Geotechnical engineering slope reinforcing device

Abstract

The invention relates to the technical field of geotechnical slope reinforcement, in particular to a geotechnical engineering slope reinforcement device which is characterized in that broken stones can be conveyed into a processing box through a discharging pipe by utilizing a first auger shaft, then the broken stones can be crushed through two crushing rollers, and then the crushed broken stones can be cleaned by utilizing a stirring rod to work; the crushed broken stones can be screened through filter holes in a movable plate, the unqualified broken stones are discharged out of the processing box through cooperation of a second auger shaft and a discharging frame, the qualified broken stones fall into a first collecting box through the filter holes in the movable plate, and the broken stones with the proper particle size are utilized to be recycled. The grouting material can be used as a part of a grouting material, is injected into cracks and pores of a side slope after being mixed with mortar, plays a role in cementing broken rock masses, improves the integrity and stability of the side slope, saves resources, and also reduces the reinforcement cost.

Description

Technical Field

[0001] The present invention relates to the technical field of geotechnical slope reinforcement, and specifically relates to a geotechnical engineering slope reinforcement device. Background Art

[0002] Factors such as landslides, lateral slides, and collapses of slopes are the main disaster-causing factors for slope failures. With the construction of large-scale projects, especially chemical engineering projects, the stability problems of natural slopes and artificial high slopes related thereto have become increasingly prominent. Many projects have suffered slope collapses due to various reasons, and it is necessary to comprehensively manage the slope landslide bodies. At present, anchoring technology is widely used in the construction of projects such as highways, railways, foundation pits, and open-pit mines in China to reinforce geotechnical slopes, and anchor bolts are generally used in projects to reinforce slopes.

[0003] Chinese Patent Publication No. CN219862879U discloses a geotechnical engineering slope reinforcement device, including a frame. A rivet is installed on one side of the frame. A first hole is penetrated through the inside of the frame. A hinge lock is connected to one end of the frame. A protective net is arranged inside the frame. A slider is installed at one end of the protective net. A chute is arranged inside one side of the frame. An intermediate column is connected to one side of the frame. A telescopic device is connected to the bottom of the intermediate column; when using a geotechnical engineering slope reinforcement device, first rotate and open the frame, lift the frame to the required height, then drive the rivet into the soil, press the button, and the second telescopic rod will slide downward until the button is docked with the second hole, adjust the required length, and rotate the base to fit the ground, so that it can fit the ground at multiple angles, thereby fixing the frame and preventing the frame from falling off due to heavy rain erosion.

[0004] The above device uses the cooperation of rivets and a protective net to reinforce the geotechnical slope. However, after the protective net has been eroded by extreme weather such as heavy rain and earthquakes for a long time, some parts will become loose or fall off. At this time, it is easy for the crushed stones on the geotechnical slope to fall off, and these crushed stones are a potential threat no matter where they fall. Summary of the Invention

[0005] In view of the above problems, a slope reinforcement device for geotechnical engineering is provided. The first auger shaft can be used to transport crushed stones into the interior of the processing box through the discharge pipe. The crushed stones can be crushed by two crushing rollers. Then, the working of the stirring rod can be used to wash the crushed stones after crushing. The filter holes inside the movable plate can be used to screen the crushed stones after crushing. The unqualified crushed stones are discharged to the outside of the processing box through the cooperation of the second auger shaft and the discharge frame, while the qualified crushed stones will fall into the interior of the first collection box through the filter holes inside the movable plate. These crushed stones with appropriate particle sizes can be used as part of the grouting material, mixed with mortar and injected into the cracks and pores of the slope, playing a cementing role in the broken rock mass, improving the integrity and stability of the slope, saving resources and reducing the reinforcement cost.

[0006] To solve the problems of the prior art, the present invention provides a slope reinforcement device for geotechnical engineering, including a placement plate. A protective net is rotatably arranged on the side wall of the placement plate. A plurality of anchor rods are arranged on the side surface of the protective net. A transport frame and a processing box are respectively arranged on the top of the placement plate. A guide plate is also rotatably arranged on the top of the placement plate. One end of the guide plate is rotatably provided with a reinforcement plate. A plurality of anchor nails are arranged on the side wall of the reinforcement plate. Flow guide plates are symmetrically arranged inside the processing box. Symmetrical crushing rollers are rotatably arranged inside the processing box. One end of each of the two crushing rollers extends to the outside of the processing box and is respectively provided with a first gear and a second gear. A cleaning frame is also arranged inside the processing box. A stirring rod is rotatably arranged inside the cleaning frame. A plurality of electromagnetic valves are communicated with the top of the cleaning frame. A plurality of telescopic rods are arranged on both inner walls of the processing box. The telescopic end of the telescopic rod is provided with a movable plate. Blocks and support rods are symmetrically arranged on the top of the movable plate. A sloping plate is arranged on the top of the support rod. One end of the sloping plate is connected to the top of the block. Mounting blocks are symmetrically arranged between the two blocks. A second auger shaft is rotatably arranged between the two mounting blocks. A first bevel gear is arranged at one end of the second auger shaft. A discharge frame is arranged on one side of the movable plate. A mounting ring is arranged on the other side of the movable plate. A notch for the movement of the discharge frame is formed on the side wall of the processing box. Through holes for filtering crushed stones are formed inside the movable plate.

[0007] Preferably, a first auger shaft is rotatably arranged inside the transport frame. One end of the first auger shaft extends to the outside of the transport box and is in transmission connection with one of the crushing rollers through a first synchronous belt and a first synchronous pulley. The bottom of the transport frame is communicated with a discharge pipe.

[0008] Preferably, a motor is arranged on the side wall of the processing box. The output shaft of the motor is connected to the stirring rod through a coupling. The stirring rod is in transmission connection with the other crushing roller through a second synchronous belt and a second synchronous pulley.

[0009] Preferably, the other end of the stirring rod extends to the outside of the processing box and is drivingly connected to the first rotating rod through a third synchronous belt and a third synchronous pulley. One end of the first rotating rod extends into the processing box and is provided with a third bevel gear.

[0010] Preferably, a second rotating rod is rotatably arranged on the top of the mounting block. A fourth bevel gear meshing with the third bevel gear is arranged on the outer part of the second rotating rod. Symmetrical connecting blocks are arranged on the outer part of the second rotating rod. A hollow rod is also movably arranged on the outer part of the second rotating rod. A circular ring is arranged on the outer part of the hollow rod. The circular ring is rotatably arranged inside the mounting ring. A second bevel gear meshing with the first bevel gear is arranged on the top of the hollow rod. A chute adapted to the connecting block is arranged inside the hollow rod.

[0011] Preferably, a driving rod is rotatably arranged inside the processing box. A fifth bevel gear meshing with the fourth bevel gear is arranged at one end of the driving rod. Symmetrical half gears are arranged on the outer part of the driving rod. A first rack and a second rack cooperating with the half gears are arranged at the bottom of the movable plate.

[0012] Preferably, a water inlet pipe is communicated with the side wall of the processing box. One end of the water inlet pipe is communicated with the inside of the cleaning frame 30. The other end of the processing box is communicated with a water outlet pipe. One end of the water outlet pipe is communicated with the inside of the cleaning frame 30. A valve is installed on the outer part of the water outlet pipe.

[0013] Preferably, an inclined block is arranged on the top of the guide plate. A plurality of first springs are arranged on the side wall of the inclined block. One end of the first spring is connected with a movable block. A feed pipe is arranged on one side of the guide plate.

[0014] Preferably, symmetrical rotating plates are rotatably arranged inside the feed pipe. A second spring is arranged on one side of the rotating plate. One end of the second spring is connected with the inner wall of the feed pipe.

[0015] Preferably, a first collection frame for collecting qualified crushed stone particles is arranged inside the processing box. A second collection frame for collecting unqualified crushed stone particles is arranged on the outer wall of the processing box.

[0016] The beneficial effects of the present invention compared with the prior art are: 1. By using the first auger shaft, crushed stones can be transported to the inside of the processing box through the discharge pipe. Then, the crushed stones can be crushed by two crushing rollers. After that, the working of the stirring rod can wash the crushed stones. Then, the filter holes inside the movable plate can screen the crushed stones. The unqualified crushed stones are discharged to the outside of the processing box through the cooperation of the second auger shaft and the discharge frame. The qualified crushed stones will fall into the inside of the first collection box through the filter holes inside the movable plate. These crushed stones with appropriate particle sizes can be used as part of the grouting material, mixed with mortar and injected into the cracks and pores of the slope to play a cementing role for the broken rock mass, improve the integrity and stability of the slope, save resources and reduce the reinforcement cost.

[0017] 2. Strengthen the rock and soil slope through the protective net. Then rotate the guide plate so that the guide plate and the reinforcement plate are fitted to the inclined surface of the protective net. Then insert the anchor nails into the inside of the rock and soil slope through the through holes of the protective net to reinforce the rock and soil slope through the protective net. Brief Description of the Drawings

[0018] Figure 1 It is a schematic diagram of the overall structure of a slope reinforcement device for geotechnical engineering.

[0019] Figure 2 It is a schematic diagram of the structure of the guide plate in a slope reinforcement device for geotechnical engineering.

[0020] Figure 3 It is a schematic diagram of the internal structure of the feeding frame in a slope reinforcement device for geotechnical engineering.

[0021] Figure 4 It is a schematic diagram of the structure of the transport frame and the processing box in a slope reinforcement device for geotechnical engineering.

[0022] Figure 5 It is a schematic diagram of the side view structure of the processing box in a slope reinforcement device for geotechnical engineering.

[0023] Figure 6 It is a schematic diagram of the internal structure of the processing box in a slope reinforcement device for geotechnical engineering.

[0024] Figure 7 It is a schematic diagram of the structure of the cleaning frame in a slope reinforcement device for geotechnical engineering.

[0025] Figure 8 It is a schematic diagram of the structure of the stirring rod in a slope reinforcement device for geotechnical engineering.

[0026] Figure 9 It is a schematic diagram of the structure of the half gear in a slope reinforcement device for geotechnical engineering.

[0027] Figure 10It is a schematic structural diagram of the second auger shaft in a geotechnical slope reinforcement device.

[0028] Figure 11 It is a schematic structural diagram when the movable plate moves downward in a geotechnical slope reinforcement device.

[0029] Figure 12 It is a schematic structural diagram of the ring in a geotechnical slope reinforcement device.

[0030] The reference numerals in the figure are: 1. placing plate; 2. protective net; 3. anchor rod; 4. reinforcement plate; 5. anchor nail; 6. guiding plate; 7. transport box; 8. processing box; 9. water inlet pipe; 10. inclined block; 11. first spring; 12. movable block; 13. feed pipe; 14. rotating plate; 15. second spring; 16. first auger shaft; 17. first collection box; 18. second collection box; 19. discharge pipe; 20. first synchronous pulley; 21. first synchronous belt; 22. first gear; 23. second gear; 24. diversion plate; 25. motor; 26. discharge box; 27. crushing roller; 28. second synchronous pulley; 29. second synchronous belt; 30. cleaning box; 31. water outlet pipe; 32. stirring rod; 33. solenoid valve; 34. inclined plate; 35. support rod; 36. stop block; 37. movable plate; 38. third synchronous pulley; 39. third synchronous belt; 40. support plate; 41. telescopic rod; 42. driving rod; 43. first rack; 44. half gear; 45. second rack; 46. mounting block; 47. second auger shaft; 48. first bevel gear; 49. second bevel gear; 50. hollow rod; 51. mounting ring; 52. connecting block; 53. first rotating rod; 54. third bevel gear; 55. fourth bevel gear; 56. fifth bevel gear; 57. second rotating rod; 58. ring. Detailed implementation manners

[0031] To further understand the features, technical means, specific purposes and functions achieved by the present invention, the present invention will be further described in detail below in conjunction with the drawings and specific implementation manners.

[0032] As Figures 1 to 12 shown, the present invention provides: A geotechnical engineering slope reinforcement device comprises a placement plate 1, a protective net 2 is rotatably provided on the side wall of the placement plate 1, a plurality of anchor rods 3 are provided on the side of the protective net 2, a transport frame 7 and a processing box 8 are respectively provided on the top of the placement plate 1, a guide plate 6 is also rotatably provided on the top of the placement plate 1, a reinforcement plate 4 is rotatably provided on one end of the guide plate 6, a plurality of anchor nails 5 are provided on the side wall of the reinforcement plate 4, a guide plate 24 is symmetrically provided inside the processing box 8, symmetrical crushing rollers 27 are rotatably provided inside the processing box 8, one end of the two crushing rollers 27 extend to the outside of the processing box 8 and are respectively installed with a first gear 22 and a second gear 23, a cleaning frame 30 is also provided inside the processing box 8, a stirring rod 32 is rotatably provided inside the cleaning frame 30, and the top of the cleaning frame 30 is connected to the There are several solenoid valves 33, and several telescopic rods 41 are provided on the inner walls of both sides of the processing box 8. A movable plate 37 is provided at the telescopic end of the telescopic rod 41. A symmetrical stopper 36 and a support rod 35 are provided on the top of the movable plate 37. The top of the support rod 35 is provided with an inclined plate 34, one end of the inclined plate 34 is connected to the top of the stopper 36, and a mounting block 46 is symmetrically provided between the two stoppers 36. A second auger shaft 47 is rotatably provided between the two mounting blocks 46, and a first bevel gear 48 is provided at one end of the second auger shaft 47. A discharge frame 26 is provided on one side of the movable plate 37, and a mounting ring 51 is provided on the other side of the movable plate 37. A notch for the discharge frame 26 to move is provided on the side wall of the processing box 8, and a through hole for filtering gravel is provided inside the movable plate 37.

[0033] By utilizing the first auger shaft 16, the crushed stone can be transported to the interior of the processing box 8 through the discharge pipe 19, and then crushed by two crushing rollers 27. Thereafter, the crushed stone can be cleaned by utilizing the stirring rod 32, and then the crushed stone can be screened by utilizing the filter holes inside the movable plate 37. Unqualified crushed stone is discharged to the outside of the processing box 8 through the second auger shaft 47 in cooperation with the discharge frame 26, while qualified crushed stone will fall into the interior of the first collecting box through the filter holes inside the movable plate 37. These crushed stones with suitable particle sizes can be used as part of the grouting material, and after being mixed with mortar, they can be injected into the cracks and pores of the slope, thereby cementing the broken rock mass, improving the integrity and stability of the slope, saving resources and reducing the cost of reinforcement.

[0034] like Figure 5 As shown, a first auger shaft 16 is rotatably arranged inside the transport frame 7, one end of the first auger shaft 16 extends to the outside of the transport box, and is transmission-connected to one of the crushing rollers 27 through a first synchronous belt 21 and a first synchronous wheel 20, and a discharge pipe 19 is connected to the bottom of the transport frame 7.

[0035] The fallen gravel can be transported to the interior of the processing box 8 by means of the discharge pipe 19, so as to facilitate the subsequent work.

[0036] As Figure 5 shown, a motor 25 is provided on the side wall of the processing box 8. The output shaft of the motor 25 is connected to the stirring rod 32 through a coupling. The stirring rod 32 is drivingly connected to another crushing roller 27 through a second synchronous belt 29 and a second synchronous pulley 28.

[0037] The stirring rod 32 can stir the crushed stones inside the cleaning frame 30 to make the cleaning more thorough.

[0038] As Figure 8 shown, the other end of the stirring rod 32 extends to the outside of the processing box 8 and is drivingly connected to the first rotating rod 53 through a third synchronous belt 39 and a third synchronous pulley 38. One end of the first rotating rod 53 extends into the processing box 8 and is provided with a third bevel gear 54.

[0039] The stirring rod 32 can be used to drive the first rotating rod 53 to rotate.

[0040] As Figure 10 and Figure 11 shown, a second rotating rod 57 is rotatably provided on the top of the mounting block 46. A fourth bevel gear 55 meshing with the third bevel gear 54 is provided on the outside of the second rotating rod 57. Symmetric connecting blocks 52 are provided on the outside of the second rotating rod 57. A hollow rod 50 is also movably provided on the outside of the second rotating rod 57. A ring 58 is provided on the outside of the hollow rod 50. The ring 58 is rotatably provided inside the mounting ring 51. A second bevel gear 49 meshing with the first bevel gear 48 is provided on the top of the hollow rod 50. A chute adapted to the connecting block 52 is provided inside the hollow rod 50.

[0041] By providing a ring 58 on the outside of the hollow rod 50 and providing an annular groove consistent with the ring 58 inside the mounting ring 51. Since the hollow rod 50 is fixedly connected to the second bevel gear 49, and the hollow rod 50 is rotatably connected inside the mounting ring 51 through the ring 58, and the connecting block 52 is provided on the outside of the second rotating rod 57, a rectangular groove adapted to the connecting block 52 is provided inside the hollow rod 50, and the connecting block 52 is movably connected to the hollow rod 50, so the hollow rod 50 and the second bevel gear 49 can always remain meshed with the first bevel gear 48 when moving up and down, while preventing the filter holes inside the movable plate 37 from being blocked and discharging unqualified crushed stones at the same time As Figure 11 shown, a driving rod 42 is rotatably provided inside the processing box 8. A fifth bevel gear 56 meshing with the fourth bevel gear 55 is provided at one end of the driving rod 42. Symmetric half gears 44 are provided on the outside of the driving rod 42. First racks 43 and second racks 45 cooperating with the half gears 44 are provided at the bottom of the movable plate 37.

[0042] The cooperation of the semi-gear 44 with the first rack 43 and the second rack 45 can drive the movable plate 37 to reciprocate up and down, preventing the through hole inside the movable plate 37 from being blocked. While the movable plate 37 moves up and down, it will also drive the second bevel gear 49.

[0043] As Figure 4 and Figure 5 shown, a water inlet pipe 9 is connected to the side wall of the processing box 8. One end of the water inlet pipe 9 is connected to the inside of the cleaning frame 30, and the other end of the processing box 8 is connected to a water outlet pipe 31. One end of the water outlet pipe 31 is connected to the inside of the cleaning frame 30, and a valve is installed outside the water outlet pipe 31.

[0044] By introducing water through the water outlet pipe 31, the crushed stones can be cleaned, and then the cleaned waste water can be discharged through the water outlet pipe 31.

[0045] As Figure 2 shown, a slope block 10 is arranged on the top of the guide plate 6. A plurality of first springs 11 are arranged on the side wall of the slope block 10. One end of the first spring 11 is connected to a movable block 12, and a feed pipe 13 is arranged on one side of the guide plate 6.

[0046] The first spring 11 and the movable plate 37 can relieve the pressure of the falling crushed stones.

[0047] As Figure 6 shown, symmetric rotating plates 14 are rotatably arranged inside the feed pipe 13. A second spring 15 is arranged on one side of the rotating plate 14. One end of the second spring 15 is connected to the inner wall of the feed pipe 13.

[0048] The cooperation between the second spring 15 and the rotating plate 14 can further relieve the pressure of the falling crushed stones.

[0049] As Figure 7 shown, a first collection frame 17 for collecting qualified crushed stone particles is arranged inside the processing box 8, and a second collection frame 18 for collecting unqualified crushed stone particles is arranged on the outer wall of the processing box 8.

[0050] The first collection frame 17 and the second collection frame 18 can be used to collect qualified and unqualified crushed stones respectively.

[0051] Working principle: First, move the device near the geotechnical slope to be reinforced. Then, rotate the protection net 2 to make it fit the inclined surface of the geotechnical slope. Next, insert the anchor rod 3 into the interior of the geotechnical slope to reinforce the geotechnical slope with the protection net 2. Then, rotate the guide plate 6 and the reinforcement plate 4 to make them fit the inclined surface of the protection net 2. Then, insert the anchor nails 5 into the interior of the geotechnical slope through the through holes of the protection net 2. When the protection net 2 is eroded by extreme weather such as heavy rain and earthquakes over a long time, gravel will fall off, and these gravel will fall on the guide plate 6, thus rolling on the guide plate 6 and squeezing the movable plate 37 and the first spring 11. The first spring 11 and the movable plate 37 can relieve the pressure of the falling gravel. Then, it will flow into the interior of the feed pipe 13 along the inclined surfaces of the movable plate 37 and the guide plate 6. Inside the feed pipe 13, there are a rotating plate 14 and a second spring 15. Through the cooperation between the second spring 15 and the rotating plate 14, the pressure of the falling gravel can be further relieved, preventing the gravel from directly colliding with the first auger shaft 16 and thus damaging the first auger shaft 16. When the gravel passes through the feed pipe 13, it will fall into the interior of the transport frame 7. At this time, start the motor 25 to drive the stirring rod 32 to rotate. The rotation of the stirring rod 32 in cooperation with the second synchronous wheel 28 and the second synchronous belt 29 can drive one of the crushing rollers 27 to rotate. When one of the crushing rollers 27 rotates, it drives the second gear 23 to rotate. The rotation of one of the crushing rollers 27 and the second gear 23 can drive the other crushing roller 27 and the first gear 22 to rotate. When the other crushing roller 27 rotates, it can drive the first auger shaft 16 to rotate in cooperation with the first synchronous wheel 20 and the first synchronous belt 21. The first auger shaft 16 can be used to transport the gravel to the interior of the processing box 8 through the discharge pipe 19. The gravel can be crushed by the two crushing rollers 27. After being crushed, these gravel will fall into the interior of the cleaning box 30. At this time, add water to the interior of the cleaning box through the water inlet pipe 9 and cooperate with the stirring rod 32 to work to clean the crushed gravel. Then, discharge the waste water after cleaning through the water outlet pipe 31. At this time, open the solenoid valve 33 to transport these cleaned gravel to the two stoppers 36 at the top of the movable plate 37. There are through holes in the interior of the movable plate 37. When the stirring rod 32 rotates, it will drive the first rotating rod 53 to rotate in cooperation with the third synchronous wheel 38 and the third synchronous belt 39. The third bevel gear 54 at one end of the first rotating rod 53 can drive the second rotating rod 57 to rotate in cooperation with the fourth bevel gear 55. At the same time, when the fourth bevel gear 55 rotates, it can drive the fifth bevel gear 56 and the driving rod 42 to rotate. The rotation of the driving rod 42 will drive the half gear 44 to rotate. The half gear 44 can drive the movable plate 37 to move up and down reciprocally in cooperation with the first rack 43 and the second rack 45 to prevent the through holes in the interior of the movable plate 37 from being blocked. When the movable plate 37 moves up and down, it will also drive the second bevel gear 49, the hollow rod 50 and the mounting ring 51 to move.While the second rotating rod 57 rotates, it will also drive the hollow rod 50 and the second bevel gear 49 to rotate. By using the rotation of the second bevel gear 49 in cooperation with the rotation of the first bevel gear 48, the second auger shaft 47 is driven to rotate. The unqualified crushed stones can be discharged through the discharge frame 26 by using the second auger shaft 47 and collected inside the second collection frame 18. A ring 58 is arranged outside the hollow rod 50, and an annular groove consistent with the ring 58 is opened inside the mounting ring 51. Since the hollow rod 50 is fixedly connected to the second bevel gear 49, and the hollow rod 50 is rotatably connected inside the mounting ring 51 through the ring 58, and a connecting block 52 is arranged outside the second rotating rod 57, a rectangular groove adapted to the connecting block 52 is opened inside the hollow rod 50, and the connecting block 52 is movably connected to the hollow rod 50. Therefore, the hollow rod 50 and the second bevel gear 49 can always remain in meshing connection with the first bevel gear 48 when moving up and down. Finally, the qualified crushed stones are collected by using the first collection frame 17. The crushed stones with appropriate particle size can be used as part of the grouting material in the subsequent grouting reinforcement. After being mixed with mortar, they are injected into the cracks and pores of the slope to play a cementing role in the broken rock mass, improve the integrity and stability of the slope, save resources and reduce the reinforcement cost.

[0052] The above embodiments only represent one or several implementation manners of the geotechnical engineering slope reinforcement device of the present invention. The description is relatively specific and detailed, but it cannot be understood as a limitation to the scope of the present invention. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several deformations and improvements can still be made, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the present invention should be subject to the appended claims.

Claims

1. A geotechnical slope reinforcement device, characterized in that, It includes a placement plate (1). A protective net (2) is rotatably arranged on the side wall of the placement plate (1). A number of anchor rods (3) are arranged on the side surface of the protective net (2). A transport box (7) and a processing box (8) are respectively arranged on the top of the placement plate (1). A guiding plate (6) is also rotatably arranged on the top of the placement plate (1). One end of the guiding plate (6) is rotatably provided with a reinforcing plate (4). A number of anchor nails (5) are arranged on the side wall of the reinforcing plate (4). Flow guiding plates (24) are symmetrically arranged inside the processing box (8). Symmetrical crushing rollers (27) are rotatably arranged inside the processing box (8). One end of each of the two crushing rollers (27) extends to the outside of the processing box (8) and is respectively provided with a first gear (22) and a second gear (23). A cleaning frame (30) is also arranged inside the processing box (8). A stirring rod (32) is rotatably arranged inside the cleaning frame (30). A number of electromagnetic valves (33) are communicated with the top of the cleaning frame (30). A number of telescopic rods (41) are arranged on both inner walls of the processing box (8). The telescopic end of the telescopic rod (41) is provided with a movable plate (37). Symmetrical stoppers (36) and support rods (35) are arranged on the top of the movable plate (37). An inclined plate (34) is arranged on the top of the support rod (35). One end of the inclined plate (34) is connected to the top of the stopper (36). Mounting blocks (46) are symmetrically arranged between the two stoppers (36). A second auger shaft (47) is rotatably arranged between the two mounting blocks (46). A first bevel gear (48) is arranged at one end of the second auger shaft (47). A discharge frame (26) is arranged on one side of the movable plate (37). A mounting ring (51) is arranged on the other side of the movable plate (37). A notch for the discharge frame (26) to move is formed on the side wall of the processing box (8). Through holes for filtering gravel are formed inside the movable plate (37).

2. The geotechnical engineering slope reinforcement device according to claim 1, characterized in that, A first auger shaft (16) is rotatably arranged inside the transport box (7). One end of the first auger shaft (16) extends to the outside of the transport box and is in transmission connection with one of the crushing rollers (27) through a first synchronous belt (21) and a first synchronous pulley (20). A discharge pipe (19) is communicated with the bottom of the transport box (7).

3. A geotechnical slope reinforcement device according to claim 1, characterized in that, A motor (25) is arranged on the side wall of the processing box (8). The output shaft of the motor (25) is connected to the stirring rod (32) through a coupling. The stirring rod (32) is in transmission connection with the other crushing roller (27) through a second synchronous belt (29) and a second synchronous pulley (28).

4. A geotechnical engineering slope reinforcement device according to claim 1, characterized in that, The other end of the stirring rod (32) extends to the outside of the processing box (8) and is in transmission connection with a first rotating rod (53) through a third synchronous belt (39) and a third synchronous pulley (38). A third bevel gear (54) is arranged at one end of the first rotating rod (53) extending into the processing box (8).

5. A geotechnical engineering slope reinforcement device according to claim 1, characterized in that, A second rotating rod (57) is rotatably arranged on the top of the mounting block (46). A fourth bevel gear (55) meshed with the third bevel gear (54) is arranged on the outer part of the second rotating rod (57). Symmetrical connecting blocks (52) are arranged on the outer part of the second rotating rod (57). A hollow rod (50) is movably arranged on the outer part of the second rotating rod (57). A ring (58) is arranged on the outer part of the hollow rod (50). The ring (58) is rotatably arranged inside the mounting ring (51). A second bevel gear (49) meshed with the first bevel gear (48) is arranged on the top of the hollow rod (50). A chute adapted to the connecting block (52) is formed inside the hollow rod (50).

6. A geotechnical engineering slope reinforcement device according to claim 1, characterized in that, A driving rod (42) is rotatably arranged inside the processing box (8). A fifth bevel gear (56) meshed with the fourth bevel gear (55) is arranged at one end of the driving rod (42). Symmetrical half gears (44) are arranged on the outer part of the driving rod (42). A first rack (43) and a second rack (45) which cooperate with the half gears (44) are arranged at the bottom of the movable plate (37).

7. A geotechnical engineering slope reinforcement device according to claim 5, characterized in that, A water inlet pipe (9) communicates with the side wall of the processing box (8). One end of the water inlet pipe (9) communicates with the inside of the cleaning frame 30. The other end of the processing box (8) communicates with a water outlet pipe (31). One end of the water outlet pipe (31) communicates with the inside of the cleaning frame 30. A valve is installed on the outer part of the water outlet pipe (31).

8. A geotechnical engineering slope reinforcement device according to claim 1, characterized in that, An inclined block (10) is arranged on the top of the guide plate (6). A plurality of first springs (11) are arranged on the side wall of the inclined block (10). One end of the first spring (11) is connected with a movable block (12). A feed pipe (13) is arranged on one side of the guide plate (6).

9. A geotechnical engineering slope reinforcement device according to claim 8, characterized in that, Symmetrical rotating plates (14) are rotatably arranged inside the feed pipe (13). A second spring (15) is arranged on one side of the rotating plate (14). One end of the second spring (15) is connected with the inner wall of the feed pipe (13).

10. A geotechnical engineering slope reinforcement device according to claim 1, characterized in that, A first collection frame (17) for collecting qualified gravel particles is arranged inside the processing box (8). A second collection frame (18) for collecting unqualified gravel particles is arranged on the outer wall of the processing box (8).

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