CN116941429A - Corn peeling device for livestock feed production - Google Patents

Abstract

The invention relates to the technical field of corn production and processing, and in particular to a corn peeling device for livestock feed production. The technical solution is: a corn peeling device for livestock feed production, including a processing box and a peeling box, and a peeling box is connected to the upper side of the processing box. The peeling roller and the peeling roller are used to peel and peel the incoming corn, and at the same time, the first half gear groove and the second half gear groove are provided to cooperate with each other.

Description

A corn peeling device for livestock feed production

Technical field

The invention relates to the technical field of corn production and processing, and in particular to a corn peeling device for livestock feed production.

Background technique

For example, the patent name is a corn peeling device for livestock feed production, and the patent number is 201910540437.7. It includes a base plate, a driving motor, a screw rod, a sleeve, a cylinder, a peeling knife and a grain receiving plate; the upper side of the base plate is fixedly connected to a column, and the upper end of the column is The cover plate is fixedly connected. A drive motor is fixedly installed on the inner side of the upper part of the column. The lower part of the drive motor is connected to the screw rod for rotation. The wires of the drive motor are connected to the power supply and the controller. The screw rod is threaded to connect the sleeve plate, and one side of the sleeve plate is rotated and connected to the roller. , the roller fits the side wall of the column, a fixed sleeve is fixed on the other side of the sleeve plate, and a peeling knife is provided on the fixed sleeve; a sleeve is provided on one side of the drive motor, the sleeve end bearing is connected to the cover plate in rotation, and the lower part of the sleeve slides Connect the telescopic rod. There are two strip-shaped grooves symmetrically arranged on the inner wall of the sleeve. The outer surface of the telescopic rod has two symmetrical convex strips. The convex strips are embedded in the grooves. The upper part of the screw rod and the sleeve are connected by a synchronous belt. Connect, the lower end of the telescopic rod is fixedly connected to the plum blossom cone head.

However, the existing corn processing device does not have a peeling function, so the user needs to wait for the peeling machine to peel the corn and then transport it to the peeling machine for secondary processing, which is time-consuming and laborious. At the same time, the existing device is equipped with a single fan blade. The filtering effect is not good, and the existing device does not have the ability to process the peeled corn. When making feed for livestock, the peeled corn should be processed and chopped to facilitate the later production of feed. However, Existing devices usually only have a peeling function, causing users to spend time transporting corn kernels and processing the corn kernels, which reduces manufacturing efficiency.

Contents of the invention

In order to overcome the problem that the existing corn processing device is single and does not have the peeling function. At the same time, the device is equipped with a single fan blade for filtering. The filtering effect is not good, and the device does not have the ability to process the peeled corn. In order to make feed for livestock When the corn is peeled, the corn after peeling should be processed and chopped to facilitate later manufacturing. However, the existing device is usually only equipped with a peeling function, which reduces the manufacturing efficiency. The purpose of the present invention is to provide a corn peeling method for livestock feed production. granular device.

The technical solution is: a corn peeling device for livestock feed production, including a processing box and a peeling box, and a peeling box is connected to the upper side of the processing box;

An inclined filter plate is connected to the inner lower part of the stripping box. A first slag outlet is provided on the side of the stripping box close to the inclined filter plate. A collection box is connected to the lower part of the stripping box close to the first slag outlet. A peeling roller is connected above the inclined filter plate inside the peeling box. One end of the peeling roller is connected to a rotating shaft. The other end of the rotating shaft away from the peeling roller is connected to a first motor. The rotating shaft is connected to a first movable belt. The other end of the movable belt away from the rotating shaft is connected to a peeling roller. The other end of the peeling roller away from the first motor is connected to a first rotating disk. The other end of the first rotating disk away from the peeling roller is connected to a first half gear groove. A second rotating disk is connected to the outer circumference of a rotating plate, and a second half gear groove is connected to the other end of the peeling roller on the second rotating plate. An external gear is connected to the outer circumference of the second half gear groove, and an internal gear is connected to one end of the external gear. , a peeling outer cylinder is connected to the outer circumference of the inner gear, a semicircular gear groove is connected to the upper circumference of the peeling outer cylinder, a number of peeling spikes are provided on the inside of the peeling outer cylinder, and an outer cylinder is connected to the other end of the peeling outer cylinder away from the internal gear. gear, a second movable belt is connected between the peeling outer cylinder and the outer cylinder gear, a rectangular opening and closing plate is connected to the other end of the second movable belt away from the outer cylinder gear, and an opening and closing outer frame is installed and connected directly above the rectangular opening and closing plate. The first half gear groove of the peeling roller is connected to the outer cylinder gear of the peeling outer cylinder through a connecting gear.

As a further preferred solution, the gear grooves outside the circumference of the first half gear groove and the second half gear groove are both set to one quarter.

As a further preferred solution, the bottom end of the processing box is connected to a feeding pipe, the end of the feeding pipe is connected to an outer sifting cylinder, the inner upper part of the sifting outer cylinder is connected to an inner sifting cylinder, and several baffles are connected to the inner sifting cylinder. , the bottom of the sieving inner cylinder is connected with an inclined discharge plate, the outer circumference of the sieving outer cylinder is provided with a second slag outlet near the top of the inclined discharge plate, and the outer circumference of the upper part of the sieving outer cylinder is connected with a second slag outlet. Motor, the second motor is connected to a third movable belt, the other end of the third movable belt is connected to a sieve shaft, both ends of the sieve shaft are connected to vertical fan blades, and the outside of the circumference of the vertical fan blades is connected to a fan blade net , connecting rods are connected to the outer circumference of the upper part of the screen shaft, a cavity is provided inside the connecting rod, a snap ring is connected to the bottom of the cavity, a turning plate is connected to the bottom of the connecting rod, and a chuck is connected to the top of the turning plate. The snap ring and the chuck of the connecting rod cooperate with each other. The bottom of the turning plate is connected to a blanking plate, and a blanking outer ring is installed and connected directly below the blanking plate.

As a further preferred solution, a cavity and a snap ring are provided inside the connecting rod, and the cross-sectional size of the cavity is larger than the cross-sectional size of the chuck of the turning plate, and the chuck of the turning plate is embedded in the cavity of the connecting rod. The snap ring and the clamp head cooperate with each other.

As a further preferred solution, the bottom of the sieving outer cylinder is connected to the crushing cylinder, and the rotating block is connected directly below the sieving shaft. Nesting rods are provided at both ends of the top of the rotating block. The nesting between the sieving shaft and the rotating block is The sets of rods are connected, a second embedded rod is connected to the outside of the circumference of the rotating block, a second movable ring is connected to the other end of the second embedded rod away from the rotating block, and a second chute is provided inside the second movable ring. The second insert rod of the block cooperates with the second chute of the second movable ring. The bottom of the rotating block is connected to a crushing shaft. The upper part of the crushing shaft is connected to a cutting blade. The crushing shaft is connected to the bottom of the cutting blade. There is a pushing plate, a crushing roller is connected to the lower part of the crushing shaft, a pressing plate is connected to the bottom end of the crushing shaft, and an outer ring filter screen is connected between the crushing roller and the pressing plate on the crushing shaft. A cutting barrel is connected to the inner side of the outer ring filter. A cutting groove is provided on the top of the cutting barrel. A number of corn outlets are provided at the lower part of the cutting groove of the cutting barrel. A breaking groove is provided on the inside of the cutting barrel. The cutting groove on the cutting barrel is A feeding trough is provided between the trough and the corn outlet.

As a further preferred solution, fixed rods are provided on the outside of the lower circumference of the screening shaft, and two nesting rods are provided on the top of the rotating block, and the middle part of the nesting rods is set as an "O" shaped cavity, and the fixed rods are embedded in In the "O"-shaped cavity within the nesting rod, and at the same time, the cross-sectional size of the "O"-shaped cavity is larger than the cross-sectional size of the fixed rod.

The invention has the following advantages: 1. The peeling roller and the peeling roller are used to peel and peel the incoming corn, and at the same time, the first half gear groove and the second half gear groove are provided to cooperate with each other to drive the peeling outer cylinder to flip up and down. At the same time, the rectangular opening and closing plates are driven to rotate together, causing the corn to flow into the peeling outer cylinder at intervals, processing the corn, and preventing the corn from being stuck due to excessive cutting.

2. The inner cylinder of the sieve is equipped with two cavities, and both of them are equipped with vertical fan blades and turning plates. The vertical fan blades and turning plates cooperate with each other to remove the mixed corn kernels from the slag. The filter screen on the inner cylinder is blown out for sieving to improve the filtration effect.

3. The grinding shaft is equipped with a cutting blade and a grinding roller. The cutting blade and the grinding roller cooperate with each other to perform double-layer processing of the corn kernels and improve the processing effect of the corn kernels.

Description of the drawings

Figure 1 is a schematic plan view of the processing box of the present invention.

Figure 2 is a schematic three-dimensional structural diagram of the peeling assembly of the present invention.

Figure 3 is a schematic diagram of the three-dimensional structure of the peeling box of the present invention.

Figure 4 is a schematic diagram of the three-dimensional structure of the connection between the peeling roller, the peeling roller and the peeling outer cylinder of the present invention.

Figure 5 is a schematic diagram of the connection between the peeling roller and the peeling roller of the present invention.

Figure 6 is a schematic three-dimensional structural diagram of the positive rotation connection between the peeling outer cylinder and the rectangular opening and closing plate of the present invention.

Figure 7 is a schematic three-dimensional structural diagram of the peeling roller and the peeling outer cylinder of the present invention.

Figure 8 is a schematic three-dimensional structural diagram of the reverse rotation connection between the peeling outer cylinder and the rectangular opening and closing plate of the present invention.

Figure 9 is a schematic three-dimensional structural diagram of the filter assembly and the grinding assembly of the present invention.

Figure 10 is a schematic diagram of the three-dimensional structure of the sieving outer cylinder of the present invention.

Figure 11 is a schematic three-dimensional structural diagram of the filter assembly of the present invention.

Figure 12 is a schematic diagram of the exploded three-dimensional structure of the screen shaft and the fan blade mesh cylinder of the present invention.

Figure 13 is a schematic three-dimensional structural diagram of the explosive connection between the connecting rod and the turning plate according to the present invention.

Figure 14 is an exploded three-dimensional structural diagram of the blanking plate and the blanking outer ring of the present invention.

Figure 15 is a schematic three-dimensional structural diagram of the grinding component of the present invention.

Figure 16 is a schematic three-dimensional structural diagram of the connection between the screening shaft and the nesting rod according to the present invention.

Figure 17 is a schematic three-dimensional structural diagram of the screening shaft of the present invention.

Figure 18 is a schematic diagram of the exploded three-dimensional structure of the cutting barrel of the present invention.

Figure 19 is a schematic three-dimensional structural diagram of the crushing roller and crushing tank of the present invention.

Number names in the figure: 1-processing box, 2-stripping assembly, 21-stripping box, 2101-inclined filter plate, 2102-first slag outlet, 2103-slag collection box, 22-first motor, 23 - Peeling roller, 2301 - rotating shaft, 2302 - first rotating disk, 2303 - first half gear groove, 2304 - second rotating disk, 2305 - second half gear groove, 2306 - first movable belt, 2307 - peeling roller , 24-external gear, 2401-internal gear, 25-peeling outer cylinder, 2501-semi-circular gear groove, 2502-peeling spike, 2503-outer cylinder gear, 2504-second movable belt, 26-connecting gear, 27-rectangular Opening and closing plate, 2701-Opening and closing outer frame, 3-Feeding pipe, 4-Filter component, 41-Screening outer cylinder, 4101-Screening inner cylinder, 4102-Baffle, 4103-Incline discharge plate, 4104-No. Second slag outlet, 42-second motor, 43-third movable belt, 44-screening shaft, 4401-vertical fan blade, 4402-fan blade mesh cylinder, 45-connecting rod, 4501-cavity, 4502- Snap ring, 46-turning plate, 4601-chuck, 47-blanking plate, 4701-blanking outer ring, 5-pulverizing component, 51-pulverizing cylinder, 52-second movable ring, 5201-second Chute, 53-rotating block, 5301-second nesting rod, 5302-nesting rod, 5303-crushing shaft, 5304-cutting blade, 5305-pushing plate, 5306-crushing roller, 5307-outer ring filter , 5308-pressing plate, 54-cutting cylinder, 5401-cutting groove, 5402-feeding groove, 5403-breaking groove, 5404-corn outlet, 55-second spring assembly.

body implementation

The technical solution will be further described below in conjunction with specific embodiments. It should be noted that the words indicating directions such as up, down, left, and right mentioned in this article are only for the position of the structure shown in the corresponding drawing. . The serial numbers assigned to components in this article, such as first, second, etc., are only used to distinguish the described objects and do not have any sequential or technical meaning. In this application, words such as: connection and connection include direct and indirect connections (connections) unless otherwise specified.

Example 1

As shown in Figure 1-8, a corn peeling device for livestock feed production includes a processing box 1 and a peeling box 21. The upper side of the processing box 1 is connected to a peeling box 21;

The peeling assembly 2 includes a peeling box 21. An inclined filter plate 2101 is connected to the inner lower part of the peeling box 21. A first slag outlet 2102 is provided above the side of the peeling box 21 close to the inclined filter plate 2101. A collecting box is connected to the lower part of the granulating box 21 near the first slag outlet 2102. A peeling roller 23 is connected above the inclined filter plate 2101 on the inside of the granulating box 21. One end of the peeling roller 23 is connected to a rotating shaft 2301, and the rotating shaft 2301 is away from the The other end of the peeling roller 23 is connected to a first motor 22, and the rotating shaft 2301 is connected to a first movable belt 2306. The other end of the first movable belt 2306 is away from the rotating shaft 2301 and the other end is connected to a peeling roller 2307. The peeling roller 23 is away from the third A first rotating disk 2302 is connected to the other end of a motor 22, and a first half gear groove 2303 is connected to the other end of the first rotating disk 2302 away from the peeling roller 23. A second rotating disk 2304 is connected to the outside of the circumference of the first rotating disk 2302. , the other end of the peeling roller 23 on the second rotating disk 2304 is connected to a second half gear groove 2305, an external gear 24 is connected to the outside of the circumference of the second half gear groove 2305, and one end of the external gear 24 is connected to an internal gear 2401, and the internal gear 2401 A peeling outer cylinder 25 is connected to the outside of the circumference. A semicircular gear groove 2501 is connected to the outer circumference of the peeling outer cylinder 25. A number of peeling spikes 2502 are provided on the inside of the peeling outer cylinder 25. The other end of the peeling outer cylinder 25 is away from the inner gear 2401. An outer cylinder gear 2503 is connected. A second movable belt 2504 is connected between the peeling outer cylinder 25 and the outer cylinder gear 2503. The other end of the second movable belt 2504 away from the outer cylinder gear 2503 is connected to a rectangular opening and closing plate 27. The rectangular opening and closing plate An opening and closing outer frame 2701 is installed and connected directly above 27. The first half gear groove 2303 of the peeling roller 23 is connected to the outer cylinder gear 2503 of the peeling outer cylinder 25 through the connecting gear 26.

The gear grooves outside the circumference of the first half gear groove 2303 and the second half gear groove 2305 are both set to one quarter.

First, the corn to be processed is put in from the feed port opened on the top of the peeling box 21, and the first motor 22 drives the rotating shaft 2301 and the peeling roller 23 to rotate, so that the peeling roller 23 rotates and simultaneously drives the first rotating disk 2302 and the second The rotating disks 2304 mesh with each other, thereby driving the two peeling rollers 23 to rotate in the same direction, and as the rotating shaft 2301 drives the peeling roller 23 to rotate, it also drives the first movable belt 2306 to rotate, so that the first movable belt 2306 rotates and drives the peeling at the same time. The roller 2307 rotates, and then the corn that is put in flows into the bottom peeling outer cylinder 25 along the openings on both sides of the rectangular opening and closing plate 27. The peeling roller 2307 cooperates with the peeling spikes 2502 in the peeling outer cylinder 25, and the inflowing corn is further peeled. , in addition, another peeling roller 23 is provided with a second half gear groove 2305 at one end, and the two peeling rollers 23 rotate in the same direction and simultaneously drive the second half gear groove 2305 to rotate, so that the second half gear groove 2305 rotates At the same time, it meshes with the external gear 24 and drives the internal gear 2401 to rotate together. The internal gear 2401 is used to rotate and mesh with the semicircular gear groove 2501 on the peeling outer cylinder 25, thereby driving the peeling outer cylinder 25 to rotate upward ninety degrees. The corn kernels flow into the peeling roller 23 along the peeling outer cylinder 25. The two peeling rollers 23 rotate in the same direction to peel the flowing corn kernels. The peeled corn will flow into the inclined filter plate 2101. Since there are several large holes on the inclined filter plate 2101, the corn kernels will flow into the feeding pipe 3 along the large holes, and at the same time, the corn cobs and peels will flow in from the first slag outlet 2102 along the inclined filter plate 2101. In the slag collection box 2103, and the peeling outer cylinder 25 rotates upward while also driving the outer cylinder gear 2503 to rotate, so that the outer cylinder gear 2503 rotates and drives the second movable belt 2504 to rotate, then the second movable belt 2504 is used to drive the rectangular The opening and closing plate 27 is reversed downward, and the two openings of the opening and closing outer frame 2701 are closed to prevent continuous unloading of materials from above when the peeling outer cylinder 25 is unloaded. When the peeling outer cylinder 25 needs to be rotated downward, due to the two peeling machines The grain rollers 23 are all provided with half gear grooves, and the half gear groove gear ring is set to a quarter, then the second peeling roller 23 is used to rotate and simultaneously drive the second half gear groove 2305 to rotate, so that the second half gear groove 2305 is rotated. The quarter gear ring on 2305 meshes with the external gear 24, thereby driving the peeling outer cylinder 25 to move upward, and as the peeling outer cylinder 25 rotates upward, the second half gear groove 2305 will engage with the external gear 24 gear ring. Spin away,

After detaching, the first peeling roller 23 rotates in the same direction to drive the quarter gear ring on the first half gear groove 2303 to rotate, so that the first half gear groove 2303 rotates and meshes with the connecting gear 26 at the same time. , and then drive the outer cylinder gear 2503 to rotate together, and use the outer cylinder gear 2503 to drive the peeling outer cylinder 25 to rotate downward, and when the outer cylinder gear 2503 rotates downward, it drives the second movable belt 2504 to rotate together with the rectangular opening and closing plate 27, and the outer cylinder gear 2503 rotates downward. The openings on both sides of the outer frame 2701 are opened, and the material is cut again. After the peeling outer cylinder 25 is rotated downward, the first half gear groove 2303 will rotate away from the gear ring of the connecting gear 26, and then through the first half gear groove 2303 and The second half gear grooves 2305 cooperate with each other to drive the peeling outer cylinder 25 to rotate up and down for unloading.

Example 2

As shown in Figures 9-14, on the basis of Embodiment 1, the bottom end of the processing box 1 is connected to a feeding pipe 3, the end of the feeding pipe 3 is connected to a sieving outer cylinder 41, and the inner upper part of the sieving outer cylinder 41 is connected to There is an inner sieving cylinder 4101, and a number of baffles 4102 are connected to the inner sieving cylinder 4101. The bottom of the inner sieving cylinder 4101 is connected to an inclined discharge plate 4103, and the outer circumference of the outer sieving cylinder 41 is close to the inclined discharge plate. There is a second slag outlet 4104 above the screen 4103. A second motor 42 is connected to the outside of the upper circumference of the sieving outer cylinder 41. The second motor 42 is connected to a third movable belt 43. The other end of the third movable belt 43 is connected to The sieving shaft 44 has vertical fan blades 4401 connected to both ends of the sieving shaft 44. The vertical fan blades 4401 are connected to a fan blade mesh cylinder 4402 outside the circumference, and connecting rods 45 are connected to the outer circumference of the upper part of the sieving shaft 44. There is a cavity 4501 on the inside of the rod 45, and a snap ring 4502 is connected to the bottom of the cavity 4501. A turning plate 46 is connected to the bottom of the connecting rod 45, and a chuck 4601 is connected to the top of the turning plate 46. The clamping ring of the connecting rod 45 is The ring 4502 and the chuck 4601 cooperate with each other. The bottom of the turning plate 46 is connected to a blanking plate 47, and a blanking outer ring 4701 is installed and connected directly below the blanking plate 47.

The connecting rod 45 is provided with a cavity 4501 and a snap ring 4502 inside, and the cross-sectional size of the cavity 4501 is larger than the cross-sectional size of the chuck 4601 of the turning plate 46, and the chuck 4601 of the turning plate 46 is embedded in the cavity 4501 of the connecting rod 45. Inside, the snap ring 4502 and the chuck 4601 cooperate with each other.

In addition, the corn kernels flowing into the feeding pipe 3 will flow into the sieving inner cylinder 4101 along the feeding pipe 3, and the second motor 42 drives the sieving shaft 44 to rotate, so that the sieving shaft 44 rotates and simultaneously drives the vertical When the fan blade 4401 and the connecting rod 45 rotate, the connecting rod 45 rotates and the turning plate 46 is driven to rotate at the same time, so that the turning plate 46 rotates and collides with the baffle 4102 on the sieving inner cylinder 4101. After the plate 46 rotates and collides with the baffle 4102, the collision force drives the turning plate 46 and the chuck 4601 to rotate in the internal cavity 4501 of the connecting rod 45, and the rotating turning plate 46 is used to stir the corn kernels flowing in. Then, the wind is generated by the vertical fan blades 4401, and the debris generated by the peeling is blown out from the screening inner cylinder 4101 and flows into the surface of the inclined discharge plate 4103, and the debris flows along the inclined discharge plate 4103 from the second slag outlet. 4104 flows out, and the turning plate 46 is connected to the unloading plate 47, the turning plate 46 is used to rotate at a constant speed and simultaneously drives the unloading plate 47 to rotate along the unloading outer ring 4701 to separate the corn in the upper part of the sieving inner cylinder 41. The material is discharged, and there are two screening cavities inside the screening inner cylinder 41. Vertical fan blades 4401 and turning plates 46 are provided in the screening cavities. The vertical fan blades 4401 and the turning plates 46 are used to interact with each other. Cooperate with it to blow out the mixed corn kernels and sieve them to improve the filtration effect.

Example 3

As shown in Figures 15-19, on the basis of Embodiment 2, the bottom of the sieving outer cylinder 41 is connected to a crushing cylinder 51, the crushing assembly 5 includes a crushing cylinder 51, and a rotating rotating cylinder is connected directly below the sieving shaft 44. Block 53, there are nesting rods 5302 at both ends of the top of the rotating block 53, the screening shaft 44 is connected to the nesting rod 5302 of the rotating block 53, and a second embedded rod 5301 is connected to the outside of the circumference of the rotating block 53, so The other end of the second embedded rod 5301 away from the rotating block 53 is connected to a second movable ring 52. A second chute 5201 is provided inside the second movable ring 52. The second embedded rod 5301 of the rotating block 53 is connected to the second movable ring. The second chute 5201 of 52 cooperates with each other. The bottom of the rotating block 53 is connected to a crushing shaft 5303. The upper part of the crushing shaft 5303 is connected to a cutting blade 5304. The crushing shaft 5303 is connected to a pusher near the bottom of the cutting blade 5304. Plate 5305, a crushing roller 5306 is connected to the lower part of the crushing shaft 5303, a pressing plate 5308 is connected to the bottom end of the crushing shaft 5303, and a crushing roller 5306 and the pressing plate 5308 are connected to the crushing shaft 5303. The outer ring filter 5307 has a cutting barrel 54 connected to the inner side of the outer ring filter 5307. A cutting groove 5401 is provided at the top of the cutting barrel 54. A number of corn outlets 5404 are provided at the lower part of the cutting groove 5401 of the cutting barrel 54. The cutting barrel 54 A crushing groove 5403 is provided on the inside, and a feeding groove 5402 is provided between the cutting groove 5401 on the cutting cylinder 54 and the corn outlet 5404.

Fixed rods are provided on the outside of the lower circumference of the screening shaft 44, and two nesting rods 5302 are provided on the top of the rotating block 53, and the middle part of the nesting rods 5302 is set as an "O" shaped cavity 4501, and the fixed rods are embedded in the nesting rods 5302. The "O"-shaped cavity 4501 in the sleeve rod 5302, and at the same time, the cross-sectional size of the "O"-shaped cavity 4501 is larger than the cross-sectional size of the fixed rod.

In addition, the corn flowing out from the sieving inner cylinder 4101 will flow into the bottom cutting groove 5401, and the sieving shaft 44 will rotate while driving the nesting rod 5302 on the rotating block 53 to rotate. The nesting rod 5302 will drive the rotating block 53 and the rotating block 53 to rotate. The second insert rod 5301 rotates along the second chute 5201 in the second movable ring 52, and then the rotating block 53 is used to rotate while driving the grinding shaft 5303 and the cutting blade 5304 to rotate together, and the cutting blade 5304 and the cutting barrel 54 are rotated together. The cutting grooves 5401 inside cooperate with each other to cut the flowing corn, and the bottom of the cutting blade 5304 is provided with a pushing plate 5305, and then the pushing plate 5305 is used to push the cut corn kernels from the corn outlet 5404 opened on the cutting groove 5401 When the cover plate 48 of the outer ring filter 5307 is pushed out, the outer ring filter 5307 is used to filter the residue produced by cutting the corn. If the small corn kernels are chopped, they will remain in the outer ring filter 5307 cover plate 48, and due to the second chute 5201 is set to a wave shape, so that the rotating block 53 drives the second embedded rod 5301 to rotate along the second chute 5201, and then drives the rotating block 53 and the nested rod 5302 to move up and down together with the crushing shaft 5303, then the crushing shaft 5303 is used The outer ring filter 5307 is driven to move upward and at the same time the chopped small corn kernels are pushed into the feed chute 5402 of the cutting barrel 54. The chopped small corn kernels flow into the crushing chute 5403 along the feed chute 5402 and pass through the crushing roller. 5306 and the crushing tank 5403 cooperate with each other to further process the corn. The processed corn will flow out along the outlet at the bottom of the crushing cylinder 51, and there is also a pressing plate 5308 at the bottom of the crushing shaft 5303. The crushing shaft 5303 moves up and down and simultaneously drives the pressing plate 5308 to move downward and squeeze the second spring component 55 at the bottom. The elasticity of the second spring component 55 is used to drive the rotating block 53 and the crushing shaft 5303 upward to improve the movement effect.

Although the present invention has been described in detail with reference to the above embodiments, it will be apparent to those skilled in the art from this disclosure that the present invention can be modified without departing from the principle and spirit of the invention as defined by the claims. various changes or modifications. Therefore, the detailed description of the embodiments of the present disclosure is only used to explain, not to limit the present invention, but the scope of protection is defined by the content of the claims.

Claims (6)

1. A corn peeling device for livestock feed production, which is characterized in that it includes a processing box (1) and a peeling box (21), and the upper side of the processing box (1) is connected to a peeling box (21); An inclined filter plate (2101) is connected to the inner lower part of the peeling box (21), and a first slag outlet (2102) is provided on the upper side of the peeling box (21) close to the inclined filter plate (2101). A collection box is connected to the lower part of the box (21) near the first slag outlet (2102). A peeling roller (23) is connected to the inside of the peeling box (21) above the inclined filter plate (2101). The peeling roller (23) 23) One end is connected to a rotating shaft (2301), and the other end of the rotating shaft (2301) away from the peeling roller (23) is connected to a first motor (22). The rotating shaft (2301) is connected to a first movable belt (2306). A peeling roller (2307) is connected to the other end of a movable belt (2306) away from the rotating shaft (2301), and a first rotating disk (2302) is connected to the other end of the peeling roller (23) away from the first motor (22). A first half gear groove (2303) is connected to the other end of the rotating disk (2302) away from the peeling roller (23). A second rotating disk (2304) is connected to the outside of the circumference of the first rotating disk (2302). The second rotating disk The other end of the peeling roller (23) on the (2304) is connected to a second half gear groove (2305). The outer circumference of the second half gear groove (2305) is connected to an external gear (24). One end of the external gear (24) is connected to Internal gear (2401), a peeling outer cylinder (25) is connected to the outside of the circumference of the internal gear (2401), a semicircular gear groove (2501) is connected to the outer circumference of the peeling outer cylinder (25), and a peeling outer cylinder (25) is provided on the inside. There are a number of peeling spikes (2502). The other end of the peeling outer cylinder (25) away from the internal gear (2401) is connected to an outer cylinder gear (2503). The peeling outer cylinder (25) and the outer cylinder gear (2503) There is a second movable belt (2504) connected between them. The other end of the second movable belt (2504) away from the outer cylinder gear (2503) is connected with a rectangular opening and closing plate (27). A opening and closing outer plate (27) is installed and connected directly above the rectangular opening and closing plate (27). Frame (2701), the first half gear groove (2303) of the peeling roller (23) is connected to the outer cylinder gear (2503) of the peeling outer cylinder (25) through the connecting gear (26). 2. A corn peeling device for livestock feed production according to claim 1, characterized in that the gear grooves on the outer circumference of the first half gear groove (2303) and the second half gear groove (2305) are both set to four quarters. one. 3. A corn peeling device for livestock feed production as claimed in claim 1, characterized in that the bottom end of the processing box (1) is connected to a feeding pipe (3), and the end of the feeding pipe (3) is connected to a screening device. The outer cylinder (41), the inner upper part of the sieving outer cylinder (41) is connected with the sieving inner cylinder (4101), and the sieving inner cylinder (4101) is connected with a number of baffles (4102). The sieving inner cylinder (4101) ) is connected to an inclined discharge plate (4103) at the bottom, and a second slag outlet (4104) is provided on the outside of the circumference of the sieving outer cylinder (41) near the inclined discharge plate (4103), and the sieving outer cylinder (4104) 41) A second motor (42) is connected to the outside of the upper circumference. A third movable belt (43) is connected to the second motor (42). The other end of the third movable belt (43) is connected to a screening shaft (44). Both ends of the screen shaft (44) are connected with vertical fan blades (4401), the outer circumference of the vertical fan blades (4401) is connected with a fan blade mesh cylinder (4402), and the upper circumference of the screen shaft (44) is connected with connections Rod (45), a cavity (4501) is provided inside the connecting rod (45), a snap ring (4502) is connected to the bottom of the cavity (4501), and a turning plate (46) is connected to the bottom of the connecting rod (45). A chuck (4601) is connected to the top of the turning plate (46). The snap ring (4502) of the connecting rod (45) cooperates with the chuck (4601). A cutting head is connected to the bottom of the turning plate (46). plate (47), and a blanking outer ring (4701) is installed and connected directly below the blanking plate (47). 4. A corn peeling device for livestock feed production as claimed in claim 3, characterized in that a cavity (4501) and a snap ring (4502) are provided inside the connecting rod (45), and the cavity (4501) cross-section The size is larger than the cross-sectional size of the chuck (4601) of the turning plate (46), and the chuck (4601) of the turning plate (46) is embedded in the cavity (4501) of the connecting rod (45), and passes through the snap ring (4502 ) cooperates with the chuck (4601). 5. A corn peeling device for livestock feed production as claimed in claim 3, characterized in that a grinding drum (51) is connected to the bottom of the sieving outer cylinder (41), and a grinding cylinder (51) is connected to the bottom of the sieving shaft (44). The rotating block (53) is equipped with nesting rods (5302) at both ends of the top of the rotating block (53). The screening shaft (44) is connected to the nesting rod (5302) of the rotating block (53). A second embedded rod (5301) is connected to the outside of the circumference of the block (53), and a second movable ring (52) is connected to the other end of the second embedded rod (5301) away from the rotating block (53). The second movable ring (52) A second chute (5201) is provided on the inside. The second insert rod (5301) of the rotating block (53) cooperates with the second chute (5201) of the second movable ring (52). The rotating block (5201) 53) A crushing shaft (5303) is connected to the bottom, a cutting blade (5304) is connected to the upper part of the crushing shaft (5303), and a push plate (5305) is connected to the crushing shaft (5303) near the cutting blade (5304) and below. ), a crushing roller (5306) is connected to the lower part of the crushing shaft (5303), a pressing plate (5308) is connected to the bottom end of the crushing shaft (5303), and a crushing roller is attached to the crushing shaft (5303). An outer ring filter (5307) is connected between (5306) and the pressing plate (5308). A cutting barrel (54) is connected inside the outer ring filter (5307). A cutting groove (5401) is provided on the top of the cutting barrel (54). , several corn outlets (5404) are provided at the lower part of the cutting groove (5401) of the cutting barrel (54), and a breaking groove (5403) is provided on the inside of the cutting barrel (54). A feeding chute (5402) is provided between the cutting chute (5401) and the corn outlet (5404). 6. A corn peeling device for livestock feed production according to claim 5, characterized in that fixed rods are provided on the outside of the lower circumference of the screening shaft (44), and two inlays are provided on the top of the rotating block (53). Set the rod (5302), and the middle part of the nesting rod (5302) is set as an "O"-shaped cavity (4501), and the fixed rod is embedded in the "O"-shaped cavity (4501) in the nesting rod (5302) , and at the same time, the cross-sectional size of the "O"-shaped cavity (4501) is larger than the cross-sectional size of the fixed rod.