Ecological restoration mesh for surface mine slope

Abstract

The invention relates to a surface mine side slope ecological restoration mesh, and relates to the technical field of mine ecological management, the surface mine side slope ecological restoration mesh comprises a concrete grid and a plurality of shielding mechanisms, the concrete grid is poured on a side slope, a plurality of grid areas are defined on the side slope, and the shielding mechanisms are arranged in the grid areas in a one-to-one correspondence mode; the shielding mechanism comprises a rain shielding assembly and a wind-driven assembly, the rain shielding assembly comprises a rain shielding box, a connecting rope, a connecting part, shielding cloth, a floating block, a folding part and a rain drainage part, the wind-driven assembly comprises a fan and a transmission part, the floating block can slide under the driving of buoyancy or wind power, and the shielding cloth can be unfolded by the floating block through the folding part; therefore, the shielding cloth can prevent loss of soil in the grid area caused by wind or rain. The slope ecological restoration method has the effect that soil loss caused by wind blowing and rain flushing in the early stage of slope ecology restoration is not prone to occurring.

Description

Technical Field

[0001] This application relates to the technical field of mine ecological governance, and particularly to an ecological restoration grid for open-pit mine slopes. Background Art

[0002] With the continuous deepening of mine exploitation, the ecological environment of the slopes of open-pit mines will be severely damaged. Rainwater scouring and soil and rock landslides bring serious pollution and safety hazards to the surrounding environment. Therefore, it is necessary to repair the ecology of the slopes of open-pit mines.

[0003] Currently, the main method for ecological restoration of open-pit mine slopes is to build concrete grids on the slopes, and then sow grass seeds in multiple grid areas surrounded by the concrete grids. The concrete grids are used to fix the soil and rock on the slopes, and the method of planting grass for greening is used to prevent soil and water scouring on the slopes, so as to slowly repair the ecological environment of the slopes.

[0004] In the above solution, before the grass seeds grow, the soil in each grid area will be exposed to wind and rain. In rainy or windy weather, the soil in the grid area is likely to be washed away by rain or wind, which is not conducive to the initial repair of the slope ecology. Summary of the Invention

[0005] In order to prevent the soil from being washed away by wind and rain during the initial stage of slope ecological restoration, this application provides an ecological restoration grid for open-pit mine slopes.

[0006] An ecological restoration grid for open-pit mine slopes provided by this application adopts the following technical solutions: An ecological restoration grid for open-pit mine slopes includes a concrete grid and a shielding mechanism. The concrete grid is poured on the slope and encloses multiple grid areas on the slope. There are multiple shielding mechanisms, which are respectively arranged in the grid areas one by one. The shielding mechanism includes a rain shielding component and a wind driving component; The rain shielding component includes a rain shielding box, a connecting rope, a connecting part, a shielding cloth, a floating block, a folding part and a rain discharging part; The rain shielding box is arranged at the center position of the grid area. There are multiple connecting ropes wound around the rain shielding box. One end of the connecting rope is connected to the outer wall of the rain shielding box. There are multiple connecting parts, which correspond to the connecting ropes one by one. The connecting parts are respectively connected to the connecting ropes and the concrete grid. The connecting parts are used to detachably tension the connecting ropes and connect them to the concrete grid; An installation hole is provided at the central position of the end of the rain shield box away from the slope. A plurality of folding holes are provided at the end of the rain shield box near the installation hole. The plurality of folding holes are arranged around the installation hole and are communicated with the installation hole. The shielding cloth is inserted through the installation hole in a posture where the edges converge, and the central part of the shielding cloth passes through the installation hole. Part of the cloth is folded and inserted in each folding hole of the shielding cloth. A rain collecting hole is provided at the central position of the shielding cloth for allowing rainwater to flow into the rain shield box. The floating block is slidably arranged in the rain shield box. The density of the floating block is less than that of rainwater. A rain inlet hole is provided at the central position of the floating block. The folding parts are respectively connected to the floating block and the shielding cloth. The folding part is used to drive the shielding cloth to unfold into a conical shape when the floating block slides towards the installation hole, and the folding part is used to drive the shielding cloth to fold when the floating block slides away from the installation hole. The rain discharging part is connected to the rain shield box and is used to discharge the rainwater in the rain shield box. The rain discharging flow rate of the rain discharging part is lower than the rain inlet flow rate of the rain inlet hole. The wind-driven assembly includes a fan and a transmission part. The fan is arranged outside the rain shield box. The transmission part is respectively connected to the fan and the floating block. The transmission part is used to drive the floating block to slide towards the installation hole when the fan is blown by the wind and rotates, so that the shielding cloth unfolds into a conical shape.

[0007] Optionally, the folding part includes a rain shield shaft and a rain shield rod. There are a plurality of rain shield shafts and rain shield rods, and they are in one-to-one correspondence. The rain shield shafts are respectively arranged in the folding holes in one-to-one correspondence. The rain shield shafts are arranged away from the installation hole and are connected to the rain shield box. One end of the rain shield rod is hinged to the side of the floating block near the installation hole. The hinged part of the rain shield rod and the floating block is close to the center of the floating block. The rain shield rod slidably passes through the folding hole. A sliding hole is provided on the rain shield rod. The rain shield shaft is slidably arranged in the sliding hole. The rain shield rod is connected to the shielding cloth. When the floating block slides towards the installation hole, the rain shield rod drives the shielding cloth to unfold under the guiding action of the rain shield shaft. When the floating block slides away from the installation hole, the rain shield rod drives the shielding cloth to fold under the guiding action of the rain shield shaft.

[0008] Optionally, the rain discharging part includes a rain discharging pipe and a drainage pipe. One end of the rain discharging pipe is communicated with the end of the rain shield box near the slope, and the other end is communicated with the side wall of the drainage pipe. The drainage pipe is arranged at the bottom end of the grid area. The drainage pipe is detachably connected to the concrete grid. A plurality of collecting pipes are detachably connected to the concrete grid. All the collecting pipes are arranged obliquely along the slope. Both ends of each drainage pipe respectively slide through the two collecting pipes close to it. The drainage pipe is communicated with the collecting pipe. The collecting pipe is used to collect rainwater into the water channel at the bottom of the slope.

[0009] Optionally, the connecting part includes a connecting rod, a connecting slide rod and a connecting sleeve. One end of the connecting rod is embedded in the concrete grid. At least one connecting slide rod is arranged around the connecting rod. The connecting slide rod is connected to the side wall of the connecting rod exposed outside the concrete grid. One end of the connecting sleeve is connected to the connecting rope. The connecting sleeve is sleeved on the connecting rod. At least one connecting spiral hole is formed on the side wall of the connecting sleeve. The connecting spiral holes correspond to the connecting slide rods one by one. The connecting slide rods are slidably arranged in the connecting spiral holes. By rotating the connecting sleeve, the connecting rope can be tightened and the connecting rope can be connected to the concrete grid.

[0010] Optionally, a locking nut is threadedly sleeved on the connecting slide rod. When the locking nut is screwed to abut against the connecting sleeve, the locking nut can fix the connecting rod and the connecting sleeve.

[0011] Optionally, a filter screen is arranged at the rain inlet hole.

[0012] Optionally, the filter screen is located at one end of the rain inlet hole close to the installation hole. A cleaning component is arranged on the floating block. The cleaning component includes a cleaning brush block. The cleaning brush block is slidably arranged on one side of the floating block close to the installation hole. The sliding track of the cleaning brush block passes through the filter screen. When the cleaning brush block is slid, the cleaning brush block can clean the filter screen.

[0013] Optionally, the transmission part includes a pull rope and a transmission shaft. One end of the pull rope is connected to the cleaning brush block. The pull rope is arranged on a fixed pulley arranged on the floating block. The other end of the pull rope slides out of the rain shield box and is connected to the transmission shaft. The transmission shaft is rotatably connected to the outer wall of the rain shield box. The fan is connected to the transmission shaft. A elastic rope is connected to the side of the cleaning brush block away from the pull rope. The other end of the elastic rope is connected to the floating block. And the connection position of the elastic rope and the floating block is located on the side of the floating block away from the fixed pulley. When the fan is blown by the wind and rotates, the fan drives the transmission shaft to rotate. The transmission shaft can wind the pull rope on itself. The pull rope first pulls the cleaning brush block to slide to clean the filter screen. After the cleaning brush block abuts against the fixed pulley, the pull rope then pulls the floating block to slide towards the installation hole. When the wind stops blowing the fan, the elastic rope can drive the cleaning brush block to reset through elasticity.

[0014] Optionally, the transmission shaft includes a first rotating shaft and a second rotating shaft. The first rotating shaft is rotatably connected to the outer wall of the rain shield box. The second rotating shaft is arranged at one end of the first rotating shaft away from the rain shield box. The second rotating shaft is in bevel gear transmission connection with the first rotating shaft. The fan is connected to one end of the second rotating shaft away from the first rotating shaft. The fan protrudes out of the concrete grid. A transmission pipe is sleeved on the first rotating shaft and the second rotating shaft together. The transmission pipe is connected to the rain shield box. The first rotating shaft and the second rotating shaft are both rotatably connected to the transmission pipe. The pull rope slides through the transmission pipe and is connected to the first rotating shaft.

[0015] Optionally, a first magnetic ring is embedded on one side of the floating block close to the mounting hole, and a second magnetic ring is connected to one end of the rain shield box where the mounting hole is opened. The polarities of the mutually approaching sides of the first magnetic ring and the second magnetic ring are the same.

[0016] In summary, the present application includes at least one of the following beneficial technical effects: 1. An ecological restoration grid for open-pit mine slopes in the present application includes a concrete grid and a shielding mechanism. The shielding mechanism includes a rain shielding component and a wind-driven component. Among them, the floating block can drive the rain shielding rod to slide under the driving force of the buoyancy of rainwater. The rain shielding rod can drive the shielding cloth to unfold under the guiding action of the rain shielding shaft. The unfolded shielding cloth can block the rainwater from scouring the soil in the grid area. The floating block can also slide under the driving force formed by the wind driving the fan to rotate, so as to drive the rain shielding rod to unfold the shielding cloth. Thus, in rainy or windy weather, the shielding cloth can be automatically unfolded to protect the soil in the grid area from being blown and washed by the wind and rain, and further protect the slope from soil loss in the initial stage of ecological restoration. 2. An ecological restoration grid for open-pit mine slopes in the present application further includes a filter screen and a cleaning component. Among them, the filter screen can filter impurities in the rainwater so that the rainwater is not easily blocked in the rain drainage pipe. The cleaning brush block can slide by means of the driving force formed by the rotation of the fan to clean the filter screen, so that the filter screen is not easily blocked. Description of the Drawings

[0017] Figure 1 is a schematic structural view of an embodiment of the present application; Figure 2 is a schematic structural view of the shielding mechanism; Figure 3 is a schematic structural view of the rain shielding component; Figure 4 is Figure 1 an enlarged view of part A in Figure 5 is Figure 1 an enlarged view of part B in Figure 6 is a schematic structural view of the wind-driven component.

[0018] Description of the Reference Numerals: 1. Concrete grille; 11. Grid area; 12. Collection pipe; 2. Shielding mechanism; 3. Rainshield assembly; 31. Rainshield box; 311. Mounting hole; 312. Folding hole; 313. Second magnetic ring; 32. Connecting rope; 33. Connecting part; 331. Connecting rod; 332. Connecting slide bar; 333. Connecting sleeve; 3331. Connecting screw hole; 334. Locking nut; 34. Shielding cloth; 341. Rain collection hole; 35. Float; 351. Rain inlet hole; 352. Fixed pulley; 353. First magnetic ring; 36. Folding part; 361. Rainshield shaft; 362. Rainshield rod; 363. Slide hole; 37. Rain drainage part; 371. Rain drainage pipe; 372. Drainage pipe; 3721. Iron nail; 3722. Iron wire; 4. Wind drive assembly; 41. Fan; 42. Transmission part; 421. Pulling rope; 422. Transmission shaft; 423. First rotating shaft; 424. Second rotating shaft; 425. Transmission pipe; 5. Filter screen; 6. Cleaning assembly; 61. Cleaning brush block; 62. Elastic cord. Detailed implementation mode

[0019] The following is a further detailed description of this application in conjunction with the attached Figure 1-6 illustrations.

[0020] The embodiment of this application discloses an ecological restoration grid for open-pit mine slopes. Refer to Figure 1 , an ecological restoration grid for open-pit mine slopes includes a concrete grille 1 and a shielding mechanism 2. The concrete grille 1 is poured on the slope and encloses multiple grid areas 11 on the slope. There are multiple shielding mechanisms 2, and they are arranged one by one in the grid areas 11. The shielding mechanism 2 includes a rainshield assembly 3 and a wind drive assembly 4.

[0021] Refer to Figure 1 , Figure 2 and Figure 3 , the rainshield assembly 3 includes a rainshield box 31, a connecting rope 32, a connecting part 33, a shielding cloth 34, a float 35, a folding part 36 and a rain drainage part 37.

[0022] Refer to Figure 1 , the rainshield box 31 is arranged at the center position of the grid area 11. There are multiple connecting ropes 32 surrounding the rainshield box 31, and one end of the connecting rope 32 is fixedly connected to the outer wall of the rainshield box 31. There are multiple connecting parts 33, and they correspond to the connecting ropes 32 one by one. The connecting parts 33 are respectively connected to the connecting ropes 32 and the concrete grille 1. The connecting parts 33 are used to detachably tension the connecting ropes 32 on the concrete grille 1, so that the rainshield box 31 is convenient for recycling.

[0023] Refer to Figure 1 , Figure 2 and Figure 3, an installation hole 311 is provided at the center of the end of the rain shield box 31 away from the slope, and a plurality of folding holes 312 are provided at one end of the rain shield box 31 close to the installation hole 311. The plurality of folding holes 312 are arranged around the installation hole 311, and the folding holes 312 communicate with the installation hole 311. The shielding cloth 34 is inserted through the installation hole 311 in a posture where the edges converge, and the central part of the shielding cloth 34 passes through the installation hole 311. Part of the cloth is folded and inserted in each folding hole 312 of the shielding cloth 34. A rain collecting hole 341 is provided at the center of the shielding cloth 34, and the rain collecting hole 341 is used to allow rainwater to flow into the rain shield box 31.

[0024] Referring to Figure 2 and Figure 3 , a floating block 35 is slidably arranged in the rain shield box 31. The side wall of the floating block 35 is attached to the inner side wall of the rain shield box 31. The density of the floating block 35 is less than the density of rainwater. The floating block 35 can slide towards the installation hole 311 under the buoyancy of rainwater. A rain inlet hole 351 is provided at the center of the floating block 35, and the rain inlet hole 351 penetrates the floating block 35. The folding part 36 is respectively connected to the floating block 35 and the shielding cloth 34. The folding part 36 is used to drive the shielding cloth 34 to unfold into a conical shape when the floating block 35 slides towards the installation hole 311, and the folding part 36 is used to drive the shielding cloth 34 to fold when the floating block 35 slides away from the installation hole 311.

[0025] Referring to Figure 1 , Figure 2 and Figure 3 , a rain discharging part 37 is connected to the rain shield box 31 and is used to discharge the rainwater in the rain shield box 31. The rain discharging flow rate of the rain discharging part 37 is lower than the rain inlet flow rate of the rain inlet hole 351; when the rainfall is lower than the preset rainfall amount, the rain discharging part 37 can discharge the rainwater entering the rain shield box 31, and at this time the shielding cloth 34 maintains a folded state; when the rainfall is not lower than the preset rainfall amount, the rainwater can accumulate in the rain shield box 31 to drive the floating block 35 to slide towards the installation hole 311 through buoyancy.

[0026] Referring to Figure 2 and Figure 3 , the wind driving assembly 4 includes a fan 41 and a transmission part 42. The fan 41 is arranged outside the rain shield box 31. The transmission part 42 is respectively connected to the fan 41 and the floating block 35. The transmission part 42 is used to drive the floating block 35 to slide towards the installation hole 311 when the fan 41 is blown by the wind and rotates, so that the shielding cloth 34 unfolds into a conical shape.

[0027] During use, when it rains on the slope, when the rainfall is lower than the preset rainfall amount, the rainwater entering the rain shield box 31 from the rain collecting hole 341 of the shielding cloth 34 can be discharged by the rain discharging part 37, making it difficult for the floating block 35 to slide towards the installation hole 311 under buoyancy, and the shielding cloth 34 can be in a folded state, so that the grass seeds in the grid area 11 can receive rainwater nourishment.

[0028] When the rainfall is not less than the preset rainfall, rainwater flows from the rain collection holes 341 of the shielding cloth 34 through the rain inlet holes 351 of the floating block 35 into one end of the rain shielding box 31 close to the slope. Since the rain discharge flow rate of the rain discharging part 37 is lower than the rain inlet flow rate of the rain inlet hole 351, the amount of rainwater flowing into the rain shielding box 31 will be greater than the amount of rainwater discharged. Therefore, during heavy rainfall, rainwater can be accumulated in the rain shielding box 31. The accumulated rainwater can drive the floating block 35 to slide towards the mounting hole 311, and the floating block 35 unfolds the shielding cloth 34 through the folding part 36. On the one hand, the shielding cloth 34 makes it difficult for rainwater to wash the soil in the grid area 11. On the other hand, the shielding cloth 34 can collect rainwater into the rain shielding box 31, so that the rainwater is centrally discharged through the rain discharging part 37, thereby making the soil in the grid area 11 not easily washed by rainwater and enabling the grass seeds to receive rainwater nourishment.

[0029] When the slope is windy, the wind can blow the fan 41 to rotate. The fan 41 can drive the floating block 35 to slide towards the mounting hole 311 through the transmission part 42, and the floating block 35 can unfold the shielding cloth 34 through the folding part 36. The shielding cloth 34 blocks the wind from directly blowing on the soil in the grid area 11, so that the soil is not easily blown away by the wind.

[0030] In the weather of strong wind and heavy rain, the shielding cloth 34 can be automatically unfolded to block the wind and rain from directly acting on the soil, so that the soil in the grid area 11 is not easily lost due to rainwater or wind, which is beneficial to the initial restoration of the slope ecology.

[0031] The rain shielding box 31 is detachably connected to the concrete grid 1 through the connecting rope 32. On the one hand, it makes the soil and stone in the grid area 11 not easily slide. On the other hand, in the later stage of restoration when the grass seeds grow, the rain shielding box 31 can be disassembled and recycled, so that the shielding mechanism 2 can be recycled.

[0032] Specifically, referring to Figure 3 Figure, the folding part 36 includes a rain shielding shaft 361 and a rain shielding rod 362.

[0033] Referring to Figure 2 and Figure 3There are multiple rain shield shafts 361 and rain shield rods 362, and they correspond one to one. The rain shield shafts 361 are arranged in the folding holes 312 one by one, the rain shield shafts 361 are arranged away from the mounting holes 311, and the rain shield shafts 361 are fixedly connected to the rain shield box 31. One end of the rain shield rod 362 is hinged on a side of the floating block 35 close to the mounting hole 311, and the hinge between the rain shield rod 362 and the floating block 35 is arranged close to the center of the floating block 35. The rain shield rod 362 is slidably inserted into the folding hole 312. A sliding hole 363 is provided on the rain shield rod 362, and the rain shield shaft 361 is slidably arranged in the sliding hole 363. The rain shield rod 362 is fixedly connected to the shield cloth 34. When the floating block 35 slides toward the mounting hole 311, the rain shield rod 362 drives the shield cloth 34 to unfold under the guidance of the rain shield shaft 361. When the floating block 35 slides away from the mounting hole 311, the rain shield rod 362 drives the shield cloth 34 to fold under the guidance of the rain shield shaft 361.

[0034] When the float 35 slides toward the mounting hole 311, the float 35 drives the rain shield rod 362 to gradually slide out of the rain shield box 31. Since the rain shield shaft 361 is arranged away from the mounting hole 311 and the hinge between the rain shield rod 362 and the float 35 is arranged close to the center of the float 35, the end of the rain shield rod 362 away from the float 35 can gradually swing in a direction away from the mounting hole 311 under the guidance of the rain shield shaft 361, so that the shielding cloth 34 can gradually unfold during the swinging of the rain shield rod 362.

[0035] Specifically, refer to Figure 1 The rain discharge part 37 includes a rain discharge pipe 371 and a drainage pipe 372 .

[0036] One end of the rain drain pipe 371 is connected to one end of the rain shield box 31 close to the slope, and the other end is connected to the side wall of the drainage pipe 372. The drainage pipe 372 is set at the bottom of the grid area 11. The drainage pipe 372 is detachably connected to the concrete grid 1. A plurality of collecting pipes 12 are detachably connected to the concrete grid 1. All collecting pipes 12 are arranged obliquely along the slope. There is a grid area 11 between two adjacent collecting pipes 12 in the horizontal direction. Both ends of each drainage pipe 372 are respectively slidably penetrated on two collecting pipes 12 close to itself. The drainage pipe 372 is connected to the collecting pipe 12. The collecting pipe 12 is used to collect rainwater into the water channel at the bottom of the slope. The water channel at the bottom of the slope is not shown in the figure.

[0037] When draining rainwater, the rainwater discharge pipe 371 can guide the rainwater in the rain shield box 31 into the drainage pipe 372, and the drainage pipe 372 can guide the rainwater into the collection pipe 12. The collection pipe 12 can make the rainwater converge into the water channel on the slope, so that the rainwater is easy to collect and discharge.

[0038] In particular, refer to Figure 1 , Figure 4 and Figure 5, the concrete grid 1 has the same detachable connection structure with the drainage pipe 372 and the collection pipe 12 respectively. The detachable connection structure includes an iron nail 3721 and a wire 3722. The tip of the iron nail 3721 is buried in the concrete grid 1, and the wire 3722 binds the drainage pipe 372 or the collection pipe 12 to the iron nail 3721, so that both the drainage pipe 372 and the collection pipe 12 can be easily detached from the concrete grid 1.

[0039] Specifically, referring to Figure 4 , the connecting part 33 includes a connecting rod 331, a connecting slide rod 332 and a connecting sleeve 333.

[0040] One end of the connecting rod 331 is buried in the concrete grid 1. There are two connecting slide rods 332 arranged around the connecting rod 331. The connecting slide rods 332 are fixedly connected to the side wall of the connecting rod 331 exposed outside the concrete grid 1. The two connecting slide rods 332 are symmetrically arranged, and the connecting slide rods 332 are in the shape of circular rods.

[0041] One end of the connecting sleeve 333 is sealed and fixedly connected to the connecting rope 32. The connecting sleeve 333 is sleeved on the connecting rod 331. The inner wall of the connecting sleeve 333 fits on the side wall of the connecting rod 331. There are two connecting spiral holes 3331 opened on the side wall of the connecting sleeve 333. The connecting spiral holes 3331 correspond to the connecting slide rods 332 one by one. The connecting slide rods 332 are slidably arranged in the connecting spiral holes 3331. By rotating the connecting sleeve 333, the connecting rope 32 can be tightened and the connecting rope 32 can be connected to the concrete grid 1.

[0042] When installing the rain shield 31, the connecting sleeve 333 is sleeved on the connecting rod 331, and then the connecting sleeve 333 is rotated to make the connecting slide rod 332 slide in the corresponding connecting spiral hole 3331. Through the pressing force of the connecting slide rod 332 on the hole wall of the connecting spiral hole 3331, the connecting rope 32 can be tensioned and the connecting rope 32 can be connected to the concrete grid 1, so that the rain shield 31 is not only easy to install on the concrete grid 1 but also easy to be detached from the concrete grid 1.

[0043] Furthermore, referring to Figure 4 , in order to make the connection between the connecting sleeve 333 and the connecting rod 331 more stable, a locking nut 334 is threadedly sleeved on the connecting slide rod 332. When the locking nut 334 is screwed to abut against the connecting sleeve 333, the locking nut 334 can fix the connecting rod 331 and the connecting sleeve 333. By the locking nut 334, the connecting sleeve 333 can be extruded on the connecting rod 331, increasing the friction between the connecting sleeve 333 and the connecting rod 331, so that the connecting rod 331 and the connecting sleeve 333 are not easily separated.

[0044] Referring to Figure 3, in order to prevent the rainwater drain pipe 371 from being easily blocked, a filter screen 5 is provided at the rain inlet hole 351. The filter screen 5 is fixedly connected to the floating block 35. The rainwater is filtered through the filter screen 5, so that impurities mixed in the rainwater are not easily flowed into the rainwater drain pipe 371, and the rainwater drain pipe 371 is not easily blocked.

[0045] Further, referring to Figure 2 and Figure 3 , in order to facilitate the cleaning of the filter screen 5, the filter screen 5 is located at one end of the rain inlet hole 351 close to the mounting hole 311. A cleaning assembly 6 is provided on the floating block 35. The cleaning assembly 6 includes a cleaning brush block 61. The cleaning brush block 61 is slidably arranged on one side of the floating block 35 close to the mounting hole 311. The sliding track of the cleaning brush block 61 passes through the filter screen 5. When the cleaning brush block 61 is slid, the cleaning brush block 61 can clean the filter screen 5.

[0046] Since the sliding track of the cleaning brush block 61 passes through the filter screen 5, when the cleaning brush block 61 is slid, the cleaning brush block 61 can clean the filter screen 5 to clean the impurities intercepted on the filter screen 5, so that the filter screen 5 can restore its filtering ability.

[0047] Specifically, referring to Figure 3 , the transmission part 42 includes a pull rope 421 and a transmission shaft 422.

[0048] Referring to Figure 3 and Figure 6 , one end of the pull rope 421 is fixedly connected to the cleaning brush block 61. The pull rope 421 is arranged on a fixed pulley 352 provided on the floating block 35. The fixed pulley 352 changes the pulling direction of the pull rope 421. The other end of the pull rope 421 slides out of the rain shield 31 and is connected to the transmission shaft 422. The transmission shaft 422 is rotatably connected to the outer wall of the rain shield 31. The fan 41 is connected to the transmission shaft 422.

[0049] Referring to Figure 2 and Figure 3 , an elastic rope 62 is fixedly connected to the side of the cleaning brush block 61 away from the pull rope 421. The other end of the elastic rope 62 is fixedly connected to the floating block 35, and the connection position of the elastic rope 62 and the floating block 35 is located on the side of the floating block 35 away from the fixed pulley 352. When the fan 41 is blown by the wind and rotates, the fan 41 drives the transmission shaft 422 to rotate. The transmission shaft 422 can wind the pull rope 421 around itself. The pull rope 421 first pulls the cleaning brush block 61 to slide to clean the filter screen 5. After the cleaning brush block 61 abuts against the fixed pulley 352, the pull rope 421 then pulls the floating block 35 to slide towards the mounting hole 311. When the wind stops blowing the fan 41, the elastic rope 62 can drive the cleaning brush block 61 to reset through elasticity.

[0050] When the wind blows, the wind drives the fan 41 to rotate. The fan 41 drives the transmission shaft 422 to rotate. The transmission shaft 422 winds the pull rope 421 around itself. The pull rope 421 first drives the cleaning brush block 61 to slide to clean the filter net 5, and at the same time stores elastic force in the elastic rope 62. After the cleaning brush block 61 abuts against the fixed pulley 352, the pull rope 421 then drives the floating block 35 to slide towards the mounting hole 311, so that the shielding cloth 34 is unfolded. Thus, the wind-driven fan 41 can unfold the shielding cloth 34 and can clean the filter net 5; when the wind stops blowing, the elastic rope 62 can drive the cleaning brush block 61 to slide in the reverse direction through the elastic force, so that the cleaning brush block 61 cleans the filter net 5 again and resets the cleaning brush block 61.

[0051] Further, referring to Figure 6 , in order to make the fan 41 rotate easily driven by the wind, the transmission shaft 422 includes a first rotating shaft 423 and a second rotating shaft 424.

[0052] Referring to Figure 1 , Figure 3 and Figure 6 , the first rotating shaft 423 is rotatably connected to the outer wall of the rain shield box 31. The second rotating shaft 424 is arranged at one end of the first rotating shaft 423 away from the rain shield box 31. The second rotating shaft 424 is in bevel gear transmission connection with the first rotating shaft 423. The fan 41 is fixedly connected to one end of the second rotating shaft 424 away from the first rotating shaft 423. The fan 41 protrudes out of the concrete grid 1. A transmission pipe 425 is sleeved on the first rotating shaft 423 and the second rotating shaft 424 together. The transmission pipe 425 is fixedly connected to the outer wall of the rain shield box 31. Both the first rotating shaft 423 and the second rotating shaft 424 are rotatably connected to the transmission pipe 425. The pull rope 421 slidably passes through the transmission pipe 425 and is fixedly connected to the first rotating shaft 423.

[0053] Through the first rotating shaft 423 and the second rotating shaft 424, the fan 41 can protrude out of the concrete grid 1, making the fan 41 more easily driven by the wind; when the wind drives the fan 41 to rotate, the fan 41 can drive the second rotating shaft 424 to rotate. The second rotating shaft 424 can drive the first rotating shaft 423 to rotate through bevel gear transmission. The first rotating shaft 423 can wind the pull rope 421 around itself, so that the fan 41 is more easily driven by the wind to make the floating block 35 slide towards the mounting hole 311.

[0054] Referring to Figure 3 , in order to make the floating block 35 reset stably easily, a first magnetic ring 353 is fixedly embedded on one side of the floating block 35 close to the mounting hole 311. A second magnetic ring 313 is fixedly connected to one end of the rain shield box 31 where the mounting hole 311 is opened. The polarities of the mutually approaching sides of the first magnetic ring 353 and the second magnetic ring 313 are the same.

[0055] When the wind and rain stop, the magnetic thrust between the first magnetic ring 353 and the second magnetic ring 313 can assist the floating block 35 to slide towards the slope, so that the shielding cloth 34 can be folded, enabling the floating block 35 to be stably reset under the combined action of gravity and magnetic thrust.

[0056] In particular, the magnetic thrust between the first magnetic ring 353 and the second magnetic ring 313 only plays an auxiliary role. Under the action of the magnetic thrust between the first magnetic ring 353 and the second magnetic ring 313, the floating block 35 can still slide under the buoyancy of rainwater.

[0057] The implementation principle of an ecological restoration grid for open-pit mine slopes in an embodiment of the present application is as follows: During use, the floating block 35 can drive the rain shield rod 362 to unfold the shielding cloth 34 under the buoyancy of rainwater, and the floating block 35 can also drive the rain shield rod 362 to unfold the shielding cloth 34 under the action of the driving force formed by the wind driving the fan 41 to rotate, enabling the shielding cloth 34 to automatically unfold in windy or heavy rain weather. The unfolded shielding cloth 34 can protect the soil in the grid area 11, preventing the soil from being washed away by wind and rain during the initial stage of slope ecological restoration.

[0058] The above are all preferred embodiments of the present application. Without restricting the protection scope of the present application based on this, therefore: All equivalent changes made according to the structure, shape, and principle of the present application should be covered within the protection scope of the present application.

Claims

1. An ecological restoration grid for open-pit mine slopes, characterized in that: It includes a concrete grid (1) and a shielding mechanism (2). The concrete grid (1) is poured on the slope and encloses multiple grid areas (11) on the slope. There are multiple shielding mechanisms (2), and they are respectively arranged in the grid areas (11) one by one. The shielding mechanism (2) includes a rain shielding component (3) and a wind driving component (4); The rain shielding component (3) includes a rain shielding box (31), a connecting rope (32), a connecting part (33), a shielding cloth (34), a floating block (35), a folding part (36) and a rain discharging part (37); The rain shielding box (31) is arranged at the central position of the grid area (11). There are multiple connecting ropes (32) arranged around the rain shielding box (31). One end of the connecting rope (32) is connected to the outer wall of the rain shielding box (31). There are multiple connecting parts (33), and they correspond to the connecting ropes (32) one by one. The connecting parts (33) are respectively connected to the connecting ropes (32) and the concrete grid (1). The connecting part (33) is used to detachably tension the connecting rope (32) and connect it to the concrete grid (1); An installation hole (311) is opened at the central position of the end of the rain shielding box (31) away from the slope. Multiple folding holes (312) are opened at one end of the rain shielding box (31) close to the installation hole (311). The multiple folding holes (312) are arranged around the installation hole (311). The folding holes (312) communicate with the installation hole (311). The shielding cloth (34) is inserted through the installation hole (311) in a posture of edge convergence, and the central part of the shielding cloth (34) passes through the installation hole (311). Part of the cloth is folded and inserted in each folding hole (312) of the shielding cloth (34). A rain collecting hole (341) is opened at the central position of the shielding cloth (34). The rain collecting hole (341) is used to allow rainwater to flow into the rain shielding box (31); The floating block (35) is slidably arranged in the rain shielding box (31). The density of the floating block (35) is less than that of rainwater. A rain inlet hole (351) is opened at the central position of the floating block (35). The folding part (36) is respectively connected to the floating block (35) and the shielding cloth (34). The folding part (36) is used to drive the shielding cloth (34) to unfold into a cone when the floating block (35) slides towards the installation hole (311), and the folding part (36) is used to drive the shielding cloth (34) to fold when the floating block (35) slides away from the installation hole (311); The rain discharging part (37) is connected to the rain shielding box (31) and is used to discharge the rainwater in the rain shielding box (31). The rain discharging flow rate of the rain discharging part (37) is lower than the rain inlet flow rate of the rain inlet hole (351); The wind driving component (4) includes a fan (41) and a transmission part (42). The fan (41) is arranged outside the rain shielding box (31). The transmission part (42) is respectively connected to the fan (41) and the floating block (35). The transmission part (42) is used to drive the floating block (35) to slide towards the installation hole (311) when the fan (41) is blown by the wind and rotates, so that the shielding cloth (34) unfolds into a cone.

2. The ecological restoration grid for open-pit mine slopes according to claim 1, characterized in that: The folding part (36) includes a rain-blocking shaft (361) and a rain-blocking rod (362). There are multiple rain-blocking shafts (361) and rain-blocking rods (362), and they are in one-to-one correspondence. The rain-blocking shafts (361) are respectively arranged in the folding holes (312), and the rain-blocking shafts (361) are arranged away from the mounting holes (311). The rain-blocking shafts (361) are connected to the rain-blocking box (31). One end of the rain-blocking rod (362) is hinged to the side of the floating block (35) close to the mounting hole (311). The hinged part of the rain-blocking rod (362) and the floating block (35) is arranged close to the center of the floating block (35). The rain-blocking rod (362) slidably penetrates through the folding hole (312). A sliding hole (363) is formed in the rain-blocking rod (362), and the rain-blocking shaft (361) is slidably arranged in the sliding hole (363). The rain-blocking rod (362) is connected to the shielding cloth (34). When the floating block (35) slides towards the mounting hole (311), the rain-blocking rod (362) drives the shielding cloth (34) to unfold under the guiding action of the rain-blocking shaft (361). When the floating block (35) slides away from the mounting hole (311), the rain-blocking rod (362) drives the shielding cloth (34) to fold under the guiding action of the rain-blocking shaft (361).

3. The ecological restoration grid for open-pit mine slopes according to claim 1, characterized in that: The rain-draining part (37) includes a rain-draining pipe (371) and a drainage pipe (372). One end of the rain-draining pipe (371) is communicated with one end of the rain-blocking box (31) close to the slope, and the other end is communicated with the side wall of the drainage pipe (372). The drainage pipe (372) is arranged at the bottom end of the grid area (11). The drainage pipe (372) is detachably connected to the concrete grid (1). A plurality of collecting pipes (12) are detachably connected to the concrete grid (1). All the collecting pipes (12) are arranged obliquely along the slope. Both ends of each drainage pipe (372) respectively slidably penetrate through the two collecting pipes (12) close to it. The drainage pipe (372) is communicated with the collecting pipes (12). The collecting pipes (12) are used to collect rainwater into the water channel at the bottom of the slope.

4. The ecological restoration grid for open-pit mine slopes according to claim 1, characterized in that: The connecting part (33) includes a connecting rod (331), a connecting sliding rod (332) and a connecting sleeve (333). One end of the connecting rod (331) is buried in the concrete grid (1). At least one connecting sliding rod (332) is arranged around the connecting rod (331). The connecting sliding rod (332) is connected to the side wall of the connecting rod (331) exposed outside the concrete grid (1). One end of the connecting sleeve (333) is connected to the connecting rope (32). The connecting sleeve (333) is sleeved on the connecting rod (331). At least one connecting spiral hole (3331) is formed in the side wall of the connecting sleeve (333). The connecting spiral holes (3331) correspond to the connecting sliding rods (332) one by one. The connecting sliding rods (332) are slidably arranged in the connecting spiral holes (3331). By rotating the connecting sleeve (333), the connecting rope (32) can be tightened and the connecting rope (32) can be connected to the concrete grid (1).

5. The ecological restoration grid for open-pit mine slopes according to claim 4, characterized in that: A locking nut (334) is threadedly sleeved on the connecting sliding rod (332). When the locking nut (334) is screwed to abut against the connecting sleeve (333), the locking nut (334) can fix the connecting rod (331) and the connecting sleeve (333).

6. The ecological restoration grid for open-pit mine slopes according to claim 1, characterized in that: A filter screen (5) is arranged at the rain inlet hole (351).

7. The ecological restoration grid for open-pit mine slopes according to claim 6, characterized in that: The filter screen (5) is located at one end of the rain inlet hole (351) close to the mounting hole (311). A cleaning assembly (6) is arranged on the floating block (35). The cleaning assembly (6) includes a cleaning brush block (61). The cleaning brush block (61) is slidably arranged on one side of the floating block (35) close to the mounting hole (311). The sliding track of the cleaning brush block (61) passes through the filter screen (5). When the cleaning brush block (61) is slid, the cleaning brush block (61) can clean the filter screen (5).

8. The ecological restoration grid for open-pit mine slopes according to claim 7, characterized in that: The transmission part (42) includes a pull rope (421) and a transmission shaft (422). One end of the pull rope (421) is connected to the cleaning brush block (61). The pull rope (421) is laid on a fixed pulley (352) arranged on the floating block (35). The other end of the pull rope (421) slides out of the rain shield box (31) and is connected to the transmission shaft (422). The transmission shaft (422) is rotatably connected to the outer wall of the rain shield box (31). The fan (41) is connected to the transmission shaft (422). An elastic rope (62) is connected to the side of the cleaning brush block (61) far from the pull rope (421). The other end of the elastic rope (62) is connected to the floating block (35). The connection position of the elastic rope (62) and the floating block (35) is located on the side of the floating block (35) far from the fixed pulley (352). When the fan (41) is blown by the wind and rotates, the fan (41) drives the transmission shaft (422) to rotate. The transmission shaft (422) can wind the pull rope (421) around itself. The pull rope (421) first pulls the cleaning brush block (61) to slide to clean the filter screen (5). After the cleaning brush block (61) abuts against the fixed pulley (352), the pull rope (421) then pulls the floating block (35) to slide towards the mounting hole (311). When the wind stops blowing the fan (41), the elastic rope (62) can drive the cleaning brush block (61) to reset through elasticity.

9. The ecological restoration grid for open-pit mine slopes according to claim 8, characterized in that: The transmission shaft (422) includes a first rotating shaft (423) and a second rotating shaft (424). The first rotating shaft (423) is rotatably connected to the outer wall of the rain shield box (31). The second rotating shaft (424) is arranged at one end of the first rotating shaft (423) away from the rain shield box (31). The second rotating shaft (424) is in bevel gear transmission connection with the first rotating shaft (423). The fan (41) is connected to one end of the second rotating shaft (424) away from the first rotating shaft (423). The fan (41) protrudes outside the concrete grille (1). A transmission pipe (425) is sleeved on the first rotating shaft (423) and the second rotating shaft (424) together. The transmission pipe (425) is connected to the rain shield box (31). Both the first rotating shaft (423) and the second rotating shaft (424) are rotatably connected to the transmission pipe (425). The pull rope (421) is slidably penetrated through the transmission pipe (425) and is connected to the first rotating shaft (423).

10. The ecological restoration grid for open-pit mine slopes according to claim 1, characterized in that: A first magnetic ring (353) is embedded on one side of the floating block (35) close to the mounting hole (311). A second magnetic ring (313) is connected to one end of the rain shield box (31) where the mounting hole (311) is opened. The polarities of the mutually approaching sides of the first magnetic ring (353) and the second magnetic ring (313) are the same.

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