Concrete waste recovery system

Abstract

The invention provides a concrete waste recovery system. The concrete waste recovery system comprises a treatment box assembly and a first treatment assembly; the treatment box body assembly comprises an inlet box, the inlet box is fixedly communicated with a crushing box, the crushing box is connected with a grinding box, the inlet box is connected with a protection box, the protection box is connected with symmetrical L-shaped plates, and the symmetrical L-shaped plates are respectively connected with a bottom plate; a convergence cover is connected in the grinding box, and two outlets are formed by the grinding box and the convergence cover; the first processing assembly comprises a main motor, and the inlet box is connected with the main motor. The invention relates to the technical field of concrete recovery, in particular to a concrete waste recovery system. Aiming at the defects in the prior art, the concrete waste recovery system is developed, the concrete waste can be conveniently extruded and crushed for multiple times, iron metal materials are separated out, then extruded small blocks are crushed again, and finally, the crushed small blocks are ground into small particles, so that subsequent reutilization is facilitated.

Description

Technical Field

[0001] The present invention relates to the technical field of concrete recycling, and in particular to a concrete waste recycling system. Background Art

[0002] Concrete waste recycling system is a kind of equipment or process specially used to recycle and process concrete waste. Its purpose is to convert waste concrete into reusable resources, thereby saving raw materials, reducing environmental pollution and bringing economic benefits.

[0003] Prior art, for example, includes a rapid concrete waste processing and recycling system, with authorization publication number CN113769829B. By installing a fan, a recovery pipe, and a recovery tank, dust and powder generated by crushing concrete waste enter the recovery tank and then dissipate into water. This facilitates collection of accumulated dust and powder in the recovery tank, further facilitating the utilization of powder and smaller waste materials generated during concrete crushing, thereby improving the utilization rate of concrete waste.

[0004] Currently, there is a lack of a recycling system that can easily squeeze and crush concrete waste multiple times to separate ferrous metal materials such as steel bars and steel plates, then crush the squeezed small pieces again and finally grind them into smaller particles for subsequent reuse.

[0005] Therefore, in view of the above problems, a concrete waste recycling system is proposed to solve the above problems. Summary of the Invention

[0006] In response to the shortcomings of the existing technology, the present invention develops a concrete waste recycling system, which facilitates the multiple extrusion and crushing of concrete waste to separate the ferrous metal materials, and then crushes the extruded small pieces again, and finally grinds them into smaller particles for subsequent reuse.

[0007] The technical solution to the technical problem solved by the present invention is as follows: the present invention provides a concrete waste recycling system, comprising: a processing box assembly and a first processing assembly; the processing box assembly comprises an inlet box, the inlet box is fixedly connected to the crushing box, the crushing box is connected to the grinding box, the inlet box is connected to the protective box, the protective box is connected to symmetrical L-plates, and the symmetrical L-plates are respectively connected to the bottom plate; the grinding box is connected to a convergence cover, and the grinding box and the convergence cover form two outlets; the first processing assembly comprises a main motor, the inlet box is connected to the main motor, the inlet box bearing is connected to the central axis of a symmetrical crushing roller, the output shaft of the main motor is connected to the central axis of one of the crushing rollers, the symmetrical crushing rollers are respectively connected to a group of crushing blades, the upper bearing of the grinding box is connected to the central axis of a symmetrical sorting roller, the symmetrical sorting rollers are respectively connected to a group of electromagnetic plates, and the bottom bearing of the grinding box is connected to the central axis of a symmetrical grinding roller. By adopting the first processing component, the concrete waste is processed. The crushing roller and crushing blade crush the large pieces of concrete into small pieces. Some concrete attached to the surface of iron materials such as steel bars and steel plates is attracted by the electromagnetic plate. When the electromagnetic plate is powered off, it falls from the outlet to separate the iron materials. Then the small pieces of concrete are ground into granules by the grinding roller, realizing the recycling and processing of concrete waste.

[0008] As an optimization, the inlet box bearings are connected to symmetrical transmission gears, which mesh symmetrically with each other. The center axes of the symmetrical crushing rollers are connected to power gears, which mesh symmetrically with corresponding transmission gears. The center axes of the symmetrical crushing rollers and the symmetrical sorting rollers are connected to upper synchronous wheels, and the ends of the two upper synchronous belts wrap around the corresponding upper synchronous wheels. The center axes of the symmetrical sorting rollers and the symmetrical grinding rollers are connected to lower synchronous wheels, and the ends of the two lower synchronous belts wrap around the corresponding lower synchronous wheels. The inlet box is connected to a protective cover corresponding to the transmission gears, power gears, and upper synchronous belts, and the inlet box is provided with corresponding vertical slots corresponding to the upper synchronous belts. Through the use of gear meshing and synchronous belt drive, the movement of the crushing rollers, sorting rollers, and grinding rollers is achieved, facilitating the recycling of concrete waste.

[0009] As an optimization, it also includes a second processing component, which includes a power motor, the crushing box is connected to a cross plate, the cross plate is connected to an extrusion cover, the extrusion cover is connected to a round head cover, the power motor is connected to the cross plate, the output shaft of the power motor passes through the cross plate to connect to the driving gear, the cross plate bearing is connected to the driven gear, the driving gear meshes with the driven gear, the driven gear is connected to a turntable, the eccentric part of the turntable is connected to the first round block, the central axis bearing of the driving gear is connected to a swing arm cross, the swing arm cross is provided with a group of slide grooves, the first round block is set in the corresponding slide groove, the swing arm cross is rotatably connected to one end of a group of connecting rods, the other end of each connecting rod is rotatably connected to an L rod, the cross bar of each L rod passes through the crushing box, each L rod is connected to a square slot plate, each square slot plate is provided with two movable plates, and the adjacent movable plates are rotatably connected. The grinding box is provided with horizontal through slots corresponding to the two connecting rods. By adopting gear meshing, the first round block is set in the corresponding slide groove, so that when the power motor rotates, the square groove plate and the movable plate can move. The adjacent movable plates are vertically distributed. The square groove plate and the movable plate form a square structure with a constantly changing side length. They work together with the extrusion cover and the crushing box to squeeze the smaller waste materials and make them smaller again, especially squeezing part of the concrete attached to the surface of iron materials such as steel bars and steel plates, so that the steel bars and steel plates are cleaner and convenient for subsequent collection.

[0010] As an optimization, the central axis of the driving gear is connected to a vertical shaft, which is connected to a set of first crushing teeth, which are matched with the convergence cover. The first crushing teeth continue to rotate to crush the extruded concrete again, facilitating subsequent grinding.

[0011] As an optimization, the swing arm is cross-connected to the fixed end of the telescopic shaft, the vertical shaft is located within the telescopic shaft, and the free end of the telescopic shaft is connected to a U-plate, which matches the convergence cover and is connected to a set of symmetrical second crushing teeth. The second crushing teeth reciprocate, striking the falling concrete, reducing it to a smaller size for subsequent processing.

[0012] As an optimization, the grinding box is provided with symmetrical vertical slots, each of which is provided with one end of a lifting rod. The free end bearing of the telescopic shaft is connected to the lifting rod, and each end of the lifting rod is connected to an anti-slip plate. One of the anti-slip plates is connected to an L-mounting frame, and the L-mounting frame is connected to a transverse slot. The eccentric points of the two upper lower synchronous wheels are respectively connected to a second circular block, and the two second circular blocks are respectively provided in the transverse slot. By placing the second circular blocks in the transverse slot, the second crushing teeth can move in the height direction, driving the movement of concrete in the convergence cover, facilitating the crushing of the first crushing teeth.

[0013] As an optimization, an alignment assembly is also included. The alignment assembly includes two mounting plates and two first sensors. The central axes of the symmetrical sorting rollers are connected to the corresponding mounting plates, and the protective box is connected to the two first sensors. The two mounting plates are each equipped with a set of evenly distributed second sensors, and the first sensors are matched with the second sensors. When the second sensors are in the same position as the first sensors, the corresponding electromagnetic plate is controlled to be de-energized, allowing the ferrous material to fall through the outlet.

[0014] The effects provided in the summary of the invention are only the effects of the embodiments, rather than all the effects of the invention. The above technical solution has the following advantages or beneficial effects: 1. This device uses the first processing component to process concrete waste and separate ferrous metal materials. The crushing roller and crushing blade work together to crush large pieces of concrete into small pieces. Some concrete attached to the surface of ferrous materials such as steel bars and steel plates is attracted by the electromagnetic plate. When the second sensor is in the same position as the first sensor, the corresponding electromagnetic plate is controlled to be de-energized, causing the ferrous materials to fall from the outlet and achieve separation of the ferrous materials. Then, the small pieces of concrete are ground into granules by the grinding roller, realizing the recycling and treatment of concrete waste, improving work efficiency, and realizing the comprehensive utilization of concrete waste.

[0015] 2. When the power motor of this device rotates, the square groove plate and the movable plate realize reciprocating motion, and the adjacent movable plates are distributed vertically. The square groove plate and the movable plate form a square structure with a constantly changing side length. They work together with the extrusion cover and the crushing box to squeeze the smaller waste materials and make them smaller again, especially to squeeze some concrete attached to the surface of iron materials such as steel bars and steel plates, so that the steel bars and steel plates are cleaner and convenient for subsequent collection; the first crushing teeth keep rotating to crush the squeezed concrete again, which is convenient for subsequent grinding; the second crushing teeth move along the height direction, driving the concrete in the convergence cover to move, which is convenient for the first crushing teeth to crush. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0017] Figure 1 Schematic diagram of the three-dimensional structure of the present invention Figure 1 .

[0018] Figure 2 Schematic diagram of the three-dimensional structure of the present invention Figure 2 .

[0019] Figure 3 The partially cutaway three-dimensional structure of the present invention is shown Figure 1 .

[0020] Figure 4 For the present invention Figure 3 A partial enlarged view of middle A.

[0021] Figure 5 The partially cutaway three-dimensional structure of the present invention is shown Figure 2 .

[0022] Figure 6 For the present invention Figure 5 A partial enlarged view of B.

[0023] Figure 7 The processing box assembly of the present invention is partially cut away to show the three-dimensional structure Figure 1 .

[0024] Figure 8 The processing box assembly of the present invention is partially cut away to show the three-dimensional structure Figure 2 .

[0025] Figure 9 Schematic diagram of the local three-dimensional structure of the processing component of the present invention Figure 1 .

[0026] Figure 10 Schematic diagram of the local three-dimensional structure of the processing component of the present invention Figure 2 .

[0027] Figure 11 Schematic diagram of the local three-dimensional structure of the processing component of the present invention Figure 3 .

[0028] Figure 12 It is a schematic diagram of the three-dimensional structure of the processing component of the present invention.

[0029] Figure 13 It is a schematic diagram of the local three-dimensional structure of the present invention.

[0030] In the picture: 1. Processing box assembly, 11. Inlet box, 12. Protective cover, 13. Protective box, 14. L-plate, 15. Bottom plate, 16. Crushing box, 17. Grinding box, 18. Converging cover, 19. Outlet, 110. Vertical slot, 111. Round head cover, 112. Extrusion cover, 113. Cross plate; 2. First processing assembly, 21. Main motor, 22. Crushing roller, 23. Crushing blade, 24. Power gear, 25. Transmission gear, 26. Upper synchronous pulley, 27. Upper synchronous belt, 28. Lower synchronous pulley, 29. Sorting roller, 210. Electromagnetic plate, 211. Grinding roller, 212. Lower synchronous belt; 3. Second processing assembly, 31. Second round block, 32. Horizontal groove, 33. Power motor, 34. Driving gear, 35. Driven gear, 36. Turntable, 37. Swing arm cross, 38. Telescopic shaft, 39. U-plate, 310. Lifting rod, 311. L mounting bracket, 312. Anti-slip plate, 313. Vertical shaft, 314. First crushing tooth, 315. Second crushing tooth, 316. Slide, 317. First round block, 318. Moving plate, 319. Square groove plate, 320. Connecting rod, 321. L rod; 4. Alignment assembly, 41. Mounting plate, 42. Second sensor, 43. First sensor. DETAILED DESCRIPTION

[0031] To clearly illustrate the technical features of this solution, the present invention is described in detail below through specific embodiments and in conjunction with the accompanying drawings. The following disclosure provides numerous different embodiments or examples for implementing various configurations of the present invention. To simplify the disclosure of the present invention, the following description focuses on components and configurations of specific examples. Furthermore, reference numbers and / or letters may be repeated throughout the various examples. This repetition is for the purpose of simplicity and clarity and does not in itself indicate a relationship between the various embodiments and / or configurations discussed. It should be noted that the components illustrated in the drawings are not necessarily drawn to scale. Descriptions of well-known components and processing techniques and processes are omitted to avoid unnecessarily limiting the present invention. Terms such as "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer" indicate positions or locations based on the positions or locations shown in the drawings. These terms are used solely to facilitate the description of the present invention and simplify the description. They are not intended to indicate or imply that the devices or components referred to must have, be constructed, or operate in a specific orientation, and are therefore not to be construed as limiting the present invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance. In the description of the present invention, it should be noted that, unless otherwise expressly specified or limited, the terms "mounted," "connected," and "connected" should be understood in a broad sense. For example, they may refer to fixed, detachable, or integral connections; mechanical or electrical connections; direct or indirect connections through an intermediate medium; and internal communication between two components. Those skilled in the art will understand the specific meanings of the above terms in the present invention based on the specific circumstances.

[0032] like Figures 1 to 13As shown, embodiment 1: a concrete waste recycling system, comprising: a processing box assembly 1 and a first processing assembly 2; the processing box assembly 1 includes an inlet box 11, which receives large pieces of concrete waste; the inlet box 11 is fixedly connected to a crushing box 16, a first-level coarse crushing chamber; the crushing box 16 is connected to a grinding box 17, a second-level fine crushing chamber; the inlet box 11 is connected to a protective box 13, the protective box 13 is connected to a symmetrical L-plate 14, and the symmetrical L-plates 14 are respectively connected to a bottom plate 15; the grinding box 17 is connected to a convergent cover 18 with an inverted conical lining, and the grinding box 17 and the convergent cover are connected. The cover 18 forms two outlets 19; the first processing component 2 includes a main motor 21, the inlet box 11 is connected to the main motor 21, the inlet box 11 bearing is connected to the central axis of the symmetrical crushing roller 22, the output shaft of the main motor 21 is connected to the central axis of one of the crushing rollers 22, and the symmetrical crushing rollers 22 are respectively connected to a group of crushing blades 23 to perform primary shearing and crushing on the concrete blocks; the upper bearing of the grinding box 17 is connected to the central axis of the symmetrical sorting rollers 29, and the symmetrical sorting rollers 29 are respectively connected to a group of electromagnetic plates 210. During the rotation, the electromagnetic plates 210 are energized to generate a magnetic field to attract scrap steel bars and iron blocks; after power is cut off, the magnetic metal automatically falls off to achieve online iron removal; the bottom bearing of the grinding box 17 is connected to the central axis of the symmetrical grinding rollers 211, and the material after iron removal is subjected to secondary roller grinding, which can be directly used as recycled aggregate. The first processing assembly 2 is used to process concrete waste. Crushing rollers 22 and crushing blades 23 crush large chunks of concrete into small pieces. Some concrete adhering to ferrous materials such as rebar and steel plates is attracted by electromagnetic plates 210. When electromagnetic plates 210 are de-energized, these pieces fall through outlet 19, separating the ferrous materials. The small pieces of concrete are then ground into granules by grinding rollers 211, enabling concrete waste recycling. This constitutes a three-stage processing channel consisting of "primary crushing + magnetic separation and sorting + secondary grinding."

[0033] The inlet box 11 is connected to symmetrical transmission gears 25, which mesh with each other. The central axes of the symmetrical crushing rollers 22 are connected to power gears 24, which mesh with corresponding transmission gears 25. The central axes of the symmetrical crushing rollers 22 and the symmetrical sorting rollers 29 are connected to upper synchronous pulleys 26, with the ends of two upper synchronous belts 27 looping around their corresponding upper synchronous pulleys 26. The central axes of the symmetrical sorting rollers 29 and the symmetrical grinding rollers 211 are connected to lower synchronous pulleys 28, with the ends of two lower synchronous belts 212 looping around their corresponding lower synchronous pulleys 28. The inlet box 11 is connected to the protective cover 12, corresponding to the transmission gears 25, power gears 24, and upper synchronous belts 27. The inlet box 11 is provided with corresponding vertical slots for the upper synchronous belts 27. The gear meshing and synchronous belt drive enable the movement of the crushing rollers 22, sorting rollers 29, and grinding rollers 211, facilitating the recycling of concrete waste. Use "gear + synchronous belt" to achieve synchronous drive from a single motor to four axes, simplifying the transmission chain.

[0034] The system also includes an alignment assembly 4, comprising two mounting plates 41 and two first sensors 43. The central axes of the symmetrical sorting rollers 29 are connected to corresponding mounting plates 41. The protective box 13 is connected to the two first sensors 43. Each mounting plate 41 is equipped with a set of evenly distributed second sensors 42, with the first sensors 43 aligned with the second sensors 42. When the second sensors 42 and the first sensors 43 are in the same position, the corresponding electromagnetic plate 210 is de-energized, allowing ferrous material to fall from the outlet 19. When the second sensors 42 rotate with the mounting plates 41 and align with the first sensors 43, the system records the phase angle and precisely controls the timing of de-energizing the electromagnetic plate 210. After a period of time, the electromagnetic plate 210 is re-energized. Ferrous impurities are attracted at the high point and released when the electromagnetic plate 210 moves to the low point.

[0035] The workflow of this embodiment is: Concrete waste is poured into the inlet box 11 manually or using equipment, and the main motor 21 is controlled to rotate. The main motor 21 drives a crushing roller 22 and a power gear 24 to rotate. A power gear 24 drives a transmission gear 25, another power gear 24 and another crushing roller 22 to rotate. The crushing roller 22 drives the crushing blade 23 and the upper upper synchronous wheel 26 to rotate. The upper upper synchronous wheel 26 drives the upper synchronous belt 27 to move. The upper synchronous belt 27 drives the lower upper synchronous wheel 26, the upper lower synchronous wheel 28, the sorting roller 29 and the electromagnetic plate 210 to rotate. The upper lower synchronous wheel 28 drives the lower synchronous belt 212 to move. The lower synchronous belt 212 drives the lower lower synchronous wheel 28 and the grinding roller 211 to rotate.

[0036] Crushing blades 23 crush concrete waste, reducing it to smaller pieces. The pieces then fall from inlet box 11 through crushing box 16 into the area formed by electromagnetic plates 210. When electromagnetic plates 210 are energized, they attract the ferrous material. Sorting rollers 29 drive mounting plate 41 and second sensor 42 to rotate. When second sensor 42 aligns with first sensor 43, the corresponding electromagnetic plate 210 is de-energized, causing the ferrous material to fall out of outlet 19. The reduced pieces fall into converging hood 18 and then between two grinding rollers 211, where they are ground into granules.

[0037] Embodiment 2: This embodiment is further elaborated on the basis of embodiment 1, and further includes a second processing component 3, which includes a power motor 33, the crushing box 16 is connected to the cross plate 113, the cross plate 113 is connected to the extrusion cover 112, the extrusion cover 112 is connected to the round head cover 111, the power motor 33 is connected to the cross plate 113, the output shaft of the power motor 33 passes through the cross plate 113 and is connected to the driving gear 34, the cross plate 113 bearing is connected to the driven gear 35, the driving gear 34 meshes with the driven gear 35, the driven gear 35 is connected to the turntable 36, the eccentric part of the turntable 36 is connected to the first round block 317, the central axis bearing of the driving gear 34 is connected to the swing arm cross 37, the swing arm cross 37 is provided with a group of slide grooves 316, the first round block 317 is arranged in the corresponding slide groove 316, and the continuous rotation is converted into the swing arm cross 37 The swing arm cross 37 is rotatably connected to one end of a set of connecting rods 320. The other end of each connecting rod 320 is rotatably connected to an L-shaped rod 321. The crossbar of each L-shaped rod 321 passes through the crushing box 16. Each L-shaped rod 321 is connected to a square groove plate 319, transforming the reciprocating swing into a symmetrical extrusion motion of the square groove plate 319. Two movable plates 318 are respectively disposed within each square groove plate 319, and adjacent movable plates 318 are rotatably connected. The grinding box 17 is provided with horizontal through-slots corresponding to the two connecting rods 320. By adopting gear meshing, the first round block 317 is set in the corresponding slide groove 316, so that when the power motor 33 rotates, the square groove plate 319 and the movable plate 318 can move. The adjacent movable plates 318 are vertically distributed. The square groove plate 319 and the movable plate 318 form a square structure with a side length that changes at all times. They work together with the extrusion cover 112 and the crushing box 16 to squeeze the smaller waste materials and make them smaller again, especially squeezing part of the concrete attached to the surface of iron materials such as steel bars and steel plates, so that the steel bars and steel plates are cleaner and convenient for subsequent collection.

[0038] The workflow of this embodiment is: The power motor 33 is controlled to rotate, and the power motor 33 drives the driving gear 34 to rotate. The driving gear 34 drives the driven gear 35 and the turntable 36 to rotate. The turntable 36 drives the first round block 317 to swing in the slide groove 316. The first round block 317 drives the swing arm cross 37 to swing back and forth. The swing arm cross 37 drives the connecting rod 320 to swing back and forth. The connecting rod 320 drives the L rod 321 to move back and forth. The L rod 321 drives the square groove plate 319 to move back and forth. The square groove plate 319 drives the movable plate 318 to move back and forth and expands along the square groove plate 319, and works together with the extrusion cover 112 and the crushing box 16 to squeeze the smaller waste to make it smaller again.

[0039] Example 3: This example further elaborates on Example 2. The central axis of the driving gear 34 is connected to a vertical shaft 313, which is in turn connected to a set of first crushing teeth 314. These first crushing teeth 314 are mated to the converging hood 18. The first crushing teeth 314 rotate continuously, re-crushing the extruded concrete to facilitate subsequent grinding. The first crushing teeth 314 form a shear gap with the inner wall of the converging hood 18, cutting the falling material flow, reducing the concrete to smaller pieces and protecting the roller surface.

[0040] The workflow of this embodiment is: The driving gear 34 drives the vertical shaft 313 and the first crushing teeth 314 to rotate. The first crushing teeth 314 rotate in the convergent cover 18 to crush the waste again.

[0041] Example 4: This example further elaborates on Example 3. The swing arm cross 37 is connected to the fixed end of the telescopic shaft 38. The vertical shaft 313 is disposed within the telescopic shaft 38. The free end of the telescopic shaft 38 is connected to a U-plate 39. The U-plate 39 matches the convergence cover 18 and is connected to a set of symmetrical second crushing teeth 315. The second crushing teeth 315 reciprocate, striking the falling concrete, reducing it to a smaller size for subsequent processing.

[0042] The grinding box 17 is provided with symmetrical vertical slots 110, each of which is provided with one end of a lifting rod 310. The free end bearing of the telescopic shaft 38 is connected to the lifting rod 310. Both ends of the lifting rod 310 are connected to an anti-slip plate 312. One of the anti-slip plates 312 is connected to an L-shaped mounting bracket 311, which is connected to a transverse slot 32. The eccentric points of the two upper lower synchronous wheels 28 are respectively connected to a second circular block 31, and the two second circular blocks 31 are respectively disposed in the transverse slot 32. By disposing the second circular blocks 31 in the transverse slot 32, the second crushing teeth 315 can be moved in the height direction, driving the concrete in the convergence cover 18 to move, facilitating the crushing by the first crushing teeth 314.

[0043] The workflow of this embodiment is: The swing arm cross 37 drives the telescopic shaft 38, the U-plate 39, and the second crushing tooth 315 to rotate reciprocatingly. The upper lower synchronous wheel 28 drives the second round block 31 to swing in the transverse groove 32. The second round block 31 drives the transverse groove 32 to move back and forth. The transverse groove 32 drives the L mounting frame 311 and the anti-slip plate 312 to move back and forth. The anti-slip plate 312 drives the lifting rod 310 to move back and forth in the vertical groove 110. The lifting rod 310 drives the free end of the telescopic shaft 38 to move back and forth in the height direction. The telescopic shaft 38 drives the U-plate 39 and the second crushing tooth 315 to move back and forth in the height direction, driving part of the waste upward to contact the first crushing tooth 314 again, thereby achieving a better crushing effect.

[0044] This device uses the first processing component 2 to process concrete waste and separate ferrous metal materials. The crushing roller 22 and the crushing blade 23 work together to crush large pieces of concrete into small pieces. Some concrete attached to the surface of ferrous materials such as steel bars and steel plates is attracted by the electromagnetic plate 210. When the second sensor 42 and the first sensor 43 are in the same position, the corresponding electromagnetic plate 210 is controlled to be de-energized, causing the ferrous materials to fall from the outlet 19 and achieve separation of the ferrous materials. Then, the small pieces of concrete are ground into granules by the grinding roller 211, realizing the recycling and processing of concrete waste, improving work efficiency, and realizing the comprehensive utilization of concrete waste.

[0045] When the power motor 33 of this device rotates, the square groove plate 319 and the movable plate 318 realize reciprocating motion, and the adjacent movable plates 318 are distributed vertically. The square groove plate 319 and the movable plate 318 form a square structure whose side length changes at all times, and work together with the extrusion cover 112 and the crushing box 16 to squeeze the smaller waste materials to make them smaller again, especially to squeeze part of the concrete attached to the surface of iron materials such as steel bars and steel plates, so that the steel bars and steel plates are cleaner and convenient for subsequent collection; the first crushing teeth 314 keep rotating to crush the squeezed concrete again, which is convenient for subsequent grinding; the second crushing teeth 315 move along the height direction, driving the concrete in the convergence cover 18 to move, which is convenient for the first crushing teeth 314 to crush.

[0046] Although the above describes the specific implementation methods of the invention in conjunction with the accompanying drawings, it does not limit the scope of protection of the invention. Based on the technical solution of the present invention, various modifications or variations that can be made by those skilled in the art without creative work are still within the scope of protection of the present invention.

Claims

1. A concrete waste recycling system, comprising: A processing box assembly (1) and a first processing assembly (2); The processing box assembly (1) comprises an inlet box (11), the inlet box (11) is fixedly connected to a crushing box (16), the crushing box (16) is connected to a grinding box (17), the inlet box (11) is connected to a protection box (13), the protection box (13) is connected to symmetrical L-plates (14), and the symmetrical L-plates (14) are respectively connected to bottom plates (15); The grinding box (17) is connected to a convergence cover (18), and the grinding box (17) and the convergence cover (18) form two outlets (19); The first processing component (2) includes a main motor (21), the inlet box (11) is connected to the main motor (21), the inlet box (11) bearing is connected to the central axis of the symmetrical crushing roller (22), the output shaft of the main motor (21) is connected to the central axis of one of the crushing rollers (22), the symmetrical crushing rollers (22) are respectively connected to a group of crushing blades (23), the upper bearing of the grinding box (17) is connected to the central axis of the symmetrical sorting rollers (29), the symmetrical sorting rollers (29) are respectively connected to a group of electromagnetic plates (210), and the bottom bearing of the grinding box (17) is connected to the central axis of the symmetrical grinding rollers (211).

2. A concrete waste recycling system according to claim 1, characterized in that: The bearings of the inlet box (11) are connected to symmetrical transmission gears (25), and the symmetrical transmission gears (25) are meshed with each other. The central axes of the symmetrical crushing rollers (22) are respectively connected to power gears (24), and the symmetrical power gears (24) are respectively meshed with the corresponding transmission gears (25). The central axes of the symmetrical crushing rollers (22) and the symmetrical sorting rollers (29) are respectively connected to upper synchronous wheels (26), and the two ends of the two upper synchronous belts (27) respectively surround the corresponding upper synchronous wheels (26). The central axes of the symmetrical sorting rollers (29) and the symmetrical grinding rollers (211) are respectively connected to lower synchronous wheels (28), and the two ends of the two lower synchronous belts (212) respectively surround the corresponding lower synchronous wheels (28).

3. A concrete waste recycling system according to claim 2, characterized in that: The invention also includes a second processing assembly (3), wherein the second processing assembly (3) includes a power motor (33), the crushing box (16) is connected to a cross plate (113), the cross plate (113) is connected to an extrusion cover (112), the extrusion cover (112) is connected to a round head cover (111), the power motor (33) is connected to the cross plate (113), the output shaft of the power motor (33) passes through the cross plate (113) and is connected to a driving gear (34), the cross plate (113) is connected to a driven gear (35) by a bearing, the driving gear (34) is engaged with the driven gear (35), the driven gear (35) is connected to a turntable (36), and the eccentric portion of the turntable (36) is connected to a first round block (317), the central axis bearing of the driving gear (34) is connected to the swing arm cross (37), the swing arm cross (37) is provided with a group of slide grooves (316), the first round block (317) is provided in the corresponding slide groove (316), the swing arm cross (37) is rotatably connected to one end of a group of connecting rods (320), the other end of each connecting rod (320) is rotatably connected to the L rod (321), the cross bar of each L rod (321) passes through the crushing box (16), each L rod (321) is connected to the square slot plate (319), two movable plates (318) are provided in each square slot plate (319), and the adjacent movable plates (318) are rotatably connected.

4. A concrete waste recycling system according to claim 3, characterized in that: The central axis of the driving gear (34) is connected to a vertical shaft (313), and the vertical shaft (313) is connected to a group of first crushing teeth (314), and the group of first crushing teeth (314) matches the convergence cover (18).

5. A concrete waste recycling system according to claim 4, characterized in that: The swing arm cross (37) is connected to the fixed end of the telescopic shaft (38), the vertical shaft (313) is arranged in the telescopic shaft (38), the free end of the telescopic shaft (38) is connected to the U plate (39), the U plate (39) matches the convergence cover (18), and the U plate (39) is connected to a group of symmetrical second crushing teeth (315).

6. A concrete waste recycling system according to claim 5, characterized in that: The grinding box (17) is provided with symmetrical vertical grooves (110), one end of a lifting rod (310) is respectively provided in the symmetrical vertical grooves (110), the free end bearing of the telescopic shaft (38) is connected to the lifting rod (310), both ends of the lifting rod (310) are respectively connected to anti-slip plates (312), one anti-slip plate (312) is connected to an L-mounting frame (311), the L-mounting frame (311) is connected to the transverse groove (32), the eccentric points of the two upper lower synchronous wheels (28) are respectively connected to the second round blocks (31), and the two second round blocks (31) are respectively arranged in the transverse groove (32).

7. The concrete waste recycling system according to claim 1, characterized in that: The invention also includes an alignment component (4), wherein the alignment component (4) includes two mounting plates (41) and two first sensors (43), the central axes of the symmetrical sorting rods (29) are respectively connected to the corresponding mounting plates (41), the protective box (13) is connected to the two first sensors (43), and the two mounting plates (41) are respectively provided with a group of evenly distributed second sensors (42), and the first sensors (43) match the second sensors (42).

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