a connecting pipe is fixedly installed at the bottom of the top cylinder. The connecting pipe has a through hole, and the bottom of the top cylinder has a countersunk hole. The countersunk hole and the through hole are directly opposite each other, and a bolt is installed through them. The plug plate is inserted into the top cylinder, and the bolt thread is inserted into the plug plate. The base plate and the top cylinder are provided with through sliding holes.

[0016] Preferably, the connecting mechanism includes a top plate, two insert plates and two sleeves. The two insert plates are vertically arranged below the top plate, and their adjacent sides are both set as inclined surfaces. The two sleeves are respectively fitted onto the two insert plates and are respectively connected to the frames of two adjacent flood control plates.

[0017] Preferably, the end of the frame is provided with a buckle groove, and an inlet / outlet groove is provided at the top of the buckle groove. A buckle plate is fixedly provided on the side of the sleeve, and the buckle plate passes through the inlet / outlet groove and is installed in the buckle groove.

[0018] Preferably, the detection mechanism further includes a support frame, which includes a vertical plate, a top plate, and a clamping plate. Hoops are provided at both the upper and lower ends of the vertical plate on the same side. The top plate is located on the top of the vertical plate on the side away from the hoops. An end tube is provided at the end of the top plate, and a threaded post is connected through the middle via a bearing. The clamping plate is threaded onto the bottom of the threaded post, and an end rod is fixedly provided at its end, with the top of the end rod inserted into the end tube. The vertical plate, top plate, and clamping plate are fitted onto the top of the flood control plate and the frame, with the end of the clamping plate near the vertical plate extending into the frame.

[0019] Compared with the prior art, the beneficial effects of the present invention are:

[0020] This invention features a flood control plate with a support mechanism connected to its side via hinges. When flood control work is required, the support mechanism can be adjusted to be perpendicular to the flood control plate, or the support mechanism can be placed in a non-parallel state with the flood control plate. This allows the flood control plate to be stably supported under the action of the support mechanism. After the flood control task is completed, the support mechanism can be adjusted to be parallel to the flood control plate, i.e., the support mechanism can be set to fit against the frame. This reduces the size of the flood control dike components, facilitates the stacking of multiple flood control dikes, enables rapid deployment of flood control dikes, and avoids occupying a large space when storing flood control dikes.

[0021] The present invention provides an adjustable plate assembly, and an adjustable inclined brace is provided between the adjustable plate assembly and the support mechanism. The inclined angle of the adjustable plate assembly can be adjusted by adjusting the inclined angle of the inclined brace, thereby providing support to enhance the flood control plate's resistance to the force of water accumulation.

[0022] The present invention provides a first support plate and a second support plate, which are hinged together and adjustable on the side of the main board. The state of the adjustable plate group can be adjusted by adjusting the state of the first support plate and the second support plate, thereby enhancing the stability of the adjustable plate group and providing support. Attached Figure Description

[0023] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0024] Figure 2 This is a schematic diagram of the connection mechanism of the present invention;

[0025] Figure 3 This is a schematic diagram of the sleeve and frame structure of the present invention;

[0026] Figure 4 This is a structural schematic diagram of the support mechanism, adjustable plate assembly, and diagonal brace of the present invention;

[0027] Figure 5 This is a schematic diagram of the support mechanism of the present invention;

[0028] Figure 6 This is a schematic diagram of the structure of the diagonal brace plate of the present invention;

[0029] Figure 7 This is a schematic diagram of the internally threaded tube of the present invention;

[0030] Figure 8 This is a schematic diagram of the adjustable plate assembly of the present invention;

[0031] Figure 9 This is a schematic diagram of the structure of the motherboard of this invention;

[0032] Figure 10 This is a schematic diagram of the structure of the first support plate and the second support plate of the present invention;

[0033] Figure 11 This is a schematic diagram of the detection mechanism of the present invention;

[0034] Figure 12 This is a schematic diagram of the support frame of the present invention;

[0035] Figure 13 This is a schematic diagram of the structure of the accessory of the present invention.

[0036] In the diagram: 1. Flood control board; 11. Frame; 12. Snap-on groove; 2. Connecting mechanism; 21. First top plate; 22. Insert plate; 23. Sleeve; 24. Snap-on plate; 3. Support mechanism; 31. Adjusting stud; 32. Sliding hole; 33. Hinge; 4. Detection mechanism; 41. Liquid level sensor; 42. Support frame; 421. Vertical plate; 422. Second top plate; 423. Clamp; 424. End pipe; 425. Screw; 426. Thread 427. Column; 428. Clamping plate; 43. End rod; 43. Matching parts; 431. Control box; 432. Bracket; 433. Battery; 5. Adjustable plate assembly; 51. Main board; 511. Sliding hole; 512. Receiving groove; 513. Protruding shaft; 52. First support plate; 53. Second support plate; 54. Drive shaft; 6. Diagonal brace plate; 61. Internally threaded pipe; 62. Insertion plate; 63. Top cylinder; 64. Connecting pipe; 65. Through hole; 66. Base plate. Detailed Implementation

[0037] In this invention, unless otherwise explicitly specified and limited, the terms "installation," "connection," "linking," and "fixing," etc., should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.

[0038] The following description, in conjunction with the accompanying drawings and specific embodiments, provides further details:

[0039] Example 1

[0040] like Figure 1-10 As shown, in order to enable rapid deployment of flood control dikes and avoid occupying a large space when storing them, this embodiment provides a new flood control dike device. This flood control dike is designed with a foldable structure; that is, when needed, the dike can be expanded for rapid deployment, and after the flood control task is completed, the dike can be stored away, reducing its size and thus minimizing the space it occupies during storage.

[0041] Specifically, the flood control dike components include a flood control plate 1 and a support mechanism 3. The flood control plate 1 is designed with an L-shaped structure, and a frame 11 is fixedly installed on its side. The support mechanism 3 is located on the side of the frame 11 away from the flood control plate 1, and its state can be changed according to needs. For example, when flood control work is required, the support mechanism 3 can be adjusted to be perpendicular to the flood control plate 1, or the support mechanism 3 can be in a non-parallel state with the flood control plate 1, so that the flood control plate 1 is stably supported under the action of the support mechanism 3 to achieve flood control. For another example, after the flood control task is completed, the support mechanism 3 can be adjusted to be parallel to the flood control plate 1, that is, the support mechanism 3 can be set to fit against the frame 11, reducing the size of the flood control dike components and facilitating the stacking of multiple flood control dikes.

[0042] In order to adjustably set the support mechanism 3 on the side of the frame 11, the support mechanism 3 is set along the height direction of the flood control plate 1. Multiple hinges 33 are set on the side of the support mechanism 3, and the hinges 33 are connected to the frame 11 of the flood control plate 1. Under the action of the hinges 33, the support mechanism 3 and the frame 11 are hingedly connected, so the state of the support mechanism 3 can be adjusted.

[0043] To ensure the stable placement of the flood control dike during flood control operations, the support mechanism 3 is designed as a triangular flag structure. An adjustable plate assembly 5 is connected to the bottom of the support mechanism 3 via hinges, a central shaft, or bearings. A diagonal brace 6 is hinged above the adjustable plate assembly 5, and the top of the diagonal brace 6 is adjustablely connected to the support mechanism 3. With this configuration, the tilt angle of the diagonal brace 6 can be adjusted by changing the position of its top relative to the support mechanism 3, thereby adjusting the tilt state of the adjustable plate assembly 5. This allows the adjustable plate assembly 5 to be installed flush with the ground, achieving diagonal reinforcement of the flood control dike 1.

[0044] To enable adjustment of the adjustable plate assembly 5, the bottom of the diagonal brace 6 is hinged to the main plate 51, and the top is hinged to an internally threaded tube 61. The internally threaded tube 61 is positioned above the sliding hole 32 of the support mechanism 3 and is threaded onto the adjusting stud 31. The end of the adjusting stud 31 is connected through the support mechanism 3 via a bearing. By rotating the adjusting stud 31, the internally threaded tube 61 can be controlled to move along the length direction of the sliding hole 32, thereby adjusting the top position of the diagonal brace 6.

[0045] To facilitate the disassembly and assembly of the internally threaded tube 61 as needed, a base plate 66 is fixedly installed below the internally threaded tube 61, and a top cylinder 63 is detachably installed below the base plate 66. The base plate 66 and the top cylinder 63 are spliced ​​together to form an I-beam structure, and a through sliding hole 32 is provided to achieve stable installation of the internally threaded tube 61 and to facilitate the disassembly of the internally threaded tube 61 as needed.

[0046] Specifically, a plug-in plate 62 is fixedly installed at the bottom of the base plate 66, and a top cylinder 63 is installed below it. A connecting pipe 64 is fixedly installed at the bottom of the top cylinder 63. A through hole 65 is provided on the connecting pipe 64, and a countersunk hole is provided at the bottom of the top cylinder 63. The countersunk hole and the through hole 65 are directly opposite each other, and a bolt is inserted through them. The plug-in plate 62 is inserted into the top cylinder 63, and the bolt thread is inserted into the plug-in plate 62. Under the action of the bolt, the plug-in plate 62 is stably installed in the top cylinder 63, which facilitates the adjustment of the position of the top of the diagonal brace plate 6 when the internal threaded pipe 61 moves. In addition, the connecting pipe 64 is hinged to the top of the diagonal brace plate 6 via a central shaft and bearings.

[0047] To further enhance the stability of the flood control board 1, the adjustable board assembly 5 is configured with adjustable dimensions, allowing the contact area with the bottom surface to be adjusted as needed, thereby improving its stability. Specifically, the adjustable board assembly 5 includes a main board 51, a first support plate 52, and a second support plate 53. The first support plate 52 and the second support plate 53 are located on the same side of the main board 51, and their ends are connected by hinges or a central shaft and bearings. Simultaneously, the ends of the first support plate 52 and the second support plate 53 that are far apart from each other are respectively hinged to and adjustablely connected to the main board 51. With this structure, the angle between the first support plate 52 and the second support plate 53 can be adjusted by controlling the movement of the end of the first support plate 52 relative to the main board 51, and the junction of the first support plate 52 and the second support plate 53 can be made to protrude from the main board 51, thus allowing the main board 51 to be stably placed on the ground.

[0048] Specifically, the main board 51 is hinged to the bottom of the support mechanism 3, and has a receiving groove 512 on its lower side. A convex shaft 513 is fixedly installed at the end of the receiving groove 512, and a sliding hole 511 is provided on its upper side, with the sliding hole 511 arranged along the length of the receiving groove 512. The end of the first support plate 52 away from the second support plate 53 is connected to the convex shaft 513 via a bearing. A drive shaft 54 ​​is fixedly installed at the end of the second support plate 53, passing through the sliding hole 511, and a nut is threaded onto its top. Therefore, after rotating the nut to release the restriction of the drive shaft 54, the drive shaft 54 ​​can be pulled to move, thereby adjusting the angle between the first support plate 52 and the second support plate 53. After adjusting the angle between the first support plate 52 and the second support plate 53, rotating the nut in the opposite direction can control the drive shaft 54 ​​to be stably installed relative to the main board 51, forcing the adjustable plate assembly 5 to maintain a stable shape.

[0049] To ensure a stable connection between adjacent flood control panels 1, a connecting mechanism 2 is provided at the junction of adjacent flood control panels 1. Under the action of the connecting mechanism 2, adjacent flood control panels 1 and frames 11 can be tightly fitted together. To increase the sealing performance of adjacent flood control panels 1, a sealing layer can be provided at the junction of adjacent flood control panels 1 and frames 11.

[0050] Specifically, the connecting mechanism 2 includes a first top plate 21, two insert plates 22, and two sleeves 23. The two sleeves 23 are detachably connected to the frames 11 of two adjacent flood control panels 1. The two insert plates 22 are vertically positioned below the first top plate 21, and their adjacent sides are both inclined surfaces, forming a frustum-shaped gap between the two insert plates 22, with the lower end larger than the upper end. When the two insert plates 22 are inserted into two adjacent sleeves 23, the resulting characteristics of the insert plates 22 can be used to bring the adjacent sleeves 23 closer together, forcing the adjacent flood control panels 1 and frames 11 to be tightly connected, and providing convenience for quickly disassembling the flood control panels 1 as needed.

[0051] To achieve a detachable connection between the sleeve 23 and the frame 11, a snap-fit ​​groove 12 is provided at the end of the frame 11, and an inlet / outlet groove is provided at the top of the snap-fit ​​groove 12. A snap-fit ​​plate 24 is fixedly provided on the side of the sleeve 23. The snap-fit ​​plate 24 has the same cross-section and size as the snap-fit ​​groove 12. At the same time, the size of the inlet / outlet groove is larger than that of the snap-fit ​​plate 24. Therefore, the snap-fit ​​plate 24 passes through the inlet / outlet groove and is installed in the snap-fit ​​groove 12. The connection between the sleeve 23 and the frame 11 is achieved through the cooperation of the snap-fit ​​plate 24 and the snap-fit ​​groove 12.

[0052] Example 2

[0053] like Figure 1 , Figure 11-13 As shown in Example 1, in order to monitor the depth of water accumulation at the flood control board 1 in real time and provide a reference for flood control regulation, a detection mechanism 4 can be installed on the flood control board 1 and the frame 11. The detection mechanism 4 can monitor the depth of water accumulation in real time and report to the command center, which can facilitate the command center to adjust the flood control work appropriately according to the needs.

[0054] Specifically, the detection mechanism 4 includes a liquid level sensor 41 (which can be configured as a float-type liquid level sensor), a support frame 42, and a matching component 43, with the matching component 43 connected to the liquid level sensor 41. The support frame 42 is fitted onto the flood control plate 1 and the frame 11, and is located on the side of the flood control plate 1 away from the frame 11. Meanwhile, the liquid level sensor 41 is installed on the side of the support frame 42 away from the flood control plate 1, with its bottom extending into the accumulated water. The matching component 43 is located on the top of the support frame 42 and provides power for the operation of the liquid level sensor 41, while also enabling information transmission. Therefore, the water depth can be monitored under the operation of the liquid level sensor 41.

[0055] Specifically, the accessory 43 includes a control box 431, a bracket 432, and a battery 433. The top of the bracket 432 is fitted onto the screw 425 of the second top plate 422, and a nut is threaded onto the end of the screw 425. The battery 433 is mounted on the bracket 432, and the control box 431 is located below the bracket 432. The control box 431 contains a controller (such as a PLC or MCU), relays, contactors, a switching power supply, and terminal blocks. If the level sensor 41 outputs an analog voltage or current signal, and the signal amplitude and type meet the input requirements of the controller (such as a PLC or MCU) in the control box 431, the signal output terminal of the level sensor 41 can be directly connected to the analog input port of the controller via a shielded cable. When the analog signal output by the level sensor 41 is weak (such as a millivolt-level signal) or has significant interference, it needs to pass through a signal conditioning module first. The signal output terminal of the level sensor 41 is connected to the input terminal of the signal conditioning module via a cable. The signal conditioning module amplifies (e.g., with an amplifier) ​​and filters (e.g., with an RC filter) the signal before outputting the processed signal to the analog input port of the controller. Battery 433 can also be connected to the input of a power module (such as a switching power supply or UPS) inside the control box.

[0056] Ethernet interfaces are a common method for data transmission between the control box and the control center. Devices in the control box (such as PLCs) can use Ethernet interface modules to encapsulate liquid level data and device status information according to the TCP / IP protocol and then send it to the server located at the control center. If the controller itself lacks robust data transmission capabilities, a data acquisition card can be installed inside the control box. The data acquisition card can collect data from the liquid level sensor and status information from other devices in the control box (such as relay status and power voltage), and convert this data into a format suitable for network transmission. For example, the data acquisition card can convert analog liquid level signals into digital signals, package them according to a specific protocol (such as Modbus TCP), and then send them to the control center through a communication interface module. Data acquisition cards typically have multiple input channels, allowing simultaneous acquisition of data from multiple sensors, and offer high sampling frequencies and resolutions to meet diverse application requirements.

[0057] To stably install the detection mechanism 4, the support frame 42 includes a vertical plate 421, a second top plate 422, and a clamping plate 427. Clamps 423 are provided at both the top and bottom of the vertical plate 421 on the same side. The top and bottom of the liquid level sensor 41 rod pass through the clamps 423, thus ensuring stable installation of the liquid level sensor 41 relative to the support frame 42. The second top plate 422 is located at the top of the vertical plate 421 on the side away from the clamps 423. An end tube 424 is provided at the end of the second top plate 422, and a threaded post 426 is connected through the middle via a bearing. The clamping plate 427 is threaded onto the bottom of the threaded post 426, and an end rod 428 is fixedly provided at its end. The top of the end rod 428 is inserted into the end tube 424. Therefore, rotating the threaded post 426 controls the raising and lowering of the clamping plate 427. Because the end of the clamping plate 427 adjacent to the vertical plate 421 extends into the frame 11, the clamping plate 427 can cooperate with the second top plate 422 to clamp the frame 11, so that the support frame 42 is stably installed relative to the frame 11 and the flood control plate 1, and provides convenience for disassembling the support frame 42 as needed.

[0058] The above are merely preferred embodiments of the present invention and are not intended to limit the invention. Various modifications and variations can be made to the present invention by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A rapid deployment flood control dike device for urban drainage, characterized in that, The system includes a flood control plate (1), which is configured as an L-shaped structure; a support mechanism (3) is hinged to the side of the flood control plate (1), an adjustable plate group (5) is hinged to the bottom of the support mechanism (3), and a diagonal brace (6) is hinged to the top of the adjustable plate group (5). The top of the diagonal brace (6) is adjustablely connected to the support mechanism (3); a connecting mechanism (2) is detachably provided at the junction of adjacent flood control plates (1); a detection mechanism (4) is detachably provided on one of the flood control plates (1). The detection mechanism (4) includes a liquid level sensor (41) and a matching component (43), and the matching component (43) is connected to the liquid level sensor (41). The support mechanism (3) is configured as a triangular flag structure. Multiple hinges (33) are provided on the side of the support mechanism (3), and the hinges (33) are connected to the frame (11) of the flood control board (1). Meanwhile, the support mechanism (3) is set along the height direction of the flood control board (1). The adjustable plate assembly (5) includes a main plate (51), a first support plate (52) and a second support plate (53). The first support plate (52) and the second support plate (53) are located on the same side of the main plate (51) and are connected at their ends by hinges. The ends of the first support plate (52) and the second support plate (53) that are far apart from each other are respectively hinged to the main plate (51) and adjustablely connected. The main board (51) is hinged to the bottom of the support mechanism (3), and a receiving groove (512) is provided on the lower side. A convex shaft (513) is fixedly provided at the end of the receiving groove (512), and a sliding hole (511) is provided on the upper side. The sliding hole (511) is provided along the length direction of the receiving groove (512). The end of the second support plate (53) is fixedly provided with a drive shaft (54), which is provided through the sliding hole (511) and has a nut threaded on the top. The end of the first support plate (52) away from the second support plate (53) is connected to the convex shaft (513) through a bearing. The bottom of the inclined brace plate (6) is hinged to the main plate (51), and the top is hinged to an internal threaded tube (61). The internal threaded tube (61) is located above the sliding hole (32) of the support mechanism (3), and is threaded on the adjusting stud (31). The end of the adjusting stud (31) is connected through the support mechanism (3) via a bearing. A base plate (66) is fixedly installed below the internally threaded tube (61). A plug-in plate (62) is fixedly installed at the bottom of the base plate (66), and a top cylinder (63) is installed below it. A connecting pipe (64) is fixedly installed at the bottom of the top cylinder (63). A through hole (65) is provided on the connecting pipe (64), and a countersunk hole is provided at the bottom of the top cylinder (63). The countersunk hole is directly opposite the through hole (65), and a bolt is installed through it. The plug-in plate (62) is inserted into the top cylinder (63), and the bolt thread is inserted into the plug-in plate (62). The base plate (66) and the top cylinder (63) are connected by a sliding hole (32). The connecting mechanism (2) includes a first top plate (21), two insert plates (22) and two sleeves (23). The two insert plates (22) are vertically arranged below the first top plate (21), and their sides that are close to each other are set as inclined surfaces. The two sleeves (23) are respectively fitted on the two insert plates (22) and are respectively connected to the frames (11) of two adjacent flood control plates (1).

2. The urban drainage rapid deployment flood control dike device according to claim 1, characterized in that, The frame (11) is provided with a buckle groove (12) at its end. An inlet and outlet groove is provided at the top of the buckle groove (12). A buckle plate (24) is fixedly provided on the side of the sleeve (23). The buckle plate (24) passes through the inlet and outlet groove and is installed in the buckle groove (12).

3. The urban drainage rapid deployment flood control dike device according to claim 1, characterized in that, The detection mechanism (4) also includes a support frame (42), which includes a vertical plate (421), a second top plate (422), and a clamping plate (427). Clamps (423) are provided at both the upper and lower ends of the vertical plate (421) on the same side. The second top plate (422) is located on the top of the vertical plate (421) away from the clamps (423). An end tube (424) is provided at the end of the second top plate (422), and the middle is connected via a bearing. A threaded post (426) is provided through the wall; the clamping plate (427) is threadedly sleeved on the bottom of the threaded post (426), and an end rod (428) is fixedly provided at the end. The top of the end rod (428) is inserted into the end tube (424); the vertical plate (421), the second top plate (422) and the clamping plate (427) are sleeved on the top of the flood control plate (1) and the frame (11), and the end of the clamping plate (427) near the vertical plate (421) extends into the frame (11).

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