CN210965448U

CN210965448U - Garbage disposal recycling device

Info

Publication number: CN210965448U
Application number: CN201921817873.6U
Authority: CN
Inventors: 吴娟如
Original assignee: Shenzhen Baozhengtong Environment Co ltd
Current assignee: Shenzhen Baozhengtong Environment Co ltd
Priority date: 2019-10-25
Filing date: 2019-10-25
Publication date: 2020-07-10
Anticipated expiration: 2029-10-25

Abstract

The utility model relates to a garbage treatment recycling device, which belongs to the technical field of crushers, and comprises a primary crushing mechanism positioned below a feed inlet, a secondary crushing mechanism arranged below the primary crushing mechanism and a primary vibrating screen, wherein the primary vibrating screen is obliquely arranged between the primary crushing mechanism and the secondary crushing mechanism; the organism corresponds the one-level shale shaker lower extreme and has seted up the one-level and retrieve the mouth, and the organism outside is equipped with the recovery rail of connecting one-level and retrieving mouth and feeding conveyer belt, retrieves the rail and sets up towards feeding conveyer belt one end downward sloping. Through set up the shale shaker of slope in elementary broken mechanism below, filter building rubbish, set up the one-level simultaneously and retrieve the mouth and retrieve the rail for the great building rubbish of volume can be broken once more, improves crushing effect.

Description

Garbage disposal recycling device

Technical Field

The utility model belongs to the technical field of the breaker technique and specifically relates to a refuse treatment retrieves and recycles device is related to.

Background

The construction waste refers to residue, waste soil, waste material, residual mud and other wastes generated in the process of constructing, laying, dismantling and repairing various buildings, building pipe networks and the like by construction and construction units or individuals.

At present, with the rapid development of the building industry in China, the quantity of the generated building garbage is an astonishing number, however, the building garbage is not subjected to any treatment and is stacked or buried in the open air, so that a large amount of building expenses such as land charge and garbage clearing and transporting expenses are consumed, and meanwhile, the problems of scattering, dust, sand flying and the like in the clearing and stacking processes cause serious environmental pollution. Therefore, people begin to research and develop and use the construction waste crusher to crush the construction waste so as to reuse the construction waste.

However, the existing crushing equipment for a lot of construction wastes is not easy to completely crush the construction wastes, the size of the crushed construction wastes is greatly different, and part of the construction wastes with large volume still need to be screened and picked again by workers.

Therefore, a new technical solution is needed to solve the above technical problems.

SUMMERY OF THE UTILITY MODEL

The utility model aims at providing a refuse treatment retrieves recycling device through the shale shaker that sets up the slope in elementary broken mechanism below, screens building rubbish, sets up the one-level simultaneously and retrieves mouthful and retrieve the rail for the great building rubbish of volume can be broken once more, improves crushing effect.

The above utility model discloses an above-mentioned utility model purpose can realize through following technical scheme:

a garbage treatment recycling device comprises a machine body and a crushing device arranged inside the machine body, wherein a feeding hole is formed in the top of the machine body, a feeding conveying belt connected to the feeding hole is arranged on one side of the machine body, the crushing device comprises a primary crushing mechanism located below the feeding hole, a secondary crushing mechanism arranged below the primary crushing mechanism and a primary vibrating screen, and the primary vibrating screen is obliquely arranged between the primary crushing mechanism and the secondary crushing mechanism; the one-level mouth of retrieving has been seted up to the corresponding one-level shale shaker of organism lower extreme, the organism outside is equipped with the recovery rail of connecting one-level mouth and feeding conveyer belt of retrieving, retrieve the rail and set up towards feeding conveyer belt one end downward sloping.

By adopting the technical scheme, the crushing device is arranged in the machine body, so that the adverse effect of dust on air in the crushing process is reduced, and the construction waste is conveniently conveyed into the machine body to be crushed by arranging the feeding conveyor belt; by arranging the primary crushing mechanism and the secondary crushing mechanism, the construction waste is subjected to double crushing, thereby improving the crushing effect, the construction waste is screened by the primary vibrating screen arranged between the primary crushing mechanism and the secondary crushing mechanism, and the primary vibrating screen is arranged obliquely, a primary recovery port is arranged at the lowest end of the machine body corresponding to the primary vibrating screen, so that construction waste with larger volume remained on the upper end surface of the primary vibrating screen is discharged from the primary recovery port, by arranging the recovery rail corresponding to the first-stage recovery port on the outer side of the machine body and enabling the recovery rail to incline downwards towards one end of the feeding conveyor belt, so that the construction waste on the recovery rail can move to the feeding conveyor belt along the inclined track of the recovery rail, make building rubbish can enter into the organism again and carry out the breakage in the effect of feeding conveyer belt, improve building rubbish's crushing effect.

The utility model discloses further set up to: a secondary vibrating screen which is obliquely arranged is arranged below the secondary crushing mechanism, a secondary recovery opening is formed in the machine body corresponding to the lowest end of the secondary vibrating screen, a feeding opening is formed in the machine body above the secondary recovery opening and above the secondary crushing mechanism, and a conveying assembly is arranged between the feeding opening and the secondary recovery opening; the size of the holes of the secondary vibrating screen is smaller than that of the holes of the primary vibrating screen.

Through adopting above-mentioned technical scheme, screen the broken building rubbish through secondary crushing mechanism through setting up the second grade shale shaker, screen the building rubbish that is greater than second grade shale shaker eyelet size and the building rubbish that is less than second grade shale shaker eyelet size with the volume, and retrieve mouth and pan feeding mouth through seting up the second grade on the organism, thereby pass through the transport of conveying subassembly with the great building rubbish of volume once more through secondary crushing mechanism breakage, thereby guarantee that the size of building rubbish after by the breakage is more even.

The utility model discloses further set up to: the conveying assembly comprises a vertically arranged conveying chamber and a spiral conveying shaft vertically arranged in the conveying chamber in a rotating mode, a conveying motor is arranged at one end of the spiral conveying shaft, the lower end of the conveying chamber is communicated with the secondary recovery port, and the upper end of the conveying chamber is communicated with the feeding port.

Through adopting above-mentioned technical scheme, through setting up transfer chamber and spiral conveying axle to make the great building rubbish of second grade shale shaker top volume can carry out the breakage in entering into secondary crushing mechanism again under conveying component's effect.

The utility model discloses further set up to: be equipped with the ejection of compact rail of conveying chamber one end downward sloping between transfer chamber and the second grade recovery mouth, be equipped with the pan feeding rail of pan feeding mouth one end downward sloping between transfer chamber and the pan feeding mouth, ejection of compact rail and pan feeding rail all are linked together with the transfer chamber.

Through adopting above-mentioned technical scheme, through setting up out the material rail and the income material rail to make building rubbish can follow in the internal entering conveying room of organism, and from in the conveying room through the income material rail reentrant organism, realize broken recovery, guarantee crushing effect.

The utility model discloses further set up to: secondary crushing mechanism sets up in inside first crushing roller and the second crushing roller of organism including rotating, parallel arrangement in first crushing roller and the second crushing roller horizontal direction, the equal interval of outer wall of first crushing roller and second crushing roller is equipped with a plurality of broken teeth.

Through adopting above-mentioned technical scheme, through setting up first crushing roller and second crushing roller to set up broken tooth on first crushing roller and second crushing roller, and make building rubbish can enter into and carry out the breakage between first crushing roller and the second crushing roller.

The utility model discloses further set up to: be equipped with the deflector between secondary crushing mechanism and the second grade shale shaker, the deflector sets up towards the top downward sloping of second grade shale shaker.

Through adopting above-mentioned technical scheme, make the construction waste after secondary crushing mechanism breaks drop from the highest end department on second grade shale shaker inclined plane through setting up the deflector, guarantee that the construction waste after secondary crushing mechanism breaks can be better ground second grade shale shaker screening.

The utility model discloses further set up to: the lower end face of the guide plate is provided with a plurality of atomizing nozzles, and a dust recovery mechanism is arranged between the guide plate and the secondary vibrating screen.

Through adopting above-mentioned technical scheme, spray water smoke through atomizer, utilize water smoke to adsorb the dust, help preventing building dust polluted air, set up dust and the water smoke that the mechanism was retrieved to the dust that drops and receive, avoid water smoke to spill on building rubbish to avoid building rubbish to be drenched and influence its screening on the second grade shale shaker.

The utility model discloses further set up to: the dust recycling mechanism comprises a receiving plate and a recycling pipe, wherein the center of the receiving plate is sunken downwards, and the recycling pipe is arranged in the center of the receiving plate and penetrates through the receiving plate.

Through adopting above-mentioned technical scheme, make dust and the water smoke that drops on the receiving board can assemble at the receiving board center along the sunken cambered surface of receiving board through setting up the receiving board of central undercut, the collector tube runs through the receiving board center for dust and moisture on the receiving board can discharge through the collector tube.

To sum up, the utility model discloses a beneficial technological effect does: the construction waste is subjected to double crushing by arranging the primary crushing mechanism and the secondary crushing mechanism, so that the crushing effect is improved, the primary vibrating screen is arranged between the primary crushing mechanism and the secondary crushing mechanism, the construction waste is screened by the primary vibrating screen, the machine body is provided with the primary recovery port and the recovery rail, the construction waste with larger volume on the primary vibrating screen is recovered and crushed again, and the volume of the crushed construction waste is ensured to be similar; the secondary vibrating screen is arranged below the secondary crushing mechanism, and the machine body is provided with a secondary recovery port and a feeding port, so that the construction waste on the secondary vibrating screen is recovered and crushed again under the transmission of the transmission assembly, the volume of the construction waste screened by the secondary vibrating screen is ensured to be similar, and the size of the crushed construction waste is similar; by arranging the atomizing nozzle and the dust recovery mechanism below the guide plate, part of dust generated by the crushing secondary vibrating screen is removed, and the pollution of the dust to the environment is reduced.

Drawings

Fig. 1 is a schematic view of the overall structure of the present invention;

FIG. 2 is a partial cross-sectional view of the present invention, primarily showing the arrangement of the crushing device within the body;

FIG. 3 is an enlarged view of portion A of FIG. 2;

fig. 4 is a partial sectional view of the present invention, which mainly shows the position relationship and components between the pulverizing mechanism and the blanking mechanism.

In the figure, 1, a machine body; 11. a feed inlet; 12. a primary recovery port; 13. a secondary recovery port; 14. a feeding port; 15. a material guide plate; 16. a guide plate; 17. a sloping plate; 2. a crushing device; 21. a primary crushing mechanism; 22. a secondary crushing mechanism; 221. a first crushing roller; 222. a second crushing roller; 223. a first motor; 224. a second motor; 225. crushing teeth; 23. a first-stage vibrating screen; 24. a secondary vibrating screen; 25. a crushing mechanism; 251. a crushing table; 252. a crushing hammer; 253. a sliding sleeve; 2531. a material receiving port; 254. a drive assembly; 2541. a drive motor; 2542. a drive wheel; 2543. a connecting rod; 26. a blanking mechanism; 261. a blanking motor; 262. a screw rod; 263. a slide bar; 264. a limiting sleeve; 265. a material receiving frame; 3. a feed conveyor; 31. a baffle plate; 4. recovering the rail; 5. a transfer assembly; 51. a transfer chamber; 52. a helical transfer shaft; 53. a transfer motor; 54. discharging the material rail; 55. feeding a material rail; 6. an atomizing spray head; 7. a dust recovery mechanism; 71. receiving a plate; 72. a recovery pipe; 73. a pull rope.

Detailed Description

The present invention will be described in further detail with reference to the accompanying drawings.

Referring to fig. 1, for the utility model discloses a refuse treatment retrieves recycles device, including organism 1 with set up breaker 2 in organism 1, feed inlet 11 has been seted up at 1 top of organism, and for the convenience pours building rubbish into organism 1 inside from feed inlet 11 and breaks, 1 one side of organism is equipped with the feeding conveyer belt 3 of connecting in feed inlet 11, through placing building rubbish on feeding conveyer belt 3, makes building rubbish enter into organism 1 inside under feeding conveyer belt 3's drive.

Referring to fig. 1 and 2, the crushing device 2 includes a primary crushing mechanism 21 located below the feed port 11, a secondary crushing mechanism 22 disposed below the primary crushing mechanism 21, and a primary vibrating screen 23, and the primary vibrating screen 23 is obliquely disposed between the primary crushing mechanism 21 and the secondary crushing mechanism 22, and the primary vibrating screen 23 screens the construction waste which is still large in volume after being crushed by the primary crushing mechanism 21, so that the construction waste is prevented from being blocked on the secondary crushing mechanism 22, and the crushing of the secondary crushing mechanism 22 is prevented from being adversely affected. In order to guarantee the crushing effect, the primary crushing mechanism 21 adopts a jaw crushing structure to crush the construction wastes with different sizes, so that the volume of the construction wastes after crushing is close. The static jaw plate of the primary crushing mechanism 21 is positioned above the highest position of the inclined end of the primary vibrating screen 23, and the movable jaw plate of the primary crushing mechanism 21 is positioned above the inclined surface of the primary vibrating screen 23, so that the construction waste crushed by the primary crushing mechanism 21 can be better screened by the primary vibrating screen 23.

Referring to fig. 1 and 2, in order to facilitate the crushing device 2 to perform thorough crushing treatment on the construction waste, the machine body 1 is provided with a first-level recycling port 12 corresponding to the lowest end of the first-level vibrating screen 23, and the outer side of the machine body 1 is provided with a recycling rail 4 for connecting the first-level recycling port 12 and the feeding conveyor belt 3. Because one-level shale shaker 23 is the slope setting, consequently retrieve mouthful 12 one side landing along the inclined plane of one-level shale shaker 23 by the building rubbish of separation in one-level shale shaker 23 top, for guaranteeing to retrieve on the restriction that building rubbish on the rail 4 can follow its orbit slides to feeding conveyer belt 3, retrieve the rail 4 towards feeding conveyer belt 3 one end downward sloping setting. For guaranteeing that building rubbish can be better enter into on feeding conveyer belt 3, the incline direction and the feeding conveyer belt 3 of one-level shale shaker 23 are perpendicular setting on the horizontal plane, thereby make and retrieve rail 4 and be the arc setting, it is close to each other with feeding conveyer belt 3's up end to retrieve 1 one end of organism that rail 4 deviates from top that feeding conveyer belt 3 is located, feeding conveyer belt 3 corresponds the export tip of retrieving rail 4 and is equipped with baffle 31, thereby make the building rubbish that breaks away from on retrieving rail 4 can drop smoothly on feeding conveyer belt 3.

Referring to fig. 2 and 4, a secondary crushing mechanism 22 is provided below with a secondary vibrating screen 24 disposed obliquely, and the size of the secondary vibrating screen 24 is smaller than that of the primary vibrating screen 23. The secondary crushing mechanism comprises a first crushing roller 221 and a second crushing roller 222 which are rotatably arranged inside the machine body 1, the first crushing roller 221 and the second crushing roller 222 are arranged in parallel in the horizontal direction, the first crushing roller 221 is connected with a first motor 223, the second crushing roller 222 is connected with a second motor 224, and the first crushing roller 221 and the second crushing roller 222 are respectively driven by the first motor 223 and the second motor 224. First crushing roller 221 and second crushing roller 222 are located under one-level shale shaker 23, and the one side that first crushing roller 221 and second crushing roller 222 carried on the back mutually all with organism 1 inner wall butt to avoid construction waste to drop from the space between first crushing roller 221 or second crushing roller 222 and the organism 1. Referring to fig. 3, a plurality of crushing teeth 225 are provided at intervals on the outer walls of the first crushing roller 221 and the second crushing roller 222, and a certain interval is left between the first crushing roller 221 and the second crushing roller 222, so that construction waste can enter between the first crushing roller 221 and the second crushing roller 222 to be crushed.

Referring to fig. 2, in order to ensure that the construction waste screened by the first-stage vibrating screen 23 can better fall between the first crushing roller 221 and the second crushing roller 222, two material guide plates 15 are arranged between the first-stage vibrating screen 23 and the secondary crushing mechanism 22, the two material guide plates 15 are arranged in a splayed shape, one ends of the two material guide plates 15, which are opposite to each other, are fixedly connected with the inner wall of the machine body 1, one side of the two material guide plates 15, which is large in opening, faces the first-stage vibrating screen 23, and one side, which is small in opening, faces the secondary crushing mechanism 22 and is located between the first crushing roller 221 and the second crushing roller 222.

Referring to fig. 1 and 2, for making things convenient for breaker 2 to carry out thorough broken handle to building rubbish, organism 1 corresponds second grade shale shaker 24 lowest end and has seted up the second grade and retrieves mouth 13, organism 1 is located the second grade and retrieves the top of mouth 13 and has seted up pan feeding mouth 14, pan feeding mouth 14 is located the stock guide 15 top, and be equipped with conveying assembly 5 between pan feeding mouth 14 and the second grade recovery mouth 13, retrieve the building rubbish on the second grade shale shaker 24 through conveying assembly 5 and convey secondary crushing mechanism 22 top, make building rubbish broken once more. The conveying assembly 5 comprises a conveying chamber 51 vertically arranged and a spiral conveying shaft 52 vertically and rotatably arranged in the conveying chamber 51, wherein one end of the spiral conveying shaft 52 is provided with a conveying motor 53, and the conveying motor 53 is arranged outside the conveying chamber 51. A discharging rail 54 which is inclined downwards towards one end of the conveying chamber 51 is arranged between the lower end of the conveying chamber 51 and the secondary recycling port 13, and the discharging rail 54 is communicated with the conveying chamber 51, so that the conveying chamber 51 is communicated with the secondary recycling port 13, and the construction waste accumulated at the secondary recycling port 13 can enter the conveying chamber 51 through the discharging rail 54. A feeding rail 55 which inclines downwards towards one end of the feeding port 14 is arranged between the upper end of the conveying chamber 51 and the feeding port 14, the feeding rail 55 is communicated with the conveying chamber 51, so that the conveying chamber 51 is communicated with the feeding port 14, the construction waste is discharged from the upper end of the conveying chamber 51 under the conveying of the spiral conveying shaft 52, enters the machine body 1 again along the guide of the feeding rail 55, and enters the secondary crushing mechanism 22 again for crushing under the guide of the material guide plate 15.

Referring to fig. 2, in order to ensure that the construction waste crushed by the secondary crushing mechanism 22 can be better screened by the secondary vibrating screen 24, a guide plate 16 is arranged between the secondary crushing mechanism 22 and the secondary vibrating screen 24, and the guide plate 16 is arranged to be inclined downwards towards the highest end of the secondary vibrating screen 24, so that the construction waste crushed by the secondary crushing mechanism 22 is better screened by the secondary vibrating screen 24 while falling from the highest end of the inclined surface of the secondary vibrating screen 24 and rolling along the inclined surface of the secondary vibrating screen 24.

Referring to fig. 2 and 3, after the construction waste is crushed by the secondary crushing mechanism 22, the particles of the construction waste are smaller, and in order to better remove dust generated in the crushing process, a plurality of atomizing nozzles 6 are arranged on the lower end surface of the guide plate 16 at intervals, and the atomizing nozzles 6 are connected with an external water supply pipe. When building rubbish dropped downwards, tiny particles such as dust upwards floated, sprayed water smoke through atomizer 6, utilized water smoke to adsorb the dust, helped preventing building dust polluted air. In order to avoid water mist from falling on the construction waste, the construction waste is wetted to influence the screening of the construction waste on the second-stage vibrating screen 24, the dust recovery mechanism 7 is arranged between the guide plate 16 and the second-stage vibrating screen 24, and the dust recovery mechanism 7 is positioned below the atomizing spray head 6 and receives the falling dust and the water mist.

Referring to fig. 2 and 3, the dust recovery mechanism 7 includes a receiving plate 71 having a center depressed downward, and a recovery pipe 72 having a center depressed downward such that dust and mist dropped on the receiving plate 71 can be collected at the center of the receiving plate 71 along the depressed arc surface of the receiving plate 71; the recycling pipe 72 is disposed at the center of the receiving plate 71 and penetrates through the receiving plate 71, and is communicated with the receiving plate 71 through the recycling pipe 72, and one end of the recycling pipe 72, which is far away from the receiving plate 71, penetrates through the machine body 1 and is connected with a sewage treatment tank (not shown in the figure), so that dust and moisture on the receiving plate 71 can be discharged through the recycling pipe 72. In order to enable the dust to better rise and enter between the receiving plate 71 and the atomizing nozzle 6, the receiving plate 71 is hung in the machine body 1, a plurality of guys 73 (four guys are shown in the figure) are arranged on the receiving plate 71 at intervals along the circumferential direction of the receiving plate 71, the guys 73 are made of stainless steel ropes, and the other ends of the guys 73 are fixedly connected with the guide plate 16, so that the circumferential wall of the receiving plate 71 is not in contact with the inner wall of the machine body 1, a gap is reserved between the receiving plate 71 and the inner wall of the machine body 1, and the dust can rise between the gap and the receiving plate 71 and the atomizing nozzle 6. The side of the receiving plate 71, which is away from the atomizer 6, is a conical surface, so that the dust can better pass through the gap between the receiving plate 71 and the machine body 1 along the guiding direction of the receiving plate 71.

Referring to fig. 2 and 4, the crushing device 2 further includes a crushing mechanism 25 disposed at one side of the secondary crushing mechanism 22, the crushing mechanism 25 includes a crushing table 251 located below the secondary crushing mechanism 22 and a crushing hammer 252 vertically slidably disposed above the crushing table 251, a sloping plate 17 is disposed below the secondary vibrating screen 24, the sloping plate 17 is inclined toward one side of the crushing table 251 and the sloping plate 17 is located above the crushing table 251, so that the construction waste crushed by the secondary crushing mechanism 22 is guided to the crushing table 251, and the crushed construction waste is crushed when the crushing hammer 252 moves toward the crushing table 251 by cooperation of the crushing hammer 252 and the crushing table 251, so that the construction waste forms finer particles. In order to enhance the crushing effect of the crushing hammer 252, a plurality of crushing protrusions (not shown) are arranged at intervals on the end surface of one side, facing the crushing table 251, of the crushing hammer 252, and the contact area between the crushing hammer 252 and the construction waste is reduced by using the crushing protrusions, so that the construction waste can be better crushed.

Referring to fig. 2 and 4, a driving assembly 254 is connected to an end of the crushing hammer 252 away from the crushing table 251, the driving assembly 254 includes a driving motor 2541 and a driving wheel 2542 coaxially and fixedly disposed on an output shaft of the driving motor 2541, the output shaft of the driving motor 2541 is perpendicular to a movement direction of the crushing hammer 252, one side of the driving wheel 2542 is hinged to a connecting rod 2543, the other end of the connecting rod 2543 is hinged to the crushing hammer 252, the driving wheel 2542 is driven to select when the driving motor 2541 rotates, and the connecting rod 2543 is disposed away from the output shaft of the driving motor 2541, so that the connecting rod 2543 moves along with the rotation of the driving wheel 2542, and the crushing hammer 252. In order to ensure that the path of the up-and-down movement of the smashing hammer 252 is fixed, the machine body 1 is provided with a sliding sleeve 253 corresponding to the smashing hammer 252, the sliding sleeve 253 is positioned above the smashing table 251, the smashing hammer 252 is slidably arranged in the sliding sleeve 253 and is abutted against the inner wall of the sliding sleeve 253, and the sliding sleeve 253 is used for limiting the movement track of the smashing hammer 252.

Referring to fig. 2 and 4, in order to prevent the construction waste from falling when the construction waste is crushed by the crushing hammer 252, a material receiving opening 2531 is formed in the side wall of the sliding sleeve 253 corresponding to the inclined plate 17, and the inclined plate 17 is communicated with the material receiving opening 2531, so that the construction waste on the inclined plate 17 can enter the sliding sleeve 253 through the material receiving opening 2531 and then fall on the crushing table 251; the interval between material receiving port 2531 and the crushing platform 251 is less than the highly diameter that is greater than drive wheel 2542 of smashing hammer 252 for smash hammer 252 towards smash the platform 251 motion and carry out kibbling in-process to building rubbish, the lateral wall of smashing hammer 252 conflicts with the sliding sleeve 253 inner wall, makes building rubbish stop to drop, when smashing hammer 252 can drive subassembly 254 one end and remove and be located the top of material receiving port 2531, building rubbish gets into in the sliding sleeve 253 and drops on crushing platform 251 through material receiving port 2531.

Referring to fig. 2 and 4, in order to conveniently remove the construction waste crushed on the crushing table 251, a blanking mechanism 26 is arranged between the crushing table 251 and the sliding sleeve 253, the blanking mechanism 26 includes a screw rod 262 and a sliding rod 263 which are arranged above the crushing table 251 in parallel, the screw rod 262 is provided with two position-limiting sleeves 264 at intervals along the length direction thereof, the two position-limiting sleeves 264 are arranged between the screw rod 262 and the sliding rod 263, one side of the position-limiting sleeve 264 is in threaded connection with the screw rod 262, and the other side is in sliding connection with the sliding rod 263. A gap is reserved between the lower end face of the limiting sleeve 264 and the upper end face of the crushing table 251, so that part of construction waste particles with the volume smaller than that of the gap between the limiting sleeve 264 and the crushing table 251 can be separated from the gap, and the normal movement of the crushing hammer 252 in the crushing process is ensured; the upper end face of the position-limiting sleeve 264 can be abutted against the lower end face of the sliding sleeve 253, and the diameter of the position-limiting sleeve 264 is equal to that of the sliding sleeve 253. When the axis of one of them stop collar 264 and the axis collineation of sliding sleeve 253, construction waste drops in stop collar 264 through sliding sleeve 253, and under the restriction of stop collar 264, construction waste is difficult for splashing, and when smashing hammer 252 and construction waste contact and extrusion construction waste, guarantees that construction waste can be effectively smashed.

Referring to fig. 2 and 4, a blanking motor 261 is arranged at one end of the limiting sleeve 264, which is located at the screw 262, and the blanking motor 261 adopts a servo motor. Under the limitation of the sliding rod 263, when the screw 262 is driven by the feeding motor 261 to rotate, the two limiting sleeves 264 are driven by the screw 262 to move synchronously along the axial direction of the screw 262. When the driving assembly 254 drives the crushing hammer 252 to move upwards, when the crushing hammer 252 is separated from the position-limiting sleeve 264, the blanking motor 261 drives the screw rod 262 to rotate, so that the position-limiting sleeve 264 positioned right below the sliding sleeve 253 is moved away, meanwhile, the other position-limiting sleeve 264 is moved to the position below the sliding sleeve 253, before the crushing hammer 252 slides to the position above the material receiving opening 2531, the other position-limiting sleeve 264 is moved to the position right below the sliding sleeve 253, and at the moment, the blanking motor 261 stops rotating. After the construction waste in the position-limiting sleeves 264 is crushed, the blanking motor 261 rotates reversely, so that the two position-limiting sleeves 264 are alternatively aligned with the sliding sleeve 253.

Referring to fig. 4, the area of the pulverizing table 251 is slightly larger than the area of the end of the position-limiting sleeves 264, and when one of the position-limiting sleeves 264 is aligned with the sliding sleeve 253, the other position-limiting sleeve 264 is separated from the pulverizing table 251 while ensuring the stability of the position-limiting sleeves 264 placed on the pulverizing table 251. The material receiving frames 265 are placed on the two sides of the crushing table 251 along the length direction of the screw 262, and the limiting sleeves 264 are driven by the screw 262 to move, so that the lower end faces of the two limiting sleeves 264 are alternatively abutted to the upper end face of the crushing table 251. After the construction waste in the limiting sleeve 264 on the crushing table 251 is crushed, the screw 262 drives the two crushing cylinders to move synchronously, so that the construction waste on the crushing table 251 enters the material receiving frame 265 under the driving of the limiting sleeve 264, and the other limiting sleeve 264 is moved to the crushing table 251 to receive and limit the construction waste for the next crushing treatment of the construction waste.

The specific implementation process of the embodiment: the construction waste is placed on the feeding conveyor belt 3 and is driven by the feeding conveyor belt 3 to enter the machine body 1 from the feeding hole 11. When the construction waste enters the machine body 1, the construction waste falls on the primary crushing mechanism 21, the construction waste crushed by the primary crushing mechanism 21 falls on the primary vibrating screen 23, the construction waste is screened by the primary vibrating screen 23, and part of the construction waste with the volume smaller than the size of the holes of the primary vibrating screen 23 falls on the material guide plates 15 and is crushed towards the secondary crushing mechanism 22 under the restriction of the two material guide plates 15. The construction waste remained above the primary vibrating screen 23 enters the recycling rail 4 through the primary recycling port 12 along the inclined plane of the primary vibrating screen 23, and the construction waste slides down to the feeding conveyor belt 3 again under the guidance of the recycling rail 4 and is conveyed into the machine body 1 again for crushing by the feeding conveyor belt 3.

The construction waste crushed by the secondary crushing mechanism 22 falls on the guide plate 16 and falls on the inclined upper end face of the secondary vibrating screen 24 along the inclined angle of the guide plate 16, and under the action of the secondary vibrating screen 24, part of the construction waste with the volume smaller than the mesh size of the diary vibrating screen falls on the inclined plate 17 and slides towards one side of the crushing mechanism 25 under the guide of the inclined plate 17. The construction waste remained above the secondary vibrating screen 24 enters the discharge rail 54 through the secondary recycling port 13 along the inclined surface of the secondary vibrating screen 24 and enters the conveying chamber 51 through the discharge rail 54, is discharged from the upper end of the conveying under the conveying of the spiral conveying shaft 52, reenters the machine body 1 through the feed rail 55 and the feed port 14, and falls into the secondary crushing mechanism 22 again under the guiding of the material guide plate 15 for crushing treatment.

The construction waste dropped on the guide plate 16 is accumulated at the lower end of the inclined surface of the guide plate 16 by the guide plate 16, and when the crushing hammer 252 moves toward the driving unit 254 and the crushing hammer 252 is located above the receiving opening 2531, the construction waste enters the sliding sleeve 253 through the receiving opening 2531 and drops into the stop collar 264 at the upper end of the crushing table 251. When the crushing hammer 252 moves towards one side of the crushing table 251, the crushing hammer 252 collides with the inner wall of the sliding sleeve 253, so that the building rubbish stops falling, and when the crushing hammer 252 contacts with the building rubbish, after the crushing hammer 252 finishes crushing the building rubbish, the driving component 254 drives the crushing hammer 252 to move upwards. When the crushing hammer 252 is separated from the limiting sleeve 264, the blanking motor 261 drives the screw rod 262 to rotate, so that the limiting sleeve 264 is separated from the position under the sliding sleeve 253, at the moment, the other limiting sleeve 264 moves towards the position under the sliding sleeve 253, when the crushing hammer 252 moves to the position above the material receiving opening 2531, the other limiting sleeve 264 moves to the position under the sliding sleeve 253, and at the moment, the blanking motor 261 stops rotating; after the next time of crushing treatment is completed, the blanking motor 261 rotates in the reverse direction, and the two limiting sleeves 264 sequentially circulate so as to alternately move to the position right below the sliding sleeve 253.

The embodiment of this specific implementation mode is the preferred embodiment of the present invention, not limit according to this the utility model discloses a protection scope, so: all equivalent changes made according to the structure, shape and principle of the utility model are covered within the protection scope of the utility model.

Claims

1. The utility model provides a refuse treatment retrieves recycling device which characterized in that: the crusher comprises a crusher body (1) and a crushing device (2) arranged inside the crusher body (1), wherein a feeding hole (11) is formed in the top of the crusher body (1), a feeding conveyor belt (3) connected to the feeding hole (11) is arranged on one side of the crusher body (1), the crushing device (2) comprises a primary crushing mechanism (21) positioned below the feeding hole (11), a secondary crushing mechanism (22) arranged below the primary crushing mechanism (21) and a primary vibrating screen (23), and the primary vibrating screen (23) is obliquely arranged between the primary crushing mechanism (21) and the secondary crushing mechanism (22); organism (1) corresponds one-level shale shaker (23) lowest end and has seted up one-level and retrieve mouth (12), organism (1) outside is equipped with recovery rail (4) of connecting one-level and retrieving mouth (12) and feeding conveyer belt (3), it sets up towards feeding conveyer belt (3) one end downward sloping to retrieve rail (4).

2. The waste disposal, recycling and reusing device according to claim 1, wherein: a secondary vibrating screen (24) which is obliquely arranged is arranged below the secondary crushing mechanism (22), a secondary recovery opening (13) is formed in the machine body (1) corresponding to the lowest end of the secondary vibrating screen (24), a feeding opening (14) is formed in the machine body (1) above the secondary recovery opening (13), the feeding opening (14) is located above the secondary crushing mechanism (22), and a conveying assembly (5) is arranged between the feeding opening (14) and the secondary recovery opening (13); the aperture size of the secondary vibrating screen (24) is smaller than that of the primary vibrating screen (23).

3. A waste disposal, recycling and reusing device according to claim 2, wherein: conveying subassembly (5) including vertical conveying chamber (51) that sets up and vertical rotation set up spiral conveying axle (52) in conveying chamber (51), the one end of spiral conveying axle (52) is equipped with conveying motor (53), the lower extreme and the second grade of conveying chamber (51) are retrieved mouthful (13) and are linked together, the upper end and pan feeding mouth (14) of conveying chamber (51) are linked together.

4. A waste disposal, recycling and reusing device according to claim 3, wherein: a discharging rail (54) which inclines downwards towards one end of the conveying chamber (51) is arranged between the conveying chamber (51) and the secondary recovery port (13), a feeding rail (55) which inclines downwards towards one end of the feeding port (14) is arranged between the conveying chamber (51) and the feeding port (14), and the discharging rail (54) and the feeding rail (55) are communicated with the conveying chamber (51).

5. A waste disposal, recycling and reusing device according to claim 2, wherein: the secondary crushing mechanism (22) comprises a first crushing roller (221) and a second crushing roller (222) which are rotatably arranged inside the machine body (1), the first crushing roller (221) and the second crushing roller (222) are arranged in parallel in the horizontal direction, and a plurality of crushing teeth (225) are arranged on the outer walls of the first crushing roller (221) and the second crushing roller (222) at intervals.

6. The waste disposal, recycling and reusing device according to claim 5, wherein: and a guide plate (16) is arranged between the secondary crushing mechanism (22) and the secondary vibrating screen (24), and the guide plate (16) is downwards inclined towards the highest end of the secondary vibrating screen (24).

7. The waste disposal, recycling and reusing device according to claim 6, wherein: the dust recycling device is characterized in that a plurality of atomizing nozzles (6) are arranged on the lower end face of the guide plate (16), and a dust recycling mechanism (7) is arranged between the guide plate (16) and the secondary vibrating screen (24).

8. The waste disposal, recycling and reusing device according to claim 7, wherein: the dust recovery mechanism (7) comprises a receiving plate (71) with a downward sunken center and a recovery pipe (72), wherein the recovery pipe (72) is arranged in the center of the receiving plate (71) and penetrates through the receiving plate (71).