Fabricated concrete waste recovery and separation device

The prefabricated concrete waste recycling and separation device solves the problems of resource waste and environmental pollution during concrete truck cleaning, realizes the targeted collection and secondary utilization of waste, and improves construction efficiency and image.

CN224113367UActive Publication Date: 2026-04-14中交四航局第六工程有限公司
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Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
中交四航局第六工程有限公司
Filing Date
2025-04-11
Publication Date
2026-04-14

AI Technical Summary

Technical Problem

Existing technologies for cleaning concrete trucks suffer from problems such as resource waste, environmental pollution, increased construction costs, and non-reusability of equipment, especially the inability to effectively separate and reuse concrete waste.

Method used

A prefabricated concrete waste recycling and separation device was designed, including a protection system, a lifting system, a collection system, and a segmentation system. The device can flexibly adjust its size to achieve the directional collection and secondary utilization of coarse aggregate, fine aggregate, and water.

Benefits of technology

It improved the utilization rate of construction sites and the efficiency of fixed-point collection, avoided secondary pollution, realized the secondary use of concrete waste, enhanced the image of green construction, and reduced construction costs.

✦ Generated by Eureka AI based on patent content.

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Abstract

The utility model discloses an assembly type concrete waste recovery and separation device and a construction method, the device comprises a protection system, a lifting system, a collection system and a segmentation system, the protection system is a cuboid or cube with an upper opening and a lower opening, the lifting system is arranged at the top of the protection system, the collection system is arranged in the protection system, and the segmentation system is arranged in the protection system. The collection system comprises a collection tank and a sedimentation tank, the partition system divides the sedimentation tank into a primary sedimentation tank and a secondary sedimentation tank, the collection tank is detachably connected with the protection system and located above the primary sedimentation tank, and a guide pipe is arranged on the partition system, so that secondary pollution to a construction site can be avoided; not only are the efficiency and the transfer utilization rate of fixed-point collection improved, but also resources collected directionally can be reutilized.
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Description

Technical Field

[0001] This utility model relates to the field of concrete waste technology, and in particular to a prefabricated concrete waste recycling and separation device. Background Technology

[0002] After a concrete truck finishes unloading, concrete residue will remain on the exterior of the truck body, wheels, unloading chute, and inside the mixing drum. The concrete residue inside the mixing drum, in particular, can damage the vehicle's equipment and affect its normal use. Moreover, an uncleaned concrete truck will not only cause road pollution and affect the city's image, but also reduce the purity of the concrete and affect the quality of the concrete pouring. The conventional methods for cleaning concrete trucks are generally: washing them directly on the construction site without taking any anti-fouling equipment or facilities; or using a brick-built concrete truck washing pool for cleaning.

[0003] The conventional method of cleaning concrete trucks has the following problems:

[0004] First, it wastes resources. The concrete waste produced during cleaning includes coarse aggregate, fine aggregate, and water. Conventional practices do not separate the waste, so the useful materials in the waste cannot be reused.

[0005] Second, it damages the image of civilized construction. Cleaning without any equipment or facilities will pollute the environment inside and around the site and increase the difficulty of managing the construction site.

[0006] Third, it increases construction costs. In order to avoid pollution to the environment caused by direct washing, it is necessary to take anti-pollution measures, such as adding anti-pollution equipment or facilities, which will increase construction costs.

[0007] Fourth, it cannot be reused. The construction of brick concrete car wash pools on site usually requires excavating a foundation pit, pouring a foundation layer, and finally building a brick formwork. The construction cycle is long and it is a one-time investment. As the construction site is adjusted, the brick concrete car wash pools cannot be reused. Utility Model Content

[0008] One of the objectives of this utility model is, at least, to provide a prefabricated concrete waste recycling and separation device that addresses the problems existing in the prior art, thereby avoiding secondary pollution to the construction site, improving the efficiency of fixed-point collection and transfer utilization, and enabling the secondary utilization of resources collected in a targeted manner.

[0009] To achieve the above objectives, the technical solution adopted by this utility model includes the following aspects.

[0010] A prefabricated concrete waste recycling and separation device, characterized in that it comprises: a protection system, a lifting system, a collection system, and a dividing system. The protection system is a cuboid or cube with openings at the top and bottom, and includes horizontal rods, vertical rods, support rods, and protective side plates. The lifting system is located at the top of the protection system and includes lifting devices and a transmission device. Two sets of parallel lifting devices are connected to the protection system via fixing components, and the two sets of lifting devices are connected to each other via the transmission device. The collection system is located inside the protection system and includes a collection tank and a sedimentation tank. The dividing system divides the sedimentation tank into a primary sedimentation tank and a secondary sedimentation tank, and includes a fixed dividing plate and a movable dividing plate, with a guide pipe installed on the movable dividing plate. The collection tank is detachably connected to the protection system and is located above the primary sedimentation tank.

[0011] Preferably, the four vertical rods are located at the four corners of the rectangle, and the tops and bottoms of adjacent vertical rods are connected by horizontal rods. The two adjacent horizontal rods at the top of the protective system and the two adjacent horizontal rods at the bottom of the protective system are fixedly connected to the vertical rods by connecting tees. The horizontal rods and vertical rods are each composed of rod one and rod two. Rod one has an anchoring hole, and rod two is provided with an anchoring rod corresponding to the anchoring hole. Rod two is inserted into rod one and is movably connected to rod one through the anchoring rod.

[0012] Preferably, multiple support rods are arranged side by side between the horizontal bars at the top and bottom of the protective system, the support rods are vertically connected to the horizontal bars at the top and bottom of the protective system, and are located on the inner or outer side of the protective system; two adjacent support rods are provided at the connection part of the first and second bars of the horizontal bars.

[0013] Preferably, the protective side plate is arranged around the protective system and located on the outside of the protective system. The protective side plate is movably connected to the anchor plate on the vertical rod and is also movably connected to the anchor plate on the support rod. The protective side plate includes a fixed protective plate and a movable protective plate. The movable protective plate is movably connected to the upper and lower end grooves of the fixed protective plate.

[0014] Preferably, each lifting device includes a lifting sleeve, a lifting shaft, and a lifting gear. The two ends of the lifting sleeve are fixedly connected to the protection system by fasteners, and the lifting sleeve has a slot. The lifting shaft is disposed inside the lifting sleeve and has multiple sliding steel balls. The lifting shaft also has a limiting device corresponding to the slot on the lifting sleeve. The first end of the lifting shaft is provided with an anti-loosening nut, and the second end is provided with a gear, which is connected to an electric device. The lifting gear is disposed at the second end of the lifting shaft and is located between the gear and the lifting sleeve.

[0015] Preferably, the transmission device includes a transmission sleeve, a transmission shaft, and transmission gears. The transmission sleeve is connected to the protection system via a support device. The transmission shaft is disposed inside the transmission sleeve and has sliding steel balls on it. The two transmission gears are respectively disposed at both ends of the transmission shaft and are respectively meshed with lifting gears on two lifting shafts.

[0016] Preferably, a second gear is provided on the output shaft of the electric device, and the second gear meshes with a first gear on the lifting shaft; the electric device is mounted on a bracket of the protection system, the bracket has an L-shaped cross-section, and support plates are provided at the connection points on both sides of the bracket.

[0017] Preferably, the collection trough includes a long side drain, a short side drain, and a bottom drain, and the collection trough is connected to the inside of the protection system via a collection trough hook on a support rod.

[0018] Preferably, the sedimentation tank has an opening at the top and a rectangular cross-section. The sedimentation tank consists of a bottom plate and side plates, with lifting rings provided on the two opposite side plates and anchoring grooves provided on the two opposite side plates.

[0019] Preferably, the fixed compartment plate has a groove-shaped cross-section, the side of the fixed compartment plate is located in the anchoring groove on the side plate of the sedimentation tank, and the bottom of the fixed compartment plate is fixedly connected to the bottom plate of the sedimentation tank; the movable compartment plate is set between the two fixed compartment plates and can move up and down; the guide tube is located in the groove of the fixed compartment plate, and the movable compartment plate is also provided with a fixed lifting ring, which is located above the guide tube.

[0020] In summary, by adopting the above technical solution, this utility model has at least the following beneficial effects:

[0021] 1. This device can not only be placed in different locations according to on-site construction needs, but also can be transferred, installed and used again, thereby improving the utilization rate of the site, the efficiency of fixed-point collection and the transfer and utilization rate;

[0022] 2. The size of the protective system can be adjusted according to construction needs, which is convenient and flexible. When the amount of concrete waste to be separated and collected is small, the size of the protective system can be reduced to avoid occupying the site; when the amount of concrete waste to be separated and collected is large, the size of the protective system can be increased to improve the efficiency of separation and collection.

[0023] 3. During the collection of concrete waste, this device can achieve the directional collection of coarse aggregate, fine aggregate and water, thereby avoiding secondary pollution to the construction site, improving the image of green construction, and also enabling the secondary use of the directionally collected resources. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of the structure of a prefabricated concrete waste recycling and separation device, an exemplary embodiment of this utility model.

[0025] Figure 2 This is a structural schematic diagram from another perspective of the prefabricated concrete waste recycling and separation device, which is an exemplary embodiment of this utility model.

[0026] Figure 3 yes Figure 2 Section 1-1.

[0027] Figure 4 yes Figure 2 Section 2-2.

[0028] Figure 5 This is a structural schematic diagram of the protective side panel.

[0029] Figure 6 yes Figure 5 Section 3-3.

[0030] Figure 7 This is a schematic diagram of the planar installation of the anchor plate and the vertical rod.

[0031] Figure 8 This is a three-dimensional installation diagram of the protection system and the lifting system.

[0032] Figure 9 This is a schematic diagram of the long side leakage channel of the collection tank.

[0033] Figure 10 This is a schematic diagram of the bottom groove of the collection tank.

[0034] Figure 11 This is a schematic diagram of the short side leakage channel of the collection tank.

[0035] Figure 12 This is an enlarged schematic diagram of the anchor rod.

[0036] Figure 13 This is an enlarged diagram of the tee connection.

[0037] Figure 14 yes Figure 8 Enlarged view of point A in the middle.

[0038] Figure 15 yes Figure 8 Enlarged view of point B in the middle.

[0039] The diagram shows the following labels: 1-Protective System, 11-Horizontal Rod, 12-Vertical Rod, 101-Rod One, 102-Rod Two, 13-Support Rod, 14-Protective Side Plate, 141-Fixed Protective Plate, 142-Modible Protective Plate, 15-Connecting T-junction, 151-Horizontal Connection, 152-Vertical Connection, 153-Connecting Hole, 16-Anchoring Hole, 17-Anchor Rod, 171-Spring, 172-Anchor Rod, 18-Anchor Plate, 19-Slide Groove, 110-Collection Groove Hook, 111-Baffle, 2-Lifting System, 21-Lifting Device, 211-Lifting Casing, 212-Lifting Shaft, 213-Lifting Gear, 214-Gear One, 22-Transmission Device, 221-Transmission Shaft, 222-Transmission Gear, 223-Transmission Casing, 23-Fixing Component, 24-Anti-Loosening Nut, 25-Rotating Shaft, 26-Sliding Steel Ball. 27-Limiting device, 271-Limiter, 272-Lifting steel rope, 273-Lifting hook, 28-Supporting device, 281-Horizontal brace, 282-Vertical brace, 283-Diagonal brace, 29-Electric device, 210-Gear II, 2011-Bracket, 2012-Support plate, 3-Collection system, 31-Collection trough, 311-Long side drain trough, 3111-Long horizontal bar, 3112-Vertical bar, 3113 - Vertical reinforcement bar, 312- Short side groove, 3121- Short horizontal bar, 313- Bottom groove, 3131- Horizontal reinforcement bar, 3132- Longitudinal reinforcement bar, 32- Sedimentation tank, 321- Primary sedimentation tank, 322- Secondary sedimentation tank, 33- Bottom plate, 34- Side plate, 4- Dividing system, 41- Fixed compartment plate, 411- Concave surface, 42- Movable compartment plate, 43- Anchoring groove, 44- Conduit. Detailed Implementation

[0040] The present invention will be further described in detail below with reference to the accompanying drawings and embodiments, so that the purpose, technical solution and advantages of the present invention will be clearer. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0041] This embodiment illustrates a prefabricated concrete waste recycling and separation device, referencing... Figures 1-2The device includes a protective system 1, a lifting system 2, a collection system 3, and a dividing system 4. The protective system 1 is used for structural load-bearing of the device. The protective system 1 is a cuboid or cube with openings at the top and bottom. The specific dimensions of the protective system 1 can be adjusted according to actual needs. The lifting system 2 is located on top of the protective system 1. The collection system 3 is located inside the protective system 1. The lifting system 2 is used to lift the collection system 3 to the top of the protective system 1. The collection system 3 includes a collection tank 31 and a sedimentation tank 32. The collection tank 31 is used to collect coarse aggregate from concrete waste. The sedimentation tank 32 is used to collect fine aggregates and water from concrete waste. The dividing system 4 is set inside the sedimentation tank 32, dividing the sedimentation tank 32 into a primary sedimentation tank 321 and a secondary sedimentation tank 322. The collection tank 31 is detachably connected to the protection system 1 and is located above the primary sedimentation tank 321. After the coarse aggregates of the concrete waste are collected by the collection tank 31, the fine aggregates and water enter the primary sedimentation tank 321 for sedimentation. After sedimentation, the water containing a small amount of fine aggregates enters the secondary sedimentation tank 322 through the dividing system for further separation and collection.

[0042] The protective system 1 includes horizontal bars 11, vertical bars 12, support bars 13, and protective side plates 14. The four vertical bars 12 are located at the four corners of the rectangle. The tops and bottoms of adjacent vertical bars 12 are connected by horizontal bars 11 to form the load-bearing skeleton of the protective system 1. The two adjacent horizontal bars 11 at the top and the two adjacent horizontal bars 11 at the bottom of the protective system 1 are fixedly connected to the vertical bars 12 by connecting tees 15. Multiple support bars 13 are vertically connected between the horizontal bars 11 at the top and bottom of the protective system 1. The multiple support bars 13 are arranged side by side on the horizontal bars 11 and are located on the inner or outer side of the protective system 1. The protective side plates 14 are arranged around the protective system 1 and are located on the outer side of the protective system 1.

[0043] Both the horizontal rod 11 and the vertical rod 12 are composed of rod one 101 and rod two 102. Rod two 102 is used to insert into rod one 101 to adjust its length. Rod one 101 is made of galvanized steel pipe with a diameter of 40mm and a wall thickness of 2mm, and rod two 102 is made of galvanized steel pipe with a diameter of 30mm and a wall thickness of 2mm. The first end of rod two 102 is inserted into the first end of rod one 101 and is movably connected to rod one 101. Anchor holes 16 with a diameter of 10mm are opened at equal intervals on rod one 101. Circular holes one (not shown in the figure) are opened at equal intervals on rod two 102, connecting rod two 102. The distance between two adjacent circular holes one is equal to the distance between two adjacent anchor holes 16. An anchor rod 17 is provided at one of the circular holes. After the anchor rod 17 is inserted into the anchor hole 16, it connects rod one 101 and rod two 102. The anchor rod 17 includes a spring 171 and an anchor rod 172 (see reference). Figure 12The spring 171 is connected to an anchor rod 172 at each end. The spring 171 is located inside the second rod 102. The anchor rod 172 extends out of the second rod 102 through the first round hole. The anchor rod 172 is a round tube with a diameter smaller than that of the anchor hole 16. When the anchor rod 172 is pressed, the spring 171 deforms under the pressure from the anchor rod 172. The end face of the anchor rod 172 enters the interior of the anchor hole 16 but still exceeds the surface of the second rod 102. This facilitates the movement of the second rod 102 inside the first rod 101 and the adjustment of its length. When the anchor rod 172 moves to any anchor hole 16, the pressure of the spring 171 is released, and the end face of the anchor rod 172 exceeds the anchor hole 16, fixing the positions of the first rod 101 and the second rod 102. An anchor rod 17 is provided at the anchor hole 16 near the second end of the first rod 101, with the first end and the second end of the first rod 101 facing each other.

[0044] The connecting tee 15 includes two horizontal connecting parts 151 and two vertical connecting parts 152. Figure 13 The connecting tee 15 is made of a galvanized round pipe with a diameter of 50mm. The two horizontal connecting parts 151 are perpendicular to the horizontal plane and respectively perpendicular to the vertical connecting part 152 on the vertical plane. Both the horizontal connecting part 151 and the vertical connecting part 152 are provided with connecting holes 153 (see reference). Figure 13 The cross-section of the connecting hole 153 is circular, and the diameter of the connecting hole 153 is adapted to the diameter of the anchor rod 172 of the anchor rod 17. The horizontal connecting part 151 is used to connect the horizontal rod 11. When the horizontal connecting part 151 is connected to the first rod 101 of the horizontal rod 11, the anchor rod 17 on the second end of the first rod 101 is detachably connected to the horizontal connecting part 151 through the connecting hole 153. Alternatively, when the horizontal connecting part 151 is connected to the second rod 102 of the horizontal rod 11, the anchor rod 17 near the second end of the second rod 102 is connected to the anchor rod 172 through the connecting hole 153. The vertical connecting part 152 is used to connect the vertical rod 12. The first rod 101 of the vertical rod 12 is connected to the vertical connecting part 152 at the top of the protection system 1. The anchor rod 17 on the second end of the first rod 101 is detachably connected to the vertical connecting part 152 through the connecting hole 153. The second rod 102 of the vertical rod 12 is connected to the vertical connecting part 152 at the bottom of the protection system 1. The anchor rod 17 near the second end of the second rod 102 is detachably connected to the vertical connecting part 152 through the connecting hole 153.

[0045] The support rod 13 is parallel to the vertical rod 12. The support rod 13 is made of ribbed steel bar with a diameter of 20mm. The support rod 13 is fixedly connected to the horizontal rod 11 by welding. One end of the support rod 13 is connected to the horizontal rod 11 at the top of the protection system 1, and the other end is connected to the horizontal rod 11 at the bottom of the protection system 1. The support 13 is used to increase the structural strength of the protection system 1. As a preferred embodiment, two adjacent support rods 13 are provided at the connection part of the first rod 101 and the second rod 102 of the horizontal rod 11 (for example, the two support rods are 0~5cm apart). One support rod 13 is located on the first rod 101 and close to the first end of the first rod 101, and the other support rod 13 is located on the second rod 102 and close to the first end of the first rod 101 (both adjacent support rods can be located on the first rod and close to the first end of the first rod). When the horizontal rod 11 is long (e.g., the length is greater than 3m), the two additional support rods 13 can further increase the structural stability. The support rod 13 is provided with a collection trough hook 110 for attaching the collection trough 31.

[0046] An anchor plate 18 is also provided on the vertical rod 12 (see reference). Figure 7 Anchor plates 18 are welded to the first 101 of the vertical rod 12. The anchor plates 18 are symmetrically arranged on the first 101, located on both sides of the anchor rod 17 at the second end of the first 101, and maintaining a certain distance from the anchor rod 17. The two anchor plates 18 are used for the installation of two adjacent protective side plates 14 on the protective system 1, without affecting the anchor rod 17 on the second 102 of the vertical rod 12 passing through the anchor hole 16 on the first 101. The length of the anchor plate 18 is adapted to the length of the first 101. The cross-section of the anchor plate 18 is a right-angled L-shape. The anchor plate 18 is made of 5mm thick angle steel. The first right-angled side of the anchor plate 18 is perpendicularly connected to the first 101, and the second right-angled side is parallel to the first 101 and parallel to the first 101. A certain distance is maintained, which is adapted to the thickness of the protective side plate 14. The anchor plate 18 and the rod 101 form a slot for installing the protective side plate 14. The slot is used to fix and prevent the protective side plate 14 from falling off. As a preferred embodiment, a baffle 111 is provided on the first right-angled side of the anchor plate 18. The baffle 111 is used to improve the stability of the installation of the protective side plate 14. The baffle 111 is perpendicularly connected to the first right-angled side of the anchor plate 18 and parallel to the second right-angled side of the anchor plate 18. The baffle 111 is located between the second right-angled side of the anchor plate 18 and the rod 101 of the vertical rod 12. A certain distance is maintained between the baffle 111 and the second right-angled side of the anchor plate 18, which is adapted to the thickness of the protective side plate 14.

[0047] During application, anchor plates and baffles can also be installed on the second pole 102 of the vertical pole 12 to further improve the stability of the protective side plate 14 installation. The anchor plates and baffles are installed on the second pole 102 in the same way as they are installed on the first pole 101. In the height direction of the second pole 102, the top of the anchor plates and baffles is a certain distance away from the first end of the second pole 102. The distance does not hinder the length adjustment of the vertical pole 12.

[0048] The protective side plate 14 is made of 4mm thick patterned steel plate. The height of the protective side plate 14 is adapted to the height of the protective system 1, and the width of the protective side plate 14 is adapted to the width of the protective system 1. The protective side plate 14 is used to improve the structural stability of the protective system 1 and also to provide external protection for the collection system 3. (Reference) Figure 5 The protective side plate 14 includes a fixed protective plate 141 and a movable protective plate 142. The fixed protective plate 141 and the movable protective plate 142 are movably connected by a sliding groove 19, which is respectively arranged on the upper and lower sides of the fixed protective plate 141. Figure 5 At both ends (up and down direction), the length of the slide groove 19 is equal to the width of the fixed protective plate 141, and the cross-section of the slide groove 19 is a right-angled L-shape (see reference). Figure 6 The first right-angled side of the slide groove 19 is fixedly connected to the fixed protective plate 141, and the second right-angled side is parallel to the fixed protective plate 141 and forms an opening. The width of the opening is adapted to the thickness of the movable protective plate 142. The opening at the upper end of the fixed protective plate 141 faces downward and the opening at the lower end of the fixed protective plate 141 faces upward. The first end of the movable protective plate 142 is inserted from the first end of the fixed protective plate 141. The top and bottom of the movable protective plate 142 are respectively inserted into the upper and lower openings of the fixed protective plate 141, and the width of the protective side plate 14 is adjusted by moving it along the length direction of the slide groove 19.

[0049] The protective side plate 14 is disposed between two adjacent vertical rods 12. The protective side plate 14 is movably connected to the anchor plate 18 on the vertical rod 12. The second end of the movable protective plate 142 is disposed in an anchor plate 18 on one vertical rod 12, with the first and second ends of the movable protective plate 142 facing each other. The second end of the fixed protective plate 141 is disposed in an anchor plate 18 on another adjacent vertical rod 12, with the first and second ends of the fixed protective plate 141 facing each other. The two anchor plates 18 connecting the protective side plate 14 are located on the same side of the protective side plate 1. When the length and width dimensions of the protective system 1 are long, multiple sets of protective side plates 14 can be disposed on each side of the protective system 1 to increase the protective effect. The anchor plate 18 is also disposed on the support rod 13. The anchor plate 18 is located on the support rod 13 near the first end of the rod 101. The first right-angled side of the anchor plate 18 is perpendicularly connected to the support rod 13, and the second right-angled side of the anchor plate 18 extends toward the second end of the rod 101. Anchor plate 18 is also located on support rod 13 near the first end of rod 102. The first right-angled side of anchor plate 18 is perpendicularly connected to support rod 13, and the second right-angled side of anchor plate 18 extends towards the second end of rod 102. The baffle 111 is perpendicularly connected to the first right-angled side of anchor plate 18 and parallel to the second right-angled side of anchor plate 18. The baffle 111 is located between the second right-angled side of anchor plate 18 and support rod 13. The baffle 111 is perpendicular to the second right-angled side of anchor plate 18. A certain distance is maintained at the edge, which is adapted to the thickness of the protective side plate 14. The second end of the movable protective plate 142 is set in an anchor plate 18 on a vertical rod 12, and the second end of the fixed protective plate 141 is set in an anchor plate 18 on an adjacent support rod 13. Alternatively, the second end of the fixed protective plate 141 is set in an anchor plate 18 on a vertical rod 12, and the second end of the movable protective plate 142 is set in an anchor plate 18 on an adjacent support rod 13.

[0050] refer to Figure 8 The lifting system 2 includes a lifting device 21 and a transmission device 22. Two sets of parallel lifting devices 21 are located on top of the protection system 1. The two sets of lifting devices 21 are connected by the transmission device 22. When power is applied to make one set of lifting devices 21 rotate, the transmission device 22 transmits the power to the other set of lifting devices 21, and the other set of lifting devices 21 also rotates under the drive of the transmission device 22.

[0051] Each lifting device 21 includes a lifting sleeve 211, a lifting shaft 212, and a lifting gear 213. The lifting sleeve 211 is made of galvanized steel pipe with a diameter of 40mm and a wall thickness of 2mm. The lifting sleeve 211 is used to protect the lifting shaft 212 and provide space for the lifting shaft 212 to rotate. Both ends of the lifting sleeve 211 are fixedly connected to the protection system 1 by fixing members 23. The fixing members 23 are fixedly installed on the connecting tee 15 at the top of the protection system 1 and are located on a horizontal connecting part 151 of the connecting tee 15. The horizontal rod 11 connected to the horizontal connecting part 151 is perpendicular to the lifting sleeve 211. The fixing member can also be set on a horizontal bar. The distance between the two lifting sleeves can be adjusted according to the setting position of the fixing member on the horizontal bar. The cross-section of the fixing member 23 is L-shaped. One side of the fixing member 23 is perpendicularly connected to the horizontal connecting part 151, and the other side is parallel to the horizontal connecting part 151 and extends in the length direction of the horizontal connecting part 151. The lifting sleeve 211 is fixedly connected to the other side of the fixing member 23. Slots (not shown in the figure) are respectively opened at both ends near the lifting sleeve 211. The slots are located between the two fixing members 23 connected to the lifting sleeve 211 (more slots can be set in the length direction of the lifting sleeve).

[0052] The lifting shaft 212 is housed inside the lifting sleeve 211, with both ends extending out of the sleeve. The lifting shaft is made of 20mm diameter round steel bar. A 60mm diameter hexagonal nut 24 is installed at the first end of the lifting shaft 212, with a diameter larger than that of the lifting sleeve 211. The nut prevents the lifting shaft 212 from detaching from the first end of the lifting sleeve 211 during rotation. A rotating shaft 25 is installed at the second end of the lifting shaft 212, with the first and second ends facing each other. The rotating shaft 25 drives the lifting shaft 212 to rotate. The cross-section of the rotating shaft 25 is L-shaped (see reference). Figure 1 One side of the rotating shaft 25 is perpendicular to and fixedly connected to the lifting shaft 212, and the other side of the rotating shaft 25 extends away from the lifting shaft 212. By holding the other side of the rotating shaft 25 and applying force to it, the rotating shaft 25 makes a circular motion, and the lifting shaft 212 also rotates under the drive of the rotating shaft 25.

[0053] As one preferred embodiment, reference is made to Figure 15The second end of the lifting shaft 212 is connected to the electric device 29. A gear 214 is provided at the second end of the lifting shaft 212, and a gear 210 is provided on the output shaft of the electric device 29. Gear 214 and gear 210 mesh with each other. The electric device 29 provides power for the rotation of the lifting shaft 212. The electric device 29 is mounted on a bracket 2011 on the protective system 1 (or a separate support frame can be erected on the ground to hold the electric device; the electric device can also be mounted on the ground). Gear 214 and gear 210 are connected via... (Chain connection), the electric device 29 is located below the lifting shaft 212, the cross section of the bracket 2011 is L-shaped, one side of the bracket 2011 is fixedly connected to the connecting tee 15 at the top of the protection system 1 (it can also be extended to connect to the horizontal bar or support bar), the other side of the bracket 2011 is used to place the electric device 29, and a support plate 2012 is provided at the connection part on both sides of the bracket 2011. The cross section of the support plate 2012 is a right triangle, and the two right-angled sides of the support plate 2012 are fixedly connected to the two sides of the bracket 2011 respectively.

[0054] The lifting shaft 212 is provided with a plurality of sliding steel balls 26. The diameter of the sliding steel balls 26 is smaller than the diameter of the lifting sleeve 211. The sliding steel balls 26 are solid steel balls with a diameter of 34mm and a central hole with a diameter of 20mm. The lifting shaft 212 passes through the hole of the sliding steel balls 26 and is fixedly connected to the sliding steel balls 26. The sliding steel balls 26 make the lifting shaft 212 rotate more smoothly inside the lifting sleeve 211.

[0055] Two sets of limiting devices 27 are also provided on the lifting shaft 212. The two sets of limiting devices 27 are respectively close to both ends of the lifting sleeve 211 and located inside the lifting sleeve 211 (more sets of limiting devices can be provided along the length of the lifting shaft, and the limiting devices are set corresponding to the slots on the lifting sleeve. The setting positions of the slots on the lifting sleeve and the limiting devices on the lifting shaft are determined according to the lifting stability requirements of the collection tank and sedimentation tank). Each set of limiting devices 27 includes two limiters 271, a lifting steel rope 272 and a lifting hook 273. The limiters 271 are welded to the lifting shaft 212, and the cross-section of the limiters 271 is circular. The limiter 271 is made of steel sheet with a diameter of less than 40mm and greater than 20mm and a wall thickness of 2mm. The distance between the two limiters is adapted to the length of the slot. A lifting steel rope 272 with a diameter of 4mm is set between the two limiters 271. The limiters 271 are used to prevent the lifting steel rope 272 from deviating during the lifting process. The first end of the lifting steel rope 272 passes through the slot and is fixedly connected to the lifting shaft 212. The second end of the lifting steel rope 272 is fixedly connected to the lifting hook 273. The first end and the second end of the lifting steel rope 272 are opposite to each other. The lifting hook 273 is used to attach the collection system 3.

[0056] The lifting gear 213 is disposed at the second end of the lifting shaft 212 and is located between the gear 214 and the lifting sleeve 211. A certain distance is left between the lifting gear 213 and the second end of the lifting sleeve 211. The first end and the second end of the lifting sleeve 211 are opposite to each other. The lifting gear 213 is a bevel gear with a shaft hole diameter of 20mm. The second end of the lifting shaft 212 passes through the middle circular hole of the lifting gear 213 and is fixedly connected to the lifting shaft 212.

[0057] The transmission device 22 includes a transmission sleeve 221, a transmission shaft 222, and a transmission gear 223. The transmission sleeve 221 is made of galvanized steel pipe with a diameter of 40mm and a wall thickness of 2mm. The transmission sleeve 221 provides space for the transmission shaft 222 to rotate. Figure 14The transmission sleeve 221 is connected to the protection system 1 via a support device 28. The protection system 1 is provided with one or more support devices 28, each including a horizontal brace 281, a vertical brace 282, and a diagonal brace 283. The vertical brace 282 is located near the first end of the diagonal brace 283, and its first end is connected to the diagonal brace 283. The second end of the vertical brace 282 is perpendicularly connected to the first end of the horizontal brace 281, with the first and second ends of the vertical brace 282 facing each other. The second end of the horizontal brace 281 is connected to the second end of the diagonal brace 283, with the first and second ends of the horizontal brace 281 facing each other. Yes, the first and second ends of the diagonal brace 283 are opposite each other, and the length of the transmission sleeve 221 is adapted to the width of the horizontal brace 281; when the support device 28 is connected to the protection system 1, the vertical brace 282 is fixedly connected to the horizontal bar 11, and the first end of the diagonal brace 283 is fixedly connected to the support rod 13; the transmission shaft 222 is set inside the transmission sleeve 221, and the transmission shaft 222 is made of a 20mm diameter plain round steel bar. In order to make the transmission shaft 222 rotate more smoothly inside the transmission sleeve 221, sliding steel balls 26 can also be set on the transmission shaft 222, and the sliding steel balls 26 are located in the transmission sleeve 221. Inside 21, the drive shaft 222 passes through the hole of the sliding steel ball 26 and is fixedly connected to the sliding steel ball 26; the drive gears 223 are respectively disposed at both ends of the drive shaft 222, and the drive gears 223 are bevel gears (the diameter of the drive gears is smaller than the diameter of the lifting gears). The two drive gears 223 are respectively meshed with the lifting gears 213 on the two lifting shafts 212. The drive gear 223 at the first end of the drive shaft 222 is connected to one lifting gear 213, and the drive gear 223 at the second end of the drive shaft 222 is connected to the other lifting gear 213. With the first and second ends facing each other, the lifting gear 213 connected to the transmission gear 223 at the first end of the transmission shaft 222 rotates. The transmission gear 223 at the first end of the transmission shaft 222 also rotates under the drive of the lifting gear 213, and transmits the rotational force to the transmission gear 223 at the second end of the transmission shaft 222 through the transmission shaft 222. This rotational force causes the transmission gear 223 at the second end of the transmission shaft 222 to rotate, which in turn causes the lifting gear 213 connected to the transmission gear 223 at the second end of the transmission shaft 222 to rotate as well, so that the two sets of lifting devices 21 move synchronously.

[0058] The collection system 3 includes a collection tank 31 and a sedimentation tank 32. The collection tank 31 is used to separate and collect coarse aggregate from the concrete waste, and the sedimentation tank 32 is used to separate and collect fine aggregate and water from the concrete waste. The collection tank 31 is a cuboid with an open top, and is made of 16mm diameter threaded steel. The collection tank 31 includes two long side drains 311, two short side drains 312, and a bottom drain 313. (See reference) Figure 9The long side groove 311 includes a long horizontal bar 3111 and a vertical bar 3112. Two parallel long horizontal bars 3111 are perpendicularly connected to the two ends of the vertical bars 3112. Two parallel vertical bars 3112 are located at the two ends of the long horizontal bars 3111. A vertical reinforcement bar 3113 is provided between the two long horizontal bars 3111. The vertical reinforcement bar 3113 is arranged side by side on the long horizontal bar 3111 and perpendicularly connected to the long horizontal bar 3111. (Reference) Figure 11 The vertical rods 3112 of the two long side grooves 311 are connected by short horizontal rods 3121. The two short horizontal rods 3121 are located at both ends of the vertical rods 3112 and are perpendicular to the vertical rods 3112. The vertical rods 3112 of the two long side grooves 311 and the two short horizontal rods 3121 form a short side groove 312. Vertical reinforcement rods 3113 are also provided on the short horizontal rods 3121 of the short side groove 312. The vertical reinforcement rods 3113 are arranged side by side between the two short horizontal rods 3121 of the short side groove 312, and the two ends of the vertical reinforcement rods 3113 are perpendicular to the two short horizontal rods 3121 respectively. (Reference) Figure 10 The bottom groove 313 includes a horizontal encryption rod 3131 and a vertical encryption rod 3132. The long horizontal rods 3111 at the bottom of the two long side grooves 311 are connected by the vertical encryption rods 3132. The vertical encryption rods 3132 are arranged side by side on the long horizontal rods 3111 and are perpendicularly connected to the long horizontal rods 3111. The short horizontal rods 3121 at the bottom of the two short side grooves 312 are connected by the horizontal encryption rods 3131. The horizontal encryption rods 3131 are arranged side by side on the short horizontal rods 3131. On 121, and vertically connected to the short crossbar 3121; when the collection trough 31 is working, the collection trough 31 is fixedly connected to the support rod 13 through the collection trough hook 110. The collection trough hook 110 is hung on the short crossbar 3121 at the top of the short side drain trough 312 and is located at both ends of the short crossbar 3121. When the collection trough 31 is lifted, the lifting hook 273 is hung on the long crossbar 3111 at the top of the long side drain trough 311 and is located at both ends of the long crossbar 3111.

[0059] The sedimentation tank 32 has an opening at the top and a rectangular cross-section. The sedimentation tank 32 is assembled from 4mm thick patterned steel plates. The sedimentation tank 32 consists of a bottom plate 33 and side plates 34. Lifting rings (not shown in the figure) are respectively installed on the two opposite side plates 34. The lifting rings are located at both ends of the top of the side plates 34. When lifting the sedimentation tank 32, the lifting rings are used to attach the lifting hooks 273.

[0060] The segmentation system 4 is installed on the side plate 34 of the sedimentation tank 32 via anchoring grooves 43 (see reference). Figure 2Two anchoring grooves 43 are located in the middle of two opposite side plates 34. The length of the anchoring groove 43 is adapted to the height of the side plate 34. The cross-section of the anchoring groove 43 is U-shaped. The bottom edge of the anchoring groove 43 is fixedly connected to the side plate 34, and the side edges of the anchoring groove 43 are perpendicular to the side plate 34. The dividing system 4 is located in the opening of the anchoring groove 43. The dividing system 4 is made of 4mm thick patterned steel plate. The dividing system 4 includes a fixed dividing plate 41 and a movable dividing plate 42. The movable dividing plate 42 is located between the two fixed dividing plates 41 and can move up and down. The cross-section of the fixed dividing plate 41 is U-shaped (see reference). Figure 3 The bottom of the fixed compartment plate 41 is fixedly connected to the bottom plate 33 of the sedimentation tank 32, and the side of the fixed compartment plate 41 is located in the opening of the anchor groove 43; a guide pipe 44 is provided on the movable compartment plate 42. The guide pipe 44 is a PVC pipe with a diameter of 100mm. The guide pipe 44 is used to introduce the water after sedimentation in the primary sedimentation tank into the secondary sedimentation tank for further sedimentation. The guide pipe 44 is located in the groove of the fixed compartment plate 41, and both ends of the guide pipe 44 extend out of the fixed compartment plate 41 (see reference). Figure 4 The movable compartment plate 42 is moved left and right so that when the guide tube 44 is close to both sides of the groove of the fixed compartment plate 41, both ends of the movable compartment plate 42 are located between the two fixed compartment plates 41. A fixed lifting ring (not shown in the figure) is provided on the top of the movable compartment plate 42. The fixed lifting ring is located above the guide tube 44 and is used to lift and fix the movable compartment plate 42 to the top of the fixed compartment plate 41. When the top of the movable compartment plate 42 is lifted to the top of the fixed compartment plate 41, a fixed rod (not shown in the figure) is inserted into the fixed lifting ring. The two ends of the fixed rod are respectively located on the two opposite side plates 34 of the sedimentation tank 32. When the movable compartment plate 42 is fixed to the top of the fixed compartment plate 41, the bottom of the movable compartment plate 42 is located between the two fixed compartment plates 41. The groove of the fixed compartment plate 41 is located below the fixed compartment plate 41, and a certain distance is left between the fixed compartment plate 41 and the bottom of the fixed compartment plate 41 to prevent water from the primary sedimentation tank 321 from flowing into the secondary sedimentation tank 322 from the bottom of the movable compartment plate 42. At the same time, the distance between the guide pipe 44 and the bottom of the fixed compartment plate 41 increases as the movable compartment plate 42 is raised, which is conducive to the primary sedimentation tank 321 collecting more fine aggregate and water. After the fine aggregate in the primary sedimentation tank 321 has settled, the movable compartment plate 42 is lowered so that the bottom of the movable compartment plate 42 contacts the bottom of the fixed compartment plate 41. The distance between the guide pipe 44 and the bottom of the fixed compartment plate 41 decreases as the movable compartment plate 42 is lowered, which is conducive to introducing the water settled in the primary sedimentation tank 321 into the secondary sedimentation tank 322 for further sedimentation.

[0061] When using this device to collect concrete waste, place the device on a flat surface, drive the concrete truck next to the device, and position the truck's unloading chute above the collection tank 31. After cleaning the concrete truck's hopper and mixing drum, discharge the concrete waste from the hopper and mixing drum into the collection tank 31 via the unloading chute. After the coarse aggregate is collected in the collection tank 31, the fine aggregate and water enter the primary sedimentation tank 321 for sedimentation. At this time, lift the top of the movable compartment plate 42 to the top of the fixed compartment plate 41, causing the guide tube 44 to move upward, and pass the fixing rod through the fixing ring, setting both ends of the fixing rod on the two opposite side plates 34; when the primary sedimentation tank 321... After sedimentation is complete, the fixed rod is pulled out, causing the movable compartment plate 42 to descend to the bottom of the fixed compartment plate 41. At this time, the guide tube 44 moves down, diverting the water in the primary sedimentation tank 321 to the secondary sedimentation tank 322 for further sedimentation, and then pumping away the sedimented water. After the final separation and collection of concrete waste is completed, the lifting hook 273 on the lifting system 2 is attached to the long horizontal bar 3111 at the top of the collection trough 31, and the collection trough 31 is lifted to the top of the protection system 1 for the transfer of coarse aggregate. The lifting hook 273 on the lifting system 2 is attached to the lifting ring on the sedimentation tank 32, and the sedimentation tank 32 is lifted to the top of the protection system 1 for the transfer of fine aggregate.

[0062] The above description is merely a detailed illustration of specific embodiments of this utility model, and not a limitation thereof. Various substitutions, modifications, and improvements made by those skilled in the art without departing from the principles and scope of this utility model should be included within the protection scope of this utility model.

Claims

1. A prefabricated concrete waste recycling and separation device, characterized in that, include: The system comprises a protective system (1), a lifting system (2), a collection system (3), and a dividing system (4). The protective system (1) is a cuboid or cube with openings at the top and bottom. The protective system (1) includes a horizontal bar (11), a vertical bar (12), a support bar (13), and a protective side plate (14). The lifting system (2) is located on top of the protective system (1). The lifting system (2) includes a lifting device (21) and a transmission device (22). Two sets of parallel lifting devices (21) are connected to the protective system (1) through fasteners (23). The two systems are connected by a transmission device (22); the collection system (3) is located inside the protection system (1), and the collection system (3) includes a collection tank (31) and a sedimentation tank (32); the dividing system (4) divides the sedimentation tank (32) into a primary sedimentation tank (321) and a secondary sedimentation tank (322), and the dividing system (4) includes a fixed dividing plate (41) and a movable dividing plate (42), and the movable dividing plate (42) is provided with a conduit (44); the collection tank (31) is detachably connected to the protection system (1) and is located above the primary sedimentation tank (321).

2. The prefabricated concrete waste recycling and separation device according to claim 1, characterized in that, The four vertical rods (12) are located at the four corners of the rectangle. The top and bottom of the adjacent vertical rods (12) are connected by horizontal rods (11). The two adjacent horizontal rods (11) at the top of the protection system (1) and the two adjacent horizontal rods (11) at the bottom of the protection system (1) are fixedly connected to the vertical rods (12) by connecting tee (15). The horizontal rods (11) and the vertical rods (12) are both composed of rod one (101) and rod two (102). Anchor holes (16) are opened on rod one (101), and anchor rods (17) corresponding to the anchor holes (16) are provided on rod two (102). Rod two (102) is inserted into rod one (101) and is movably connected to rod one (101) by anchor rod (17).

3. The prefabricated concrete waste recycling and separation device according to claim 1, characterized in that, Multiple support rods (13) are arranged side by side between the horizontal rods (11) at the top and bottom of the protection system (1). The support rods (13) are vertically connected to the horizontal rods (11) at the top and bottom of the protection system (1) and are located inside or outside the protection system (1). Two adjacent support rods (13) are provided at the connection between rod one (101) and rod two (102) of the horizontal rod (11).

4. The prefabricated concrete waste recycling and separation device according to claim 1, characterized in that, The protective side plate (14) is arranged around the protective system (1) and located on the outside of the protective system (1). The protective side plate (14) is movably connected to the anchor plate (18) on the vertical rod (12). The protective side plate (14) is also movably connected to the anchor plate (18) on the support rod (13). The protective side plate (14) includes a fixed protective plate (141) and a movable protective plate (142). The movable protective plate (142) is movably connected to the sliding grooves (19) at the upper and lower ends of the fixed protective plate (141).

5. The prefabricated concrete waste recycling and separation device according to claim 1, characterized in that, Each lifting device (21) includes a lifting sleeve (211), a lifting shaft (212), and a lifting gear (213). The two ends of the lifting sleeve (211) are fixedly connected to the protection system (1) by fasteners (23), and the lifting sleeve (211) has a slot. The lifting shaft (212) is set inside the lifting sleeve (211), and multiple sliding steel balls (26) are set on the lifting shaft (212). The lifting shaft (212) is also set with a limiting device (27) corresponding to the slot on the lifting sleeve (211). The first end of the lifting shaft (212) is set with an anti-loosening nut (24), and the second end is set with a gear (214). The gear (214) is connected to the electric device (29). The lifting gear (213) is set at the second end of the lifting shaft (212) and is located between the gear (214) and the lifting sleeve (211).

6. The prefabricated concrete waste recycling and separation device according to claim 5, characterized in that, The transmission device (22) includes a transmission sleeve (221), a transmission shaft (222), and transmission gears (223). The transmission sleeve (221) is connected to the protection system (1) through a support device (28). The transmission shaft (222) is located inside the transmission sleeve (221), and a sliding steel ball (26) is provided on the transmission shaft (222). The two transmission gears (223) are respectively located at both ends of the transmission shaft (222), and the two transmission gears (223) are respectively meshed with the lifting gears (213) on the two lifting shafts (212).

7. The prefabricated concrete waste recycling and separation device according to claim 5, characterized in that, The output shaft of the electric device (29) is provided with a second gear (210), which meshes with the first gear (214) of the lifting shaft (212); the electric device (29) is installed on the bracket (2011) of the protection system (1), the bracket (2011) has an L-shaped cross section, and a support plate (2012) is provided at the connection part on both sides of the bracket (2011).

8. The prefabricated concrete waste recycling and separation device according to claim 1, characterized in that, The collection trough (31) includes a long side drain trough (311), a short side drain trough (312) and a bottom drain trough (313). The collection trough (31) is connected to the inside of the protection system (1) by a collection trough hook (110) on the support rod (13).

9. The prefabricated concrete waste recycling and separation device according to claim 1, characterized in that, The sedimentation tank (32) has an opening at the top and a rectangular cross section. The sedimentation tank (32) is composed of a bottom plate (33) and side plates (34). Lifting rings are provided on the two opposite side plates (34). Anchor grooves (43) are provided on the two opposite side plates (34).

10. A prefabricated concrete waste recycling and separation device according to claim 9, characterized in that, The fixed compartment plate (41) has a groove-shaped cross section. The side of the fixed compartment plate (41) is located in the anchoring groove (43) on the side plate (34) of the sedimentation tank (32). The bottom of the fixed compartment plate (41) is fixedly connected to the bottom plate (33) of the sedimentation tank (32). The movable compartment plate (42) is set between the two fixed compartment plates (41) and can move up and down. The guide tube (44) is located in the groove of the fixed compartment plate (41). The movable compartment plate (42) is also provided with a fixed lifting ring and is located above the guide tube (44).