Sponge city construction water permeable brick laying equipment

Abstract

The present application belongs to the technical field of water permeable brick laying, and discloses a water permeable brick laying equipment for sponge city construction, which comprises a main body mechanism for movement, a laying mechanism arranged on the main body mechanism and used for laying water permeable bricks on the ground, and a placing mechanism used for continuously placing water permeable bricks on the main body mechanism; the water permeable bricks are continuously carried and accurately laid by the automatic conveying, clamping and laying mechanism, manual intervention is greatly reduced, construction speed is effectively improved, and labor intensity of workers is reduced, and the equipment is especially suitable for large-area water permeable brick laying projects; the limiting frame, the push frame and the sliding plate are used in cooperation to ensure that the water permeable bricks are accurately positioned and neatly arranged during laying, to avoid problems such as uneven gaps and misalignment that are prone to occur during manual laying, to improve overall construction quality, and to enhance water permeability and durability of the water permeable pavement; the adjusting screw rod and the ratchet strip mechanism are used to flexibly control the moving distance of the conveying belt, so that the water permeable brick laying requirements of different sizes can be met.

Description

Technical Field

[0001] This invention relates to the field of permeable brick paving technology, and in particular to a permeable brick paving device for sponge city construction. Background Technology

[0002] With the rapid development of sponge city construction, permeable bricks, as an important paving material, are widely used in urban roads, squares, parking lots, and other places due to their excellent permeability and environmental protection performance. However, the laying of permeable bricks usually requires a large amount of manual labor, including handling, alignment, and compaction. This process is not only labor-intensive and inefficient, but also makes it difficult to guarantee the flatness and density of the paving.

[0003] Traditional manual laying methods have the following problems: permeable bricks are relatively heavy, making manual handling and laying slow and difficult to meet the needs of large-area construction; manual operation can easily lead to uneven brick arrangement and gaps, affecting the permeability and overall aesthetics; workers need to bend over for long periods of time, which can easily cause fatigue and poses safety hazards.

[0004] Currently, some permeable brick laying equipment exists on the market, but most are complex in structure, expensive, and lack sufficient automation. For example, some equipment can only transport bricks, still requiring manual assistance for positioning and laying; others, while possessing automatic laying functions, cannot adapt to permeable bricks of different sizes, exhibiting poor adjustment flexibility. Furthermore, existing equipment is prone to jamming and misalignment during brick transport and laying, affecting construction efficiency. Therefore, there is an urgent need to develop a permeable brick laying equipment with a reasonable structure, high degree of automation, and strong adaptability to improve construction efficiency, reduce labor intensity, ensure laying quality, and meet the needs of sponge city construction. Summary of the Invention

[0005] The purpose of this invention is to provide a permeable brick laying device for sponge city construction, so as to solve the problems mentioned in the background art.

[0006] To address the aforementioned technical problems, the present invention adopts the following technical solution: a permeable brick paving device for sponge city construction, comprising a main body for movement, the main body including a vehicle body, and a paving mechanism for laying permeable bricks on the ground and a placement mechanism for continuously placing permeable bricks onto the main body.

[0007] A track is fixedly installed on the main structure, and a slider is slidably installed on the track.

[0008] The laying mechanism includes an inner sliding plate that is slidably installed inside the vehicle body, and a limit frame that is fixedly installed under the vehicle body.

[0009] Furthermore, the main structure also includes a closed shell fixedly installed on the vehicle body, with a traveling wheel rotatably mounted on the vehicle body, a traveling track wound around the traveling wheel, and a traveling motor fixedly installed inside the vehicle body, which drives the traveling wheel to rotate via belt drive.

[0010] Furthermore, two conveyor rollers are rotatably mounted inside the vehicle body, and a conveyor belt is wound around the two conveyor rollers. An internal threaded sleeve is fixedly installed inside the slider. A mobile motor is fixedly installed inside the vehicle body. An internal lead screw is rotatably installed inside the track. The internal threaded sleeve and the internal lead screw form a threaded transmission. The mobile motor drives the internal lead screw to rotate through gear transmission and belt transmission. A rack frame is slidably mounted on the slider. A slide column is slidably mounted on the rack frame. A ratchet is fixedly mounted on the slide column. A rack spring is set between the ratchet and the rack frame. A ratchet is rotatably mounted on the vehicle body. The ratchet meshes with the ratchet. The ratchet drives the conveyor roller to rotate through gear transmission.

[0011] Furthermore, an adjusting screw is rotatably mounted on the slider, and an adjusting knob is fixedly mounted on the adjusting screw. The rack and pinion frame and the adjusting screw form a threaded transmission.

[0012] Furthermore, the laying mechanism also includes an electric cylinder fixedly installed inside the vehicle body, a guide post fixedly installed inside the vehicle body, a push block slidably installed on the guide post, a push frame fixedly installed on the push block, the push block being fixedly connected to the output end of the electric cylinder, the push block being slidably connected to the guide post, a push shaft fixedly installed on the push frame, multiple rotating push blocks rotatably installed on the push shaft, and a brick-lowering ramp fixedly installed inside the vehicle body.

[0013] Furthermore, an upper cylinder is fixedly installed on the inner slide plate, a return spring is provided between the upper cylinder and the vehicle body, a return triangular block is slidably installed inside the upper cylinder, a lower pressing triangular block is fixedly installed on the return triangular block, an inner spring is provided between the return 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.

[0014] Furthermore, the placement mechanism includes a stand fixedly mounted on the slider, a lifting motor fixedly mounted on the stand, a lifting screw rotatably mounted inside the stand, the lifting motor driving the lifting screw to rotate via belt drive, a column fixedly mounted on the slider, a lifting block slidably mounted on the column, and the lifting block and the lifting screw forming a threaded transmission.

[0015] Furthermore, a lifting frame is fixedly installed on the lifting block, 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, and two clamping plates are slidably installed on the horizontal column. The clamping plates and the double threaded shaft form a threaded transmission. The clamping motor drives the double threaded shaft to rotate through belt transmission, and permeable bricks are stacked below the lifting frame.

[0016] The advantages of this invention compared to the prior art are:

[0017] (1) This invention realizes continuous handling and precise laying of permeable bricks through automated conveying, clamping and laying mechanisms, greatly reducing manual intervention, effectively improving construction speed and reducing the labor intensity of workers, and is especially suitable for large-area permeable brick laying projects;

[0018] (2) The present invention adopts the coordinated operation of limiting frame, push frame and sliding plate to ensure accurate position and neat arrangement when laying permeable bricks, avoids problems such as uneven gaps and misalignment that are easy to occur when laying manually, improves the overall construction quality, and enhances the permeability and durability of permeable pavement;

[0019] (3) The present invention can flexibly control the moving distance of the conveyor belt by adjusting the screw and ratchet mechanism to adapt to the laying requirements of permeable bricks of different sizes; at the same time, the clamping mechanism can adjust the clamping spacing to meet the handling requirements of bricks of different specifications and improve the versatility of the equipment. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0021] Figure 2 This is a schematic diagram of the main structure of the present invention. Figure 1 ;

[0022] Figure 3 This is a schematic diagram of the main structure of the present invention. Figure 2 ;

[0023] Figure 4 This is a schematic diagram of the main structure of the present invention. Figure 3 ;

[0024] Figure 5 This is a schematic diagram of the main structure of the present invention. Figure 4 ;

[0025] Figure 6 This is a schematic diagram of the main structure of the present invention. Figure 5 ;

[0026] Figure 7 This is a schematic diagram of the laying mechanism structure in this invention. Figure 1 ;

[0027] Figure 8 for Figure 7 Enlarged structural diagram at point A;

[0028] Figure 9 This is a schematic diagram of the laying mechanism in this invention. Figure 2 ;

[0029] Figure 10 This is a schematic diagram of the laying mechanism in this invention. Figure 3 ;

[0030] Figure 11 This is a schematic diagram of the placement mechanism in the present invention. Figure 1 ;

[0031] Figure 12 This is a schematic diagram of the placement mechanism in the present invention. Figure 2 .

[0032] 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

[0033] The technical solution of the present invention will be further described below with reference to the accompanying drawings and specific embodiments.

[0034] 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.

[0035] 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.

[0036] A track 103 is fixedly installed on the main structure, and a slider 104 is slidably installed on the track 103.

[0037] 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.

[0038] 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.

[0039] like Figures 2-6 As shown, two conveyor rollers 117 are rotatably mounted inside the vehicle body 101, and a conveyor belt 118 is wound around the two conveyor rollers 117. An internal threaded sleeve 110 is fixedly mounted inside the slider 104. A moving motor 109 is fixedly mounted inside the vehicle body 101. An internal lead screw 107 is rotatably mounted inside the track 103. The internal threaded sleeve 110 and the internal lead screw 107 form a threaded transmission. The moving motor 109 drives the internal lead screw 107 to rotate through gear transmission and belt transmission. A rack frame 111 is slidably mounted on the slider 104. A slide column 112 is slidably mounted on the rack frame 111. A ratchet rack 114 is fixedly mounted on the slide column 112. A rack spring 113 is provided between the ratchet rack 114 and the rack frame 111. A ratchet 119 is rotatably mounted on the vehicle body 101. The ratchet rack 119 meshes with the ratchet rack 114. The ratchet rack 119 drives the conveyor rollers 117 to rotate through gear transmission.

[0040] like Figures 2-6 As shown, an adjusting screw 116 is rotatably mounted on the slider 104, and an adjusting knob 115 is fixedly mounted on the adjusting screw 116. The rack frame 111 and the adjusting screw 116 form a threaded transmission.

[0041] The walking motor 108 drives the walking wheel 105 to rotate via belt drive, thereby driving the walking track 106 to rotate, realizing the movement of the equipment. The moving motor 109 drives the inner screw 107 to rotate via gear drive and belt drive. The rotation of the inner screw 107 drives the inner threaded sleeve 110 and the slider 104 to slide along the track 103. When the slider 104 slides towards the closed shell 102, a row of permeable bricks 4 is placed on the conveyor belt 118 by the placement mechanism. The ratchet 114 does not drive the ratchet 119 to rotate. The sliding column 112 slides relative to the rack frame 111, and the rack spring 113 is compressed. When the slider 104 slides away from the closed shell 102, the ratchet 114 drives the ratchet 119 to rotate. The ratchet 119 drives the conveyor roller 117 to rotate via gear drive, thereby driving the conveyor belt 118 to rotate. The permeable bricks 4 above are transported to the lower brick slope 215 by the conveyor belt 118.

[0042] By rotating the adjustment knob 115, the adjustment screw 116 is rotated, which in turn causes the rack frame 111 to slide along the slider 104, adjusting the number of teeth of the ratchet rack 114 meshing with the ratchet wheel 119, thereby adjusting the movement distance of the conveyor belt 118.

[0043] like Figures 7-10 As 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.

[0044] 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 upper cylinder 211. 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.

[0045] The permeable brick 4 slides onto the vehicle body 101 via the brick ramp 215 and reaches the front of the pusher 207. When the permeable brick 4 contacts the rotating pusher 209, it will cause the rotating pusher 209 to rotate clockwise. After the permeable brick 4 passes the rotating pusher 209, the rotating pusher 209 will rotate counterclockwise to reset under its own weight. In the normal state, the rotating pusher 209 is vertically downward and cannot rotate counterclockwise. The electric cylinder 201 extends, driving the pusher block 205 and the pusher 207. 7. The upper triangular block 206 and the rotating push block 209 move forward, pushing the permeable brick 4 onto the inner sliding plate 203 via 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, compressing the inner spring 216; when the electric cylinder 201 extends to its maximum extent, the upper triangular block 206 passes through the lower pressing triangular block 212, and the inner spring 216 rebounds, causing the lower pressing triangular block 206 to return to its original position. When block 212 rises, the lower triangular block 212 is located on the return path of the upper triangular block 206. Then, the electric cylinder 201 retracts, driving the pusher block 205, pusher frame 207, upper triangular block 206, and rotating pusher block 209 back. At this time, the upper triangular block 206 carries the lower triangular block 212, upper cylinder 211, and inner slide plate 203 back together. The return spring 214 is stretched, and the inner slide plate 203 slides relative to the vehicle body 101. When the inner slide plate 203 leaves the permeable brick 4, the permeable brick 4 falls to the ground along the limit frame 204, completing the laying. When the return triangular block 213 contacts the lower triangular block 210, the lower triangular block 210 drives the lower triangular block 212 and the return triangular block 213 to descend, and the inner spring 216 is compressed. When the lower triangular block 212 descends and separates from the upper triangular block 206, the return spring 214 rebounds, causing the inner slide plate 203 to return to the limit frame 204, and so on.

[0046] like Figure 11 , Figure 12 As shown, the placement mechanism includes a stand 301 fixedly mounted on the slider 104, a lifting motor 302 fixedly mounted on the stand 301, a lifting screw 303 rotatably mounted inside the stand 301, the lifting motor 302 drives the lifting screw 303 to rotate via belt drive, a column 306 fixedly mounted on the slider 104, a lifting block 304 slidably mounted on the column 306, and the lifting block 304 and the lifting screw 303 form a threaded transmission.

[0047] like Figure 11 , Figure 12As shown, a lifting frame 305 is fixedly installed on the lifting block 304, a clamping motor 307 is fixedly installed on the lifting frame 305, a double threaded shaft 308 is rotatably installed below the lifting frame 305, a horizontal column 309 is fixedly installed below the lifting frame 305, and two clamping plates 310 are slidably installed on the horizontal column 309. The clamping plates 310 and the double threaded shaft 308 form a threaded transmission. The clamping motor 307 drives the double threaded shaft 308 to rotate through belt transmission. The permeable bricks 4 are stacked below the lifting frame 305.

[0048] The lifting motor 302 rotates and drives the lifting screw 303 to rotate via belt drive, thereby driving the lifting block 304 and the lifting frame 305 to rise and fall along the column 306. The clamping motor 307 drives the double threaded shaft 308 to rotate via belt drive, and drives the two clamping plates 310 to slide along the horizontal column 309. The clamping plates 310 clamp a row of permeable bricks 4. Then, through the rising and falling of the lifting frame 305 and the sliding of the slider 104, a row of permeable bricks 4 is placed on the conveyor belt 118.

[0049] The working principle of the permeable brick laying equipment for sponge city construction disclosed in this invention is as follows:

[0050] The lifting motor 302 drives the lifting screw 303 via belt drive, thereby causing the lifting block 304 and lifting frame 305 to rise and fall along the column 306. The clamping motor 307 drives the double threaded shaft 308 via belt drive, causing the two clamping plates 310 to slide along the horizontal column 309. The traveling motor 108 drives the traveling wheel 105 via belt drive, thereby driving the traveling track 106 to rotate, realizing the movement of the equipment. The moving motor 109 drives the inner screw 107 via gear and belt drive. The rotation of the inner screw 107 causes the inner threaded sleeve 110 and the slider 104 to slide along the track 103, clamping a row of permeable bricks 4 through the clamping plates 310, and then moving along the lifting frame 305. The lifting and lowering of the slider 104 and the sliding of the slider 104 place a row of permeable bricks 4 onto the conveyor belt 118. When the slider 104 slides towards the closed shell 102, the placement mechanism places a row of permeable bricks 4 onto the conveyor belt 118. The ratchet 114 does not drive the ratchet 119 to rotate, the slide column 112 slides relative to the rack frame 111, and the rack spring 113 is compressed. When the slider 104 slides away from the closed shell 102, the ratchet 114 drives the ratchet 119 to rotate. The ratchet 119 drives the conveyor roller 117 to rotate through gear transmission, thereby driving the conveyor belt 118 to rotate. The permeable bricks 4 above the conveyor belt 118 are transported to the lower brick slope 215 via the conveyor belt 118. The permeable bricks 4 pass through the lower brick slope 215. 15 slides onto the vehicle body 101, reaching the front of the pusher 207. When the permeable brick 4 contacts the rotating push block 209, it will cause the rotating push block 209 to rotate clockwise. After the permeable brick 4 passes the rotating push block 209, the rotating push block 209 rotates counterclockwise to reset. In the normal state, the rotating push block 209 is vertically downward and cannot rotate counterclockwise. The electric cylinder 201 extends, driving the pusher block 205, pusher 207, upper triangular block 206, and rotating push block 209 forward. The rotating push block 209 pushes the permeable brick 4 onto the inner slide plate 203. 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. The inner spring... When 216 is compressed, and the electric cylinder 201 extends to its maximum length, the upper triangular block 206 presses down the triangular block 212, and the inner spring 216 rebounds, causing the lower triangular block 212 to rise. At this time, the lower triangular block 212 is located on the return path of the upper triangular block 206. Then the electric cylinder 201 retracts, driving the push block 205, push frame 207, upper triangular block 206 and rotating push block 209 back. At this time, the upper triangular block 206 carries the lower triangular block 212, upper cylinder 211 and inner slide plate 203 back together. The return spring 214 is stretched, and the inner slide plate 203 slides relative to the vehicle body 101. When the inner slide plate 203 leaves the bottom of the permeable brick 4, the permeable brick 4 falls to the ground along the limit frame 204, completing the laying.When the reset triangle 213 contacts the lower triangle 210, the lower triangle 210 causes the lower pressing triangle 212 and the reset triangle 213 to descend, compressing the inner spring 216. When the lower pressing triangle 212 descends to the point of disengagement from the upper triangle 206, the reset spring 214 rebounds, causing the inner slide plate 203 to reset and return to above the limit frame 204, repeating this process.

[0051] This invention is not limited to the specific embodiments described above. Any modifications made by those skilled in the art based on the above concept without creative effort are within the protection scope of this invention.

Claims

1. A permeable brick laying device for sponge city construction, comprising a main moving mechanism, characterized in that: The main structure includes a vehicle body (101), and the main structure is provided with a laying mechanism for laying permeable bricks (4) on the ground and a placement mechanism for continuously placing permeable bricks (4) onto the main structure; A track (103) is fixedly installed on the main body, and a slider (104) is slidably installed on the track (103). The placement mechanism is fixedly installed on the slider (104). 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). The laying mechanism also includes an electric cylinder (201) fixedly installed inside the vehicle body (101), a guide column (202) fixedly installed inside the vehicle body (101), a push block (205) slidably installed on the guide column (202), a push frame (207) fixedly installed on the push block (205), the push block (205) is fixedly connected to the output end of the electric cylinder (201), the push block (205) is slidably connected to the guide column (202), a push shaft (208) is fixedly installed on the push frame (207), a plurality of rotating push blocks (209) are rotatably installed on the push shaft (208), and a brick-lowering ramp (215) is fixedly installed inside the vehicle body (101). 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 triangle block (213) is slidably installed inside the upper cylinder (211). A lower pressure triangle block (212) is fixedly installed on the return triangle block (213). An inner spring (216) is provided between the return triangle block (213) and the upper cylinder (211). A lower triangle block (210) is fixedly installed on the vehicle body (101). An upper triangle block (206) is fixedly installed below the push frame (207).

2. The permeable brick laying equipment for sponge city construction according to claim 1, characterized in that: 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) wound on the traveling wheel (105), a traveling motor (108) fixedly installed inside the vehicle body (101), and the traveling motor (108) drives the traveling wheel (105) to rotate through belt drive.

3. The permeable brick laying equipment for sponge city construction according to claim 2, characterized in that: Two conveyor rollers (117) are rotatably mounted inside the car body (101), and a conveyor belt (118) is wound around the two conveyor rollers (117). An internal threaded sleeve (110) is fixedly mounted inside the slider (104). A moving motor (109) is fixedly mounted inside the car body (101). An internal lead screw (107) is rotatably mounted inside the track (103). The internal threaded sleeve (110) and the internal lead screw (107) form a threaded transmission. The moving motor (109) drives the internal lead screw (107) through gear transmission and belt transmission. The slide block (104) rotates, and a rack frame (111) is slidably mounted on the slide block (111). A slide column (112) is slidably mounted on the rack frame (111). A ratchet (114) is fixedly mounted on the slide column (112). A rack spring (113) is provided between the ratchet (114) and the rack frame (111). A ratchet (119) is rotatably mounted on the car body (101). The ratchet (119) meshes with the ratchet (114). The ratchet (119) drives the conveyor roller (117) to rotate through gear transmission.

4. The permeable brick laying equipment for sponge city construction according to claim 3, characterized in that: An adjusting screw (116) is rotatably mounted on the slider (104), and an adjusting knob (115) is fixedly mounted on the adjusting screw (116). The rack frame (111) and the adjusting screw (116) form a threaded transmission.

5. The permeable brick laying equipment for sponge city construction according to claim 1, characterized in that: The placement mechanism includes a stand (301) fixedly mounted on the slider (104), a lifting motor (302) fixedly mounted on the stand (301), a lifting screw (303) rotatably mounted inside the stand (301), the lifting motor (302) drives the lifting screw (303) to rotate via belt drive, a column (306) fixedly mounted on the slider (104), a lifting block (304) slidably mounted on the column (306), and the lifting block (304) and the lifting screw (303) form a threaded transmission.

6. The permeable brick laying equipment for sponge city construction according to claim 5, characterized in that: A lifting frame (305) is fixedly installed on the lifting block (304), a clamping motor (307) is fixedly installed on the lifting frame (305), a double threaded shaft (308) is rotatably installed below the lifting frame (305), a horizontal column (309) is fixedly installed below the lifting frame (305), two clamping plates (310) are slidably installed on the horizontal column (309), the clamping plates (310) and the double threaded shaft (308) form a threaded transmission, the clamping motor (307) drives the double threaded shaft (308) to rotate through belt transmission, and the permeable bricks (4) are stacked below the lifting frame (305).

Images