Water permeable brick laying equipment for sponge city construction

Abstract

The invention belongs to the technical field of water permeable brick laying, and discloses water permeable brick laying equipment for sponge city construction, which comprises a main body mechanism for moving, and the main body mechanism is provided with a laying mechanism for laying water permeable bricks on the ground and a placing mechanism for continuously placing the water permeable bricks on the main body mechanism; through the automatic conveying, clamping and laying mechanism, continuous carrying and precise laying of the water permeable bricks are achieved, manual intervention is greatly reduced, the construction speed is effectively increased, the labor intensity of workers is reduced, and the device is particularly suitable for large-area water permeable brick laying engineering; the limiting frame, the pushing frame and the sliding plate are adopted for cooperative operation, it is guaranteed that the positions are accurate and arrangement is neat when the water permeable bricks are laid, the problems of uneven gaps, dislocation and the like easily caused by manual laying are solved, the overall construction quality is improved, and the water permeability and durability of the water permeable pavement are enhanced; by adjusting the lead screw and the ratchet bar mechanism, the moving distance of the conveying belt can be flexibly controlled, and the paving requirements of water permeable bricks of different sizes are met.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of water permeable brick laying, in particular to a water permeable brick laying equipment for sponge city construction. BACKGROUND

[0002] With the rapid development of sponge city construction, water permeable bricks, as an important paving material, are widely used in urban roads, squares, parking lots and other places due to their excellent water permeability and environmental performance. The laying of water permeable bricks usually requires a large amount of manual participation, including handling, alignment, compaction and other processes, which not only has high labor intensity and low efficiency, but also is difficult to ensure the flatness and compactness of the laying.

[0003] The traditional manual laying method has the following problems: the weight of a single water permeable brick is large, the manual handling and laying speed is slow, and it is difficult to meet the demand of large-area construction; manual operation is easy to cause uneven arrangement of bricks and uneven gaps, affecting the water permeability and overall appearance; workers need to bend for a long time, which is easy to cause fatigue and has safety hazards.

[0004] At present, there are some water permeable brick laying equipment on the market, but most of them have complex structure, high cost and insufficient automation. For example, some equipment can only realize the conveying of bricks, and still needs manual assistance for positioning and laying; although some other equipment has automatic laying function, it cannot adapt to water permeable bricks of different specifications, and has poor adjustment flexibility. In addition, the existing equipment is prone to jamming and misalignment during brick conveying and laying, which affects the construction efficiency. Therefore, it is urgent to develop a water permeable brick laying equipment with reasonable structure, high automation and strong adaptability, so as to improve the construction efficiency, reduce the labor intensity, ensure the laying quality and meet the needs of sponge city construction. SUMMARY

[0005] The purpose of the present application is to provide a water permeable brick laying equipment for sponge city construction to solve the problems in the background art.

[0006] In order to solve the above technical problems, the technical scheme adopted by the present application is as follows: a water permeable brick laying equipment for sponge city construction, comprising a main body mechanism for movement, the main body mechanism comprising a vehicle body, a laying mechanism for laying water permeable bricks on the ground and a placing mechanism for continuously placing water permeable bricks on the main body mechanism are arranged on the main body mechanism; A track is fixedly installed on the main body mechanism, and a sliding block is slidingly installed on the track; The laying mechanism comprises an inner sliding plate slidingly installed in the vehicle body, and a limiting frame is fixedly installed below the vehicle body.

[0007] Further, the main mechanism further comprises a closed shell fixedly installed on the vehicle body, the vehicle body is rotatably installed with a walking wheel, the walking wheel is wound with a walking track, the vehicle body is fixedly installed with a walking motor, and the walking motor drives the walking wheel to rotate through belt transmission.

[0008] Further, the vehicle body is rotatably installed with two conveying rollers, the two conveying rollers are wound with a conveying belt, the sliding block is fixedly installed with an internal threaded sleeve, the vehicle body is fixedly installed with a moving motor, the track is rotatably installed with an internal screw rod, the internal threaded sleeve and the internal screw rod are in threaded transmission, the moving motor drives the internal screw rod to rotate through gear transmission and belt transmission, the sliding block is slidably installed with a rack frame, the rack frame is slidably installed with a sliding column, the sliding column is fixedly installed with a ratchet rack, the ratchet rack and the rack frame are provided with a rack spring, the vehicle body is rotatably installed with a ratchet wheel, the ratchet wheel is engaged with the ratchet rack, and the ratchet wheel drives the conveying roller to rotate through gear transmission.

[0009] Further, the sliding block is rotatably installed with an adjusting screw rod, the adjusting screw rod is fixedly installed with an adjusting knob, and the rack frame and the adjusting screw rod are in threaded transmission.

[0010] Further, the laying mechanism further comprises an electric cylinder fixedly installed in the vehicle body, a guide column fixedly installed in the vehicle body, a push sliding block slidably installed on the guide column, a push frame fixedly installed on the push sliding block, and a push shaft fixedly installed on the push frame, a plurality of rotating push blocks are rotatably installed on the push shaft, and a brick slope is fixedly installed in the vehicle body.

[0011] Further, the inner sliding plate is fixedly installed with an upper cylinder, a reset spring is arranged between the upper cylinder and the vehicle body, a reset triangular block is slidably installed in the reset spring, a lower pressing triangular block is fixedly installed on the reset triangular block, an inner spring is arranged between the reset triangular block and the upper cylinder, a lower triangular block is fixedly installed on the vehicle body, and an upper triangular block is fixedly installed below the push frame.

[0012] Further, the placing mechanism comprises a stand fixedly installed on the sliding block, a lifting motor fixedly installed on the stand, a lifting screw rod rotatably installed in the stand, a vertical column fixedly installed on the sliding block, a lifting block slidably installed on the vertical column, and the lifting block and the lifting screw rod are in threaded transmission.

[0013] Further, the lifting block is fixedly installed with a lifting frame, a clamping motor is fixedly installed on the lifting frame, a double-threaded shaft is rotatably installed below the lifting frame, a horizontal column is fixedly installed below the lifting frame, two clamping pieces are slidably installed on the horizontal column, the clamping pieces and the double-threaded shaft are in threaded transmission, the clamping motor drives the double-threaded shaft to rotate through belt transmission, and the water permeable bricks are stacked below the lifting frame.

[0014] Compared with the prior art, the present application has the following beneficial effects: (1) The present application realizes continuous transportation and accurate laying of water permeable bricks through automatic conveying, clamping and laying mechanism, greatly reduces manual intervention, effectively improves construction speed, reduces labor intensity of workers, and is especially suitable for large-area water permeable brick laying engineering; (2) The present application cooperates with the limiting frame, the push frame and the sliding plate to ensure the accurate position and the neat arrangement of the water permeable bricks during laying, avoid the problems of uneven gap and misalignment during manual laying, improve the overall construction quality, and enhance the water permeability and durability of the water permeable pavement; (3) The present application flexibly controls the moving distance of the conveying belt through the adjusting screw rod and the ratchet strip mechanism, adapts to the laying requirements of water permeable bricks of different sizes; at the same time, the clamping mechanism can adjust the clamping distance to meet the transportation requirements of bricks of different specifications, and improve the versatility of the equipment. BRIEF DESCRIPTION OF DRAWINGS

[0015] Figure 1 It is a schematic view of the overall structure of the present application; Figure 2 It is a schematic view of the main mechanism in the present application Figure One ; Figure 3 It is a schematic view of the main mechanism structure in the present application Figure Two ; Figure 4 It is a schematic view of the main mechanism structure in the present application Figure Three ; Figure 5 It is a schematic view of the main mechanism structure in the present application Figure Four ; Figure 6 It is a schematic view of the main mechanism structure in the present application Figure Five ; Figure 7 It is a schematic view of the laying mechanism structure in the present application Figure One ; Figure 8 It is Figure 7 an enlarged schematic view of A in the present application; Figure 9 It is a schematic view of the laying mechanism structure in the present application Figure Two ; Figure 10 It is a schematic view of the laying mechanism structure in the present application Figure Three ; Figure 11 It is a schematic view of the placing mechanism structure in the present application Figure One ; Figure 12 It is a schematic view of the placing mechanism structure in the present application Figure Two .

[0016] Reference numerals: 101. Vehicle body; 102. Enclosed shell; 103. Track; 104. Slider; 105. Traveling wheel; 106. Traveling track; 107. Internal lead screw; 108. Travel motor; 109. Moving motor; 110. Internal threaded sleeve; 111. Rack frame; 112. Sliding column; 113. Rack spring; 114. Ratchet; 115. Adjusting knob; 116. Adjusting lead screw; 117. Conveyor roller; 118. Conveyor belt; 119. Ratchet; 201. Electric cylinder; 202. Guide column; 203. Internal sliding plate; 204. Limiting frame ; 205. Push block; 206. Upper triangular block; 207. Push frame; 208. Push shaft; 209. Rotating push block; 210. Lower triangular block; 211. Upper cylinder; 212. Lower pressing triangular block; 213. Reset triangular block; 214. Reset spring; 215. Lower brick slope; 216. Inner spring; 301. Stand; 302. Lifting motor; 303. Lifting screw; 304. Lifting block; 305. Lifting frame; 306. Column; 307. Clamping motor; 308. Double threaded shaft; 309. Horizontal column; 310. Clamping plate; 4. Permeable brick. Detailed Implementation

[0017] The technical solution of the present invention will be further described below with reference to the accompanying drawings and specific embodiments.

[0018] The accompanying drawings are for illustrative purposes only and are schematic diagrams, not actual images. They should not be construed as limiting the scope of this patent. To better illustrate the embodiments of the present invention, some parts in the drawings may be omitted, enlarged, or reduced, and do not represent the actual dimensions of the product. It is understandable to those skilled in the art that some well-known structures and their descriptions may be omitted in the drawings.

[0019] like Figures 1-12 As shown, a permeable brick paving device for sponge city construction includes a main body for movement; the main body includes a vehicle body 101, and the main body is provided with a paving mechanism for laying permeable bricks 4 on the ground and a placement mechanism for continuously placing permeable bricks 4 onto the main body. A track 103 is fixedly installed on the main structure, and a slider 104 is slidably installed on the track 103. The laying mechanism includes an inner sliding plate 203 that is slidably installed inside the vehicle body 101, and a limit frame 204 that is fixedly installed under the vehicle body 101.

[0020] like Figures 2-6 As shown, the main structure also includes a closed shell 102 fixedly installed on the vehicle body 101, a traveling wheel 105 rotatably installed on the vehicle body 101, a traveling track 106 wrapped around the traveling wheel 105, and a traveling motor 108 fixedly installed inside the vehicle body 101. The traveling motor 108 drives the traveling wheel 105 to rotate through belt drive.

[0021] As shown in Figures 2-6 Two conveying rollers 117 are rotatably installed in the vehicle body 101, and a conveying belt 118 is wound outside the two conveying rollers 117. An internally threaded sleeve 110 is fixedly installed in the sliding block 104. A moving motor 109 is fixedly installed in the vehicle body 101. An internal screw rod 107 is rotatably installed in the track 103. The internally threaded sleeve 110 is in threaded transmission with the internal screw rod 107. The moving motor 109 drives the internal screw rod 107 to rotate through gear transmission and belt transmission. A rack frame 111 is slidably installed on the sliding block 104. A slide column 112 is slidably installed on the rack frame 111. A ratchet rack 114 is fixedly installed on the slide column 112. A rack spring 113 is arranged between the ratchet rack 114 and the rack frame 111. A ratchet wheel 119 is rotatably installed on the vehicle body 101. The ratchet wheel 119 is engaged with the ratchet rack 114. The ratchet wheel 119 drives the conveying roller 117 to rotate through gear transmission.

[0022] As shown in Figures 2-6 An adjusting screw rod 116 is rotatably installed on the sliding block 104. An adjusting knob 115 is fixedly installed on the adjusting screw rod 116. The rack frame 111 is in threaded transmission with the adjusting screw rod 116.

[0023] The walking motor 108 drives the walking wheel 105 to rotate through belt transmission, thereby driving the walking track 106 to rotate, so as to realize the walking of the device. The moving motor 109 drives the internal screw rod 107 to rotate through gear transmission and belt transmission. The internal screw rod 107 drives the internally threaded sleeve 110 and the sliding block 104 to slide along the track 103. When the sliding block 104 slides toward the closed shell 102, a row of water permeable bricks 4 is placed on the conveying belt 118 through the placing mechanism. The ratchet rack 114 does not drive the ratchet wheel 119 to rotate. The slide column 112 slides relative to the rack frame 111. The rack spring 113 is compressed. When the sliding block 104 slides away from the closed shell 102, the ratchet rack 114 drives the ratchet wheel 119 to rotate. The ratchet wheel 119 drives the conveying roller 117 to rotate through gear transmission, thereby driving the conveying belt 118 to rotate. The water permeable bricks 4 above the conveying belt 118 are conveyed to the brick slope 215 through the conveying belt 118.

[0024] The adjusting knob 115 is rotated to drive the adjusting screw rod 116 to rotate, thereby driving the rack frame 111 to slide along the sliding block 104. The number of teeth of the ratchet rack 114 engaged with the ratchet wheel 119 is adjusted, thereby adjusting the movement distance of the conveying belt 118.

[0025] As shown in Figures 7-10As shown, the laying mechanism also includes an electric cylinder 201 fixedly installed inside the vehicle body 101, a guide post 202 fixedly installed inside the vehicle body 101, a pusher block 205 slidably installed on the guide post 202, a pusher frame 207 fixedly installed on the pusher block 205, the pusher block 205 fixedly installed on the output end of the electric cylinder 201, the pusher block 205 slidably installed on the guide post 202, a pusher shaft 208 fixedly installed on the pusher frame 207, a plurality of rotating push blocks 209 rotatably installed on the pusher shaft 208, and a brick-lowering ramp 215 fixedly installed inside the vehicle body 101.

[0026] like Figures 7-10 As shown, an upper cylinder 211 is fixedly installed on the inner slide plate 203. A return spring 214 is provided between the upper cylinder 211 and the vehicle body 101. A return triangular block 213 is slidably installed inside the return spring 214. A lower pressing triangular block 212 is fixedly installed on the return triangular block 213. An inner spring 216 is provided between the return triangular block 213 and the upper cylinder 211. A lower triangular block 210 is fixedly installed on the vehicle body 101. An upper triangular block 206 is fixedly installed below the push frame 207.

[0027] The water permeable brick 4 slides onto the vehicle body 101 through the lower brick slope 215 to the front of the push frame 207. When the water permeable brick 4 contacts the rotating push block 209, the rotating push block 209 is driven to rotate clockwise. When the water permeable brick 4 passes the rotating push block 209, the rotating push block 209 is driven to rotate counterclockwise to reset under the action of gravity. In a normal state, the rotating push block 209 is vertically downward and cannot rotate counterclockwise. The electric cylinder 201 is elongated to drive the push sliding block 205, the push frame 207, the upper triangular block 206 and the rotating push block 209 to advance. The water permeable brick 4 is pushed onto the inner sliding plate 203 through the rotating push block 209. When the upper triangular block 206 contacts the lower pressing triangular block 212, the upper triangular block 206 drives the lower pressing triangular block 212 and the reset triangular block 213 to move downward, and the inner spring 216 is compressed. When the electric cylinder 201 is elongated to the farthest, the upper triangular block 206 passes the lower pressing triangular block 212, and the inner spring 216 rebounds to make the lower pressing triangular block 212 rise. The lower pressing triangular block 212 is located on the return path of the upper triangular block 206 at this time. Subsequently, the electric cylinder 201 is retracted to drive the push sliding block 205, the push frame 207, the upper triangular block 206 and the rotating push block 209 to return. At this time, the lower pressing triangular block 212, the upper cylinder 211 and the inner sliding plate 203 return together through the upper triangular block 206, the reset spring 214 is stretched, and the inner sliding plate 203 slides relative to the vehicle body 101. When the inner sliding plate 203 leaves the lower part of the water permeable brick 4, the water permeable brick 4 falls onto the ground along the limiting frame 204 to complete the paving. When the reset triangular block 213 contacts the lower triangular block 210, the lower triangular block 210 drives the lower pressing triangular block 212 and the reset triangular block 213 to descend, and the inner spring 216 is compressed. When the lower pressing triangular block 212 descends and is separated from the upper triangular block 206, the reset spring 214 rebounds to reset the inner sliding plate 203 to the upper part of the limiting frame 204. The above steps are repeated.

[0028] As shown in Figure 11 , Figure 12 , the placing mechanism includes a stand 301 fixedly installed on the sliding block 104, a lifting motor 302 fixedly installed on the stand 301, a lifting screw rod 303 rotatably installed in the stand 301, the lifting motor 302 driving the lifting screw rod 303 to rotate through belt transmission, a vertical column 306 fixedly installed on the sliding block 104, a lifting block 304 slidingly installed on the vertical column 306, and the lifting block 304 being in threaded transmission with the lifting screw rod 303.

[0029] As shown in Figure 11 , Figure 12As shown, the lifting block 304 is fixedly installed with a lifting frame 305, the lifting frame 305 is fixedly installed with a clamping motor 307, the lifting frame 305 is rotatably installed with a double-thread shaft 308 below, the lifting frame 305 is fixedly installed with a horizontal column 309 below, the horizontal column 309 is slidably installed with two clamping pieces 310, the clamping pieces 310 are in threaded transmission with the double-thread shaft 308, the clamping motor 307 drives the double-thread shaft 308 to rotate through belt transmission, and the water permeable bricks 4 are stacked below the lifting frame 305.

[0030] The lifting motor 302 drives the lifting lead screw 303 to rotate through belt transmission, thereby driving the lifting block 304 and the lifting frame 305 to lift along the stand column 306, the clamping motor 307 drives the double-thread shaft 308 to rotate through belt transmission, and drives the two clamping pieces 310 to slide along the horizontal column 309, a row of water permeable bricks 4 are clamped through the clamping pieces 310, and then a row of water permeable bricks 4 are placed on the conveying belt 118 through the lifting of the lifting frame 305 and the sliding of the sliding block 104.

[0031] The working principle of the water permeable brick laying equipment for sponge city construction disclosed by the application is as follows: The lifting motor 302 rotates to drive the lifting screw rod 303 to rotate through a belt drive, thereby driving the lifting block 304 and the lifting frame 305 to ascend along the stand 306. The clamping motor 307 drives the double-threaded shaft 308 to rotate through a belt drive, thereby driving the two clamping pieces 310 to slide along the cross column 309. The walking motor 108 drives the walking wheel 105 to rotate through a belt drive, thereby driving the walking track 106 to rotate to realize the walking of the device. The moving motor 109 drives the inner screw rod 107 to rotate through a gear drive and a belt drive. The rotation of the inner screw rod 107 drives the inner threaded sleeve 110 and the sliding block 104 to slide along the track 103. One row of water permeable bricks 4 is clamped by the clamping pieces 310, and then the lifting frame 305 is lifted and the sliding block 104 is slid to place the row of water permeable bricks 4 on the conveyor belt 118. When the sliding block 104 slides towards the closed shell 102, the row of water permeable bricks 4 is placed on the conveyor belt 118 by the placing mechanism. The ratchet bar 114 does not drive the ratchet wheel 119 to rotate, the sliding column 112 slides relative to the rack frame 111, and the rack spring 113 is compressed. When the sliding block 104 slides away from the closed shell 102, the ratchet bar 114 drives the ratchet wheel 119 to rotate. The ratchet wheel 119 drives the conveying roller 117 to rotate through a gear drive, thereby driving the conveyor belt 118 to rotate. The water permeable bricks 4 above the conveyor belt 118 are conveyed to the lower brick slope 215. The water permeable bricks 4 slide to the vehicle body 101 through the lower brick slope 215 and reach the front of the push frame 207. When the water permeable bricks 4 contact the rotating push block 209, the rotating push block 209 rotates clockwise. When the water permeable bricks 4 pass through the rotating push block 209, the rotating push block 209 rotates counterclockwise to reset. In a normal state, the rotating push block 209 is vertically downward and cannot rotate counterclockwise. The electric cylinder 201 is elongated to drive the push sliding block 205, the push frame 207, the upper triangular block 206, and the rotating push block 209 to advance. The water permeable bricks 4 are pushed to the inner sliding plate 203 by the rotating push block 209. When the upper triangular block 206 contacts the lower pressing triangular block 212, the upper triangular block 206 pushes the lower pressing triangular block 212 and the reset triangular block 213 downward, and the inner spring 216 is compressed. When the electric cylinder 201 is elongated to the farthest, the upper triangular block 206 passes through the lower pressing triangular block 212, and the inner spring 216 rebounds to make the lower pressing triangular block 212 rise. The lower pressing triangular block 212 is located in the return path of the upper triangular block 206 at this time. Subsequently, the electric cylinder 201 is retracted to drive the push sliding block 205, the push frame 207, the upper triangular block 206, and the rotating push block 209 to return. At this time, the lower pressing triangular block 212, the upper cylinder 211, and the inner sliding plate 203 return together with the upper triangular block 206. The reset spring 214 is stretched, and the inner sliding plate 203 slides relative to the vehicle body 101. When the inner sliding plate 203 moves away from the lower side of the water permeable bricks 4, the water permeable bricks 4 fall to the ground along the limiting frame 204, and the paving is completed.When the reset triangular block 213 contacts the lower triangular block 210, the lower triangular block 210 drives the lower pressing triangular block 212 and the reset triangular block 213 to descend, the inner spring 216 is compressed, when the lower pressing triangular block 212 descends to be separated from the upper triangular block 206, the reset spring 214 rebounds, the inner slide plate 203 resets and returns to the upper side of the limiting frame 204, and the above-mentioned reciprocating operation is repeated.

[0032] The present application is not limited to the above specific embodiments, and various modifications made by those skilled in the art based on the above concept without creative labor are all within the protection scope of the present application.

Claims

1. A water-permeable brick laying device for sponge city construction, comprising a main body mechanism for movement, characterized in that: The main body mechanism comprises a vehicle body (101), and a paving mechanism and a placing mechanism are arranged on the main body mechanism, wherein the paving mechanism is used for paving the water permeable bricks (4) on the ground, and the placing mechanism is used for continuously placing the water permeable bricks (4) on the main body mechanism; A track (103) is fixedly installed on the main body mechanism, and a sliding block (104) is slidingly installed on the track (103); The paving mechanism comprises an inner sliding plate (203) slidingly installed in the vehicle body (101), and a limiting frame (204) is fixedly installed below the vehicle body (101).

2. The water permeable brick laying device for sponge city construction of claim 1, characterized in that: The main body mechanism further comprises a closed shell (102) fixedly installed on the vehicle body (101), a walking wheel (105) is rotatably installed on the vehicle body (101), a walking track (106) is wound on the walking wheel (105), a walking motor (108) is fixedly installed in the vehicle body (101), and the walking motor (108) drives the walking wheel (105) to rotate through belt transmission.

3. The water permeable brick laying device for sponge city construction of claim 2, characterized in that: Two conveying rollers (117) are rotatably installed in the vehicle body (101), a conveying belt (118) is wound on the two conveying rollers (117), an inner threaded sleeve (110) is fixedly installed in the sliding block (104), a moving motor (109) is fixedly installed in the vehicle body (101), an inner lead screw (107) is rotatably installed in the track (103), the inner threaded sleeve (110) and the inner lead screw (107) are in threaded transmission, the moving motor (109) drives the inner lead screw (107) to rotate through gear transmission and belt transmission, a rack frame (111) is slidingly installed on the sliding block (104), a sliding column (112) is slidingly installed on the rack frame (111), a ratchet rack (114) is fixedly installed on the sliding column (112), a rack spring (113) is arranged between the ratchet rack (114) and the rack frame (111), a ratchet wheel (119) is rotatably installed on the vehicle body (101), the ratchet wheel (119) is engaged with the ratchet rack (114), and the ratchet wheel (119) drives the conveying roller (117) to rotate through gear transmission.

4. The water permeable brick laying device for sponge city construction of claim 3, characterized in that: An adjusting lead screw (116) is rotatably installed on the sliding block (104), an adjusting knob (115) is fixedly installed on the adjusting lead screw (116), and the rack frame (111) and the adjusting lead screw (116) are in threaded transmission.

5. The water permeable brick laying device for sponge city construction of claim 1, characterized in that: The paving mechanism further comprises an electric cylinder (201) fixedly installed in the vehicle body (101), a guide column (202) is fixedly installed in the vehicle body (101), a pushing sliding block (205) is slidingly installed on the guide column (202), a pushing frame (207) is fixedly installed on the pushing sliding block (205), the pushing sliding block (205) is fixedly connected with an output end of the electric cylinder (201), the pushing sliding block (205) is slidingly connected with the guide column (202), a pushing shaft (208) is fixedly installed on the pushing frame (207), a plurality of rotating pushing blocks (209) are rotatably installed on the pushing shaft (208), and a brick placing slope (215) is fixedly installed in the vehicle body (101).

6. The water permeable brick laying device for sponge city construction of claim 5, characterized in that: The inner slide plate (203) is fixedly installed with an upper cylinder (211), a reset spring (214) is arranged between the upper cylinder (211) and the vehicle body (101), the reset spring (214) is slidably installed with a reset triangular block (213), the reset triangular block (213) is fixedly installed with a lower pressing triangular block (212), an inner spring (216) is arranged between the reset triangular block (213) and the upper cylinder (211), the vehicle body (101) is fixedly installed with a lower triangular block (210), and the push frame (207) is fixedly installed with an upper triangular block (206) below.

7. The water permeable brick laying device for sponge city construction of claim 1, characterized in that: The placing mechanism comprises a stand (301) fixedly installed on the sliding block (104), the stand (301) is fixedly installed with a lifting motor (302), the stand (301) is rotatably installed with a lifting screw rod (303), the lifting motor (302) drives the lifting screw rod (303) to rotate through belt transmission, the sliding block (104) is fixedly installed with a vertical column (306), the vertical column (306) is slidably installed with a lifting block (304), and the lifting block (304) is in screw transmission with the lifting screw rod (303).

8. The water permeable brick laying device for sponge city construction of claim 7, characterized in that: The lifting block (304) is fixedly installed with a lifting frame (305), the lifting frame (305) is fixedly installed with a clamping motor (307), the lifting frame (305) is rotatably installed with a double-threaded shaft (308) below, the lifting frame (305) is fixedly installed with a horizontal column (309) below, two clamping pieces (310) are slidably installed on the horizontal column (309), the clamping pieces (310) are in screw transmission with the double-threaded shaft (308), the clamping motor (307) drives the double-threaded shaft (308) to rotate through belt transmission, and the water permeable bricks (4) are stacked below the lifting frame (305).

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