A transmission and mixing device for a feed additive for preventing and curing diarrhea of piglets

Abstract

The present application relates to the technical fields of transmission and mixing device for piglet feed additive, in particular to a transmission and mixing device for piglet feed additive to prevent and treat diarrhea, which comprises two scattering assemblies, two conveying assemblies and a stirring assembly, the two scattering assemblies are respectively installed above one end of the two conveying assemblies, and the stirring assembly is installed at the bottom of the end of the two conveying assemblies far from the scattering assemblies. The present application has the beneficial effects that: the moving frame does not block the piglet feed additive discharging when driving the through-hole column to dredge the openings at the bottom of the scattering box during the moving process, the bottom of the moving frame is inclined, the piglet feed additive falling into the moving frame can smoothly slide from the inside of the moving frame to the bottom basket when dredging the openings at the bottom of the scattering box, thereby avoiding the situation that the electric cylinder cannot normally operate due to the accumulation of piglet feed additive in the moving frame, reducing the failure probability of the transmission and mixing device during operation, and greatly improving the reliability of the transmission and mixing device operation.

Description

Technical Field

[0001] This invention relates to a feed additive transfer and mixing device, specifically a feed additive transfer and mixing device for preventing and treating diarrhea in piglets, belonging to the field of application technology of feed additive transfer and mixing devices for piglets. Background Technology

[0002] Piglets have a high chance of developing diarrhea after weaning, exhibiting symptoms such as yellow or white scours. Piglet diarrhea is a multifactorial and complex disease that affects piglet growth, increases mortality, slows survival, slows growth, stunts development, and even leads to death, causing significant economic losses to the pig farming industry. Therefore, to improve piglet health and survival rates, it is necessary to add anti-diarrheal additives to piglet feed. However, manually mixing these additives with the feed is labor-intensive and difficult to achieve even mixing, resulting in poor anti-diarrheal effects. Therefore, a feed additive transfer and mixing device is needed to quickly and evenly mix the feed and additives, thereby improving mixing and transfer efficiency.

[0003] CN208660967U discloses a pig feed mixer, including a discharge conveyor belt for conveying the mixed feed, a feed conveyor belt for conveying raw materials, a horizontally arranged cylinder, and a drive mechanism. The cylinder is cylindrical in the middle and narrows at both ends, with one end closed and the other open. Several blades are alternately arranged on the inner wall of the cylinder to stir the pig feed during rotation. The feed conveyor belt extends from the open end into the cylinder, and the discharge conveyor belt is located below the open end to receive the mixed raw materials exiting from the open end. The drive mechanism is connected to the cylinder to drive it to rotate in both directions. This design enables assembly line production, has a simple structure, and eliminates the need for additional openings, feed inlets, and discharge outlets on the cylinder. The spiral blades on the inner wall of the cylinder are durable and provide thorough mixing of raw materials. The equipment has low manufacturing costs and high efficiency. This utility model is applicable to the field of livestock farming equipment. The aforementioned patent suffers from the drawback of requiring manual addition of raw materials multiple times in proportions, resulting in poor mixing continuity and being time-consuming and labor-intensive.

[0004] However, current feed additive transfer and mixing devices have significant drawbacks. They fail to break up feed additives before mixing, resulting in poor mixing. Furthermore, during mixing, additives require manual addition multiple times in precise proportions, leading to inconsistent mixing and wasting time and effort. Additionally, feed additives are prone to falling during transport, resulting in significant losses and high costs. Summary of the Invention

[0005] To address the problems in the prior art, the present invention provides a transfer and mixing device for feed additives used to prevent and treat diarrhea in piglets.

[0006] A conveying and mixing device for a feed additive used to prevent and treat diarrhea in piglets includes two dispersing components, two conveying components, and a stirring component. The two dispersing components are respectively installed above one end of the two conveying components, and the stirring component is installed at the bottom of the two conveying components away from the dispersing components. The dispersing component includes a dispersing box, two rotating rods, and a rotating plate. The two rotating rods and the rotating plate are all installed inside the dispersing box. The two rotating rods are all installed above the rotating plate. Several dispersing plates are installed on the outer surface of the rotating rods. Both ends of the rotating plate are connected to the dispersing box through rotating shafts. Brushes are installed at the bottom of the rotating plate. A second motor is installed in the middle of the bottom of the dispersing box. The second motor is connected to one end of the rotating plate through a rotating shaft.

[0007] The mixing assembly includes a mixing tank, two rotating rods, and several mixing columns. The two rotating rods are installed inside the mixing tank, and the several mixing columns are installed on the outer surface of the two rotating rods with equal curvature. A mixing plate is wound and installed on the outer surface of the two rotating rods.

[0008] Preferably, a fixed frame is installed on the top of one end of the dispersing box. The fixed frame has a U-shaped cross-section. Two transmission gears are installed inside the fixed frame. The two transmission gears are fixedly connected to two rotating rods by pins. A motor is installed on the fixed frame. The motor is connected to one of the transmission gears by a rotating shaft. The two transmission gears mesh.

[0009] Preferably, a number of openings are provided at equal intervals at the bottom of the dispersing box, and a traveling frame is installed below the dispersing box. The traveling frame has a "U" shaped cross-section, and a movable frame is installed inside the traveling frame. The bottom of the movable frame is inclined.

[0010] Preferably, several electric cylinders are installed at equal intervals inside the moving frame. A push-pull rod passes through one end of each electric cylinder, and a motor is installed on the top of the push-pull rod. The motor is mounted with a through-hole column through a rotating shaft.

[0011] Preferably, a motor three is installed at one end of the walking frame, and the motor three is connected to a lead screw through a rotating shaft. A fixing rod is installed on one side of the lead screw. The inner sidewalls on both sides of the walking frame are provided with slots. The lead screw and the fixing rod are respectively installed in the slots on both sides of the walking frame. Moving blocks are installed on both sides of the moving frame. A screw hole is provided in the middle of one of the moving blocks. The screw hole is threaded with the lead screw. The fixing rod passes through the moving block away from the lead screw.

[0012] Preferably, the conveying assembly includes a mounting frame 1, a base basket, and a conveyor belt. The base basket is installed at the bottom of the mounting frame 1, and the traveling frame is welded above the base basket. The conveyor belt is located inside the mounting frame 1. Rollers are installed at both ends of the mounting frame 1, and the two ends of the two rollers are respectively connected to the mounting frame 1 through a rotating shaft. The two ends of the conveyor belt are respectively fitted onto the outer surface of the two rollers. A motor 5 is installed above the mounting frame 1, and a drive wheel 1 is connected to the motor 5 through a rotating shaft. A drive wheel 1 is installed at the end of the roller closest to the motor 5, and a belt 1 is fitted onto the outer surface of the two drive wheels 1.

[0013] Preferably, several mounting frames 2 are installed at equal intervals above mounting frame 1. The cross-section of mounting frame 2 is U-shaped. A connecting frame is installed in the middle of mounting frame 2. Two rotating rollers are installed inside mounting frame 2. The rotating rollers are set at an inclination.

[0014] Preferably, three discharge boxes are installed below the mixing box, and a connecting plate is installed between the mixing box and the three discharge boxes. Three transfer boxes are installed at the bottom of the mixing box, and the transfer boxes are connected to the three mixing boxes. The three transfer boxes are all connected to the connecting plate and are connected to the three discharge boxes respectively. The cross-section of the discharge box is an inverted "Y" shape. A fixing plate is installed on one side of the transfer box, and an electric cylinder is installed on one side of the transfer box. The electric cylinder is mounted on the fixing plate. A push-pull rod is passed through one end of the electric cylinder, and a control plate is welded to one end of the push-pull rod. The control plate passes through the transfer box.

[0015] Preferably, an installation frame is installed at one end of the mixing tank. The installation frame has a U-shaped cross-section. Two drive wheels are installed inside the installation frame. The two drive wheels are fixedly connected to two rotating rods. A belt is fitted on the two drive wheels. A motor is installed on the installation frame. The motor is connected to one of the drive wheels via a rotating shaft.

[0016] Preferably, the method of using the transfer mixing device specifically includes the following steps:

[0017] Step 1: Pour the feed additive into the dispersing box. Motor 1 drives the shaft to rotate the transmission gear. The two transmission gears mesh, which in turn drives the two rotating rods to rotate. The rotating rods drive the dispersing plates to rotate. In conjunction with Motor 2, the shaft drives the rotating plate to rotate. During the rotation, the several dispersing plates and rotating plates can fully contact the feed additive that has entered the dispersing box, quickly dispersing the feed additive in the dispersing box.

[0018] Step 2: The dispersed feed additives flow into the bottom basket through the opening at the bottom of the dispersing box. Motor 5 drives the rotating shaft to rotate the transmission wheel 1, which in turn drives the other transmission wheel 1 to rotate via belt 1. This causes the rollers to rotate. The rotating roller 3, together with another roller 3, drives the conveyor belt to rotate. The rotating conveyor belt transports the feed additives from the bottom basket to the mixing box. During the transport of the feed additives, the two rotating rollers can squeeze the sides of the conveyor belt, causing the conveyor belt to be concave towards the center, thereby concentrating the feed additives in the middle of the conveyor belt for transport, effectively preventing the feed additives from falling off during the transport process.

[0019] Step 3: The motor drives the shaft to rotate the transmission wheel 2. The rotating transmission wheel 2 drives another transmission wheel 2 to rotate via the belt 2, which in turn drives the two rotating rods 2 to rotate. The rotation of the two rotating rods 2 drives several stirring columns and mixing plates to rotate. Combined with the electric cylinder 2 controlling the extension and retraction of the push-pull rod 2, the control plate is pulled out of the transfer box. When the control plate is pushed into the transfer box, the bottom of the transfer box is kept sealed, so that the feed additives will not fall out before they are evenly mixed. This allows the stirring columns and mixing plates to have more time to fully contact the feed additives, thus mixing them more evenly. After the feed additives are evenly mixed, the control plate is pulled out of the transfer box, leaving the bottom of the transfer box open. The mixed feed falls into the discharge box through the transfer box and then flows out from the bottom of the discharge box, completing the transfer and mixing operation of the feed additives.

[0020] The beneficial effects of this invention are:

[0021] (1) In this invention, the motor drives the rotating shaft to rotate the transmission gear, and the two transmission gears drive the two rotating rods to rotate. The rotating rods drive the dispersing plate to rotate, and the motor drives the rotating shaft to rotate the rotating plate. During the rotation, the dispersing plate and the rotating plate can fully contact the feed additives that have entered the dispersing box. The dispersing plate is located above the dispersing box, and the rotating plate is located below the dispersing plate. This allows them to fully contact the feed additives inside the dispersing box, thereby dispersing the feed additives in the dispersing box more quickly. This prevents the feed additives from clumping and piling up during mixing, and allows the feed additives to be mixed more quickly and evenly, greatly improving the working efficiency of the transmission mixing device. At the same time, when the rotating plate rotates, the brush bristles follow the rotating plate and come into contact with the inner side wall of the dispersing box, thereby cleaning the feed additives attached to the inner side wall of the dispersing box. This not only reduces the amount of feed additives attached to the inside of the dispersing box, making the dispersing box cleaner, but also allows as much of the feed additives inside the dispersing box as possible to fall into the bottom basket, thereby greatly reducing the loss of feed additives during mixing and saving costs.

[0022] (2) In this invention, the electric cylinder drives the push-pull rod to extend and retract. The push-pull rod drives the through-hole column to extend and retract through the motor. The extended and retracted through-hole column penetrates into the opening at the bottom of the dispersing box, clearing the opening at the bottom of the dispersing box, thereby preventing blockage at the bottom of the dispersing box and greatly accelerating the feeding speed of the dispersing box. In addition, the motor drives the shaft to rotate the through-hole column. When the through-hole column penetrates into the opening at the bottom of the dispersing box, the through-hole column rotates in the opening, thereby cleaning the feed additives attached to the opening of the dispersing box, further reducing the probability of blockage at the bottom of the dispersing box.

[0023] (3) In this invention, the motor three drives the screw to rotate, and the rotating screw drives the moving frame to move back and forth at the bottom of the mixing box. During the movement, the moving frame can drive the through-hole column to move at the bottom of the mixing box through the electric cylinder one and the motor four. This not only allows for comprehensive cleaning and unblocking of different openings at the bottom of the mixing box, but also ensures that all openings at the bottom of the mixing box are unobstructed when the moving frame drives the through-hole column to unblock the openings at the bottom of the mixing box. At the same time, the bottom of the moving frame is inclined, so when unblocking the openings at the bottom of the mixing box, the feed additives falling into the moving frame can slide smoothly from the inside of the moving frame into the bottom basket. This avoids the situation where feed additives accumulate inside the moving frame, causing the electric cylinder one to malfunction. This reduces the probability of failure when the transmission and mixing device is running and greatly improves the reliability of the transmission and mixing device.

[0024] (4) In this invention, the motor six drives the shaft to rotate the transmission wheel two. The rotating transmission wheel two drives another transmission wheel two to rotate through the belt two, which in turn drives the two rotating rods two to rotate. The rotation of the two rotating rods two drives several stirring columns and mixing plates to rotate. On the one hand, the stirring columns and mixing plates rotate in coordination, and the electric cylinder two controls the extension and retraction of the push-pull rod two, which in turn drives the control plate to be pulled out inside the transfer box. When the control plate is pushed into the transfer box, the bottom of the transfer box is kept sealed, so that the feed additive will not fall out before it is evenly mixed. The stirring columns and mixing plates can have time to work with the feed additive. This allows for more thorough contact, resulting in a more uniform mixing of the feed additives. Furthermore, when the control panel is pulled out of the transfer box, the bottom of the transfer box remains open, allowing the feed additives to fall smoothly from the transfer box into the discharge box. This enables the transfer mixing device to control the flow of feed additives within the transfer box at any time. Consequently, the device can not only control the mixing time of the feed additives but also automatically control the amount of uniformly mixed feed additives dispensed from the mixing box. This makes the transfer mixing device more flexible in use and more convenient for dispensing uniformly mixed feed additives.

[0025] (5) The two dispersing components in this invention can disperse two different feed additives respectively. Before the feed additives are mixed, the dispersing time and force can be controlled according to the characteristics of different feed additives, thereby effectively avoiding the situation that the feed additives are not completely dispersed before mixing. In addition, the two conveying components are used to transport different types of feed additives respectively, and the amount of each feed additive delivered to the mixing component can be controlled. Thus, according to the different proportions required by different feed additives, the single feed additives can be transported separately, so that the proportion of feed additives is controlled more accurately during mixing, and the effect of preventing and treating diarrhea in piglets is better after mixing. At the same time, when the conveyor belt rotates, the two rollers can squeeze the two sides of the conveyor belt, causing the conveyor belt to be concave towards the middle, thereby concentrating the feed additives in the middle of the conveyor belt for transmission, effectively preventing the feed additives from falling during transmission and reducing the loss of feed additives during transmission. Attached Figure Description

[0026] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0027] Figure 1 This is a schematic diagram of the overall structure of the present invention.

[0028] Figure 2 This is a schematic diagram showing the connection between the dispersing component and the conveying component in this invention.

[0029] Figure 3 This is a schematic diagram showing the connection between the mounting frame 2, the connecting frame, and the rotating roller in this invention.

[0030] Figure 4 This is a schematic diagram of the disintegration component structure in this invention.

[0031] Figure 5 This is a top view of the disassembly box in this invention.

[0032] Figure 6 This is a front view of the rotating plate in this invention.

[0033] Figure 7 This is a schematic diagram showing the connection between the walking frame and the moving frame in this invention.

[0034] Figure 8 This is a schematic diagram showing the connection between the movable frame and the electric cylinder in this invention.

[0035] Figure 9 This is a schematic diagram showing the connection between the electric cylinder 1, push-pull rod 1, motor 4, and through-hole post in this invention.

[0036] Figure 10 This is a schematic diagram of the stirring assembly structure in the present invention.

[0037] Figure 11 This is a partial top view of the mixing tank in this invention.

[0038] Figure 12 For the present invention Figure 10 Enlarged view of details in area A.

[0039] In the diagram: 1. Dispersing assembly; 101. Dispersing box; 102. Fixed frame; 103. Walking frame; 104. Rotating rod one; 105. Dispersing plate; 107. Transmission gear; 108. Motor one; 109. Rotating plate; 110. Brush; 111. Motor two; 112. Moving frame; 113. Motor three; 114. Lead screw; 115. Moving block; 116. Electric cylinder one; 117. Push-pull rod one; 118. Motor four; 119. Through-hole column; 120. Fixed rod; 2. Conveying assembly; 201. Mounting frame one; 202. Base basket; 203. 204. Roller; 205. Conveyor belt; 206. Motor 5; 207. Drive wheel 1; 208. Belt 1; 209. Mounting frame 2; 200. Connecting frame; 210. Rotating roller; 3. Mixing assembly; 301. Mixing box; 302. Discharge box; 303. Connecting plate; 304. Fixing plate; 305. Electric cylinder 2; 306. Push-pull rod 2; 307. Control panel; 308. Rotating rod 2; 309. Mixing column; 310. Mixing plate; 311. Mounting frame; 312. Drive wheel 2; 313. Belt 2; 314. Motor 6; 315. Transfer box. Detailed Implementation

[0040] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.

[0041] like Figures 1-12As shown, a conveying and mixing device for a feed additive used to prevent and treat diarrhea in piglets includes two dispersing components 1, two conveying components 2, and a mixing component 3. The two dispersing components 1 are respectively installed above one end of each of the two conveying components 2. The mixing component 3 is installed at the bottom of the two conveying components 2 away from the dispersing components 1. Each dispersing component 1 includes a dispersing box 101, two rotating rods 104, and a rotating plate 109. The two rotating rods 104 and the rotating plate 109 are all installed inside the dispersing box 101. The two rotating rods 104 are all installed above the rotating plate 109. Several dispersing plates 105 are installed on the outer surface of the rotating rods 104. Both ends of the rotating plate 109 are connected to the dispersing box 101 via rotating shafts. Brushes 110 are installed at the bottom of the rotating plate 109. At the bottom of the dispersing box 101... A second motor 111 is installed in the middle. The second motor 111 is connected to one end of the rotating plate 109 through a rotating shaft. The second motor 111 drives the rotating shaft to rotate the rotating plate 109. The rotating plate 109 stirs the feed additives in the mixing box 101. In conjunction with the rotating rod 104, it drives the dispersing plate 105 to rotate. When the feed additives enter the mixing box 101, the feed additives are dispersed, thereby avoiding clumping and agglomeration. This makes the feed additives more uniform during mixing. At the same time, the brush 110 can clean the feed additives adhering to the inner side wall of the mixing box 101 during rotation. This not only keeps the inside of the mixing box 101 clean, but also makes the feed additives in the mixing box 101 faster and more thorough when being fed, reducing the loss of feed additives during mixing.

[0042] The mixing assembly 3 includes a mixing tank 301, two rotating rods 308, and several mixing columns 309. The two rotating rods 308 are installed inside the mixing tank 301, and the several mixing columns 309 are installed on the outer surface of the two rotating rods 308 with equal arcs. A mixing plate 310 is wound around the outer surface of the two rotating rods 308. The rotation of the two rotating rods 308 drives the several mixing columns 309 and the mixing plate 310 to rotate. Through the coordinated rotation of the mixing columns 309 and the mixing plate 310, the feed additives can be in more thorough contact, thereby quickly mixing the feed additives. This makes the mixing speed of the feed additives of the conveying mixing device faster and the efficiency of the conveying mixing device higher.

[0043] In one optional embodiment of the present invention, a fixed frame 102 is installed on the top of one end of the dispersing box 101. The fixed frame 102 has a U-shaped cross-section. Two transmission gears 107 are installed inside the fixed frame 102. The two transmission gears 107 are connected to the fixed frame 102 through rotating shafts. The two transmission gears 107 are fixedly connected to two rotating rods 104 through pins. Two bearings are installed at one end of the dispersing box 101. The pins between the transmission gears 107 and the rotating rods 104 are rotatably engaged in the middle of the bearings. A motor 108 is installed on the fixed frame 102. The motor 108 is connected to one of the transmission gears 107 through a rotating shaft. The two transmission gears 107 mesh. The motor 108 drives the rotating shaft to rotate the transmission gears 107. The meshing of the two transmission gears 107 drives the two rotating rods 104 to rotate, thereby providing power support for the two rotating rods 104.

[0044] In one optional embodiment of the present invention, a plurality of openings are provided at equal intervals at the bottom of the dispersing box 101, and a walking frame 103 is installed below the dispersing box 101. The dispersing box 101 and the walking frame 103 are welded together. The cross-section of the walking frame 103 is U-shaped. A movable frame 112 is installed inside the walking frame 103. The bottom of the movable frame 112 is inclined. When the through-hole post 119 clears the openings at the bottom of the dispersing box 101, the feed additives falling into the movable frame 112 can slide out from inside the movable frame 112, thereby avoiding the situation where feed additives accumulate inside the movable frame 112, causing the electric cylinder 116 to malfunction.

[0045] In one optional embodiment of the present invention, a plurality of electric cylinders 116 are installed at equal intervals inside the movable frame 112. A push-pull rod 117 passes through one end of each electric cylinder 116. A motor 118 is installed on the top of the push-pull rod 117. A through-hole post 119 is installed on the motor 118 via a rotating shaft. The outer surface of the through-hole post 119 is covered with a rubber layer. When the through-hole post 119 clears the opening at the bottom of the dispersing box 101, the rubber layer can buffer the through-hole post 119 and the dispersing box 101, preventing the through-hole post 119 from directly impacting the opening at the bottom of the dispersing box 101 and causing deformation of the dispersing box 101. The distance between the plurality of through-hole posts 119 is equal to the distance between the plurality of openings at the bottom of the dispersing box 101. The through-hole column 119 is matched with the opening at the bottom of the dispersing box 101. The electric cylinder 116 drives the push-pull rod 117 to extend and retract. The push-pull rod 117 drives the through-hole column 119 to extend and retract through the motor 4 118. The extended and retracted through-hole column 119 penetrates into the opening at the bottom of the dispersing box 101, clearing the opening at the bottom of the dispersing box 101. This prevents blockage at the bottom of the dispersing box 101, making the feeding speed of the dispersing box 101 faster. In addition, the motor 4 118 drives the rotating shaft to rotate the through-hole column 119. When the through-hole column 119 penetrates into the opening at the bottom of the dispersing box 101, the through-hole column 119 rotates to clean the opening of the dispersing box 101, thereby preventing feed additives from adhering to the opening of the dispersing box 101 and ensuring the cleanliness of the inside of the opening of the dispersing box 101.

[0046] In one optional embodiment of the present invention, a motor 113 is installed at one end of the traveling frame 103. The motor 113 is connected to a lead screw 114 via a rotating shaft. A fixing rod 120 is installed on one side of the lead screw 114. Grooves are provided on the inner sidewalls of both sides of the traveling frame 103. The lead screw 114 and the fixing rod 120 are respectively installed in the grooves on both sides of the traveling frame 103. Moving blocks 115 are installed on both sides of the moving frame 112. A screw hole is provided in the middle of one of the moving blocks 115, and the screw hole is connected to the lead screw 114. 4. Threaded engagement: The fixed rod 120 passes through the moving block 115 away from the lead screw 114. The motor 3 113 drives the rotating shaft to rotate the lead screw 114. The rotating lead screw 114 engages with the threaded hole and slides along the fixed rod 120 with another moving block 115. This causes the moving frame 112 to move back and forth at the bottom of the dispersing box 101, thereby clearing the openings at the bottom of the dispersing box 101. This ensures that the moving frame 112 does not obstruct the feeding of feed additives while maintaining the unobstructed flow of the openings at the bottom of the dispersing box 101.

[0047] In one optional embodiment of the present invention, the conveying assembly 2 includes a mounting frame 201, a base basket 202, and a conveyor belt 204. The base basket 202 is mounted on the bottom of the mounting frame 201, and a traveling frame 103 is welded above the base basket 202. The conveyor belt 204 is located inside the mounting frame 201. Rollers 203 are mounted at both ends of the mounting frame 201, and the two ends of the two rollers 203 are respectively connected to the mounting frame 201 via rotating shafts. The two ends of the conveyor belt 204 are respectively sleeved on the outer surfaces of the two rollers 203, above the mounting frame 201. A motor 205 is installed, and a drive wheel 206 is connected to the motor 205 via a rotating shaft. The drive wheel 206 is installed at one end of the roller 203 near the motor 205. A belt 207 is fitted on the outer surface of the two drive wheels 206. The motor 205 drives the rotating shaft to rotate the drive wheel 206, which in turn drives the other drive wheel 206 to rotate via the belt 207, thereby rotating the roller 203. The rotating roller 203, in conjunction with the other roller 203, drives the transmission belt 204 to rotate, providing power support for the transmission belt 204.

[0048] In one optional embodiment of the present invention, a plurality of mounting frames 208 are installed at equal intervals above mounting frame 201. The cross-section of mounting frame 208 is U-shaped. A connecting frame 209 is installed in the middle of mounting frame 208. Two rotating rollers 210 are installed inside mounting frame 208. The rotating rollers 210 are inclined. The rotating rollers 210 are connected to one end of mounting frame 208 through one side of the rotating shaft connecting frame 209. When the conveyor belt 204 rotates, the two rotating rollers 210 can squeeze the two sides of the conveyor belt 204, causing the conveyor belt 204 to be concave towards the middle, thereby concentrating the feed additive in the middle of the conveyor belt 204 for conveying, effectively preventing the feed additive from falling off during the conveying process.

[0049] In one optional embodiment of the present invention, three discharge boxes 302 are installed below the mixing tank 301, and a connecting plate 303 is installed between the mixing tank 301 and the three discharge boxes 302. Three transfer boxes 315 are installed at the bottom of the mixing tank 301, and the transfer boxes 315 are connected to the three mixing tanks 301. Each of the three transfer boxes 315 passes through the connecting plate 303 and is connected to one of the three discharge boxes 302. The discharge boxes 302 have an inverted "Y" shaped cross-section. The mixed feed falls into the discharge boxes 302 through the transfer boxes 315 and then flows out from the bottom of the discharge boxes 302, completing the transfer and mixing of feed additives, thus making discharge faster and more convenient. A fixing plate 304 is installed on one side of the transfer box 315, and an electric cylinder 305 is installed on one side of the transfer box 315, mounted on the fixing plate 304. One end of the electric cylinder 305 has a push-pull rod 306 extending through it. A control plate 307 is welded to one end of the push-pull rod 306. The control plate 307 extends through the transfer box 315. The electric cylinder 305 controls the extension and retraction of the push-pull rod 306, which in turn drives the control plate 307 to be pulled out of the transfer box 315. When the control plate 307 is pushed into the transfer box 315, the bottom of the transfer box 315 is sealed, thus preventing the feed additive from falling. When the control plate 307 is pulled out of the transfer box 315, the bottom of the transfer box 315 remains open, allowing the feed additive to fall smoothly from the transfer box 315 into the discharge box 302. This allows for real-time control of the flow of feed additive in the transfer box 315, and automatic control of the amount of feed additive taken from the mixing box 301. The amount of feed additive used is highly controllable, making it more flexible and convenient to use.

[0050] In one optional embodiment of the present invention, a mounting frame 311 is installed at one end of the mixing tank 301. The mounting frame 311 has a U-shaped cross-section. Two transmission wheels 312 are installed inside the mounting frame 311. The two transmission wheels 312 are fixedly connected to two rotating rods 308 respectively. The two transmission wheels 312 are connected to the mounting frame 311 via rotating shafts. The rotating rods 308 are connected to the transmission wheels 312 via pins. Two bearings are installed at one end of the mixing tank 301. The pin shaft between the two transmission wheels 312 is rotatably engaged in the middle of the bearing. A belt 313 is fitted on the two transmission wheels 312. A motor 314 is mounted on the mounting frame 311. The motor 314 is connected to one of the transmission wheels 312 through a rotating shaft. The motor 314 drives the rotating shaft to rotate the transmission wheel 312. The rotating transmission wheel 312 drives the other transmission wheel 312 to rotate through the belt 313, which in turn drives the two rotating rods 308 to rotate, providing power support for the rotating rods 308.

[0051] In an optional embodiment of the present invention, the method of using the transport mixing device specifically includes the following steps:

[0052] Step 1: Pour the feed additive into the mixing box 101. Motor 108 drives the rotating shaft to rotate the transmission gear 107. The two transmission gears 107 mesh, which in turn drives the two rotating rods 104 to rotate. The rotating rods 104 drive the dispersing plate 105 to rotate. In conjunction with motor 211, the rotating shaft drives the rotating plate 109 to rotate. During the rotation, the dispersing plates 105 and the rotating plate 109 can fully contact the feed additive that has entered the mixing box 101, quickly dispersing the feed additive in the mixing box 101. This prevents the feed additive from clumping and piling up during mixing, allowing the feed additive to be mixed more quickly and evenly, greatly improving the working efficiency of the transmission mixing device.

[0053] Step 2: The dispersed feed additives flow into the bottom basket 202 through the opening at the bottom of the dispersion box 101. The motor 205 drives the rotating shaft to rotate the transmission wheel 206, which in turn drives another transmission wheel 206 to rotate through the belt 207. This causes the roller 203 to rotate. The rotating roller 203, together with the other roller 203, drives the conveyor belt 204 to rotate. The rotating conveyor belt 204 transfers the feed additives from the bottom basket 202 to the mixing box 301. During the transfer of feed additives, the two rotating rollers 210 can squeeze the sides of the conveyor belt 204, causing the conveyor belt 204 to be concave towards the center. This concentrates the feed additives in the center of the conveyor belt 204 for transfer, effectively preventing the feed additives from falling during the transfer process and reducing the loss of feed additives during transfer.

[0054] Step 3: Motor 6 314 drives the rotating shaft to rotate the transmission wheel 2 312. The rotating transmission wheel 2 312 drives another transmission wheel 2 312 to rotate via belt 2 313, which in turn drives the two rotating rods 2 308 to rotate. The rotation of the two rotating rods 2 308 drives several stirring columns 309 and mixing plates 310 to rotate. Combined with the electric cylinder 2 305 controlling the extension and retraction of the push-pull rod 2 306, the control plate 307 is pulled out and pulled inside the transfer box 315. When the control plate 307 is pushed into the transfer box 315, it keeps the bottom of the transfer box 315 sealed, thus preventing the feed additive from falling out before it is evenly mixed. Therefore, the stirring columns 309 and mixing plates 310 can... The feed additives have sufficient time to come into full contact with each other, resulting in a more uniform mixture. After the feed additives are uniformly mixed, the control plate 307 is pulled out from inside the transfer box 315, with the bottom of the transfer box 315 remaining open. The mixed feed falls from the transfer box 315 into the discharge box 302 and then flows out from the bottom of the discharge box 302, completing the transfer and mixing of the feed additives. This transfer and mixing device can control the flow of feed additives in the transfer box 315 at any time, enabling it to not only control the mixing time of the feed additives but also automatically control the amount of uniformly mixed feed additives taken out of the mixing box 301.

[0055] In use, the feed additive is first poured into the mixing box 101. The motor 108 drives the shaft to rotate the transmission gear 107. The two transmission gears 107 mesh, which in turn drives the two rotating rods 104 to rotate. The rotating rods 104 drive the dispersing plate 105 to rotate. In conjunction with the motor 211, the shaft drives the rotating plate 109 to rotate. During the rotation, the dispersing plates 105 and the rotating plate 109 can fully contact the feed additive that has entered the mixing box 101, quickly dispersing the feed additive in the mixing box 101. This prevents the feed additive from clumping and piling up during mixing, allowing the feed additive to be mixed more quickly and evenly, greatly improving the working efficiency of the transmission mixing device.

[0056] Then, the dispersed feed additives flow into the bottom basket 202 through the opening at the bottom of the dispersion box 101. The motor 205 drives the rotating shaft to rotate the transmission wheel 206, which in turn drives another transmission wheel 206 to rotate through the belt 207, thereby rotating the roller 203. The rotating roller 203, together with the other roller 203, drives the conveyor belt 204 to rotate. The rotating conveyor belt 204 transfers the feed additives squeezed in the bottom basket 202 to the mixing box 301. During the transfer of feed additives, the two rotating rollers 210 can squeeze the two sides of the conveyor belt 204, causing the conveyor belt 204 to be concave towards the middle, thereby concentrating the feed additives in the middle of the conveyor belt 204 for transfer, effectively preventing the feed additives from falling during the transfer process and reducing the loss of feed additives during the transfer.

[0057] Finally, motor 6 314 drives the rotating shaft to rotate transmission wheel 2 312. The rotating transmission wheel 2 312 drives another transmission wheel 2 312 to rotate via belt 2 313, which in turn drives two rotating rods 2 308 to rotate. The rotation of the two rotating rods 2 308 drives several stirring columns 309 and mixing plates 310 to rotate. Combined with the extension and retraction of push-pull rod 2 306 controlled by electric cylinder 2 305, the control plate 307 is pulled out and pulled inside the transfer box 315. When the control plate 307 is pushed into the transfer box 315, the bottom of the transfer box 315 is kept sealed, so that the feed additives will not fall out before being mixed evenly. Thus, the stirring columns 309 and mixing plates 310 can... The feed additives have more time to come into full contact, thus mixing them more evenly. After the feed additives are evenly mixed, the control plate 307 is pulled out from inside the transfer box 315, with the bottom of the transfer box 315 remaining open. The mixed feed falls into the discharge box 302 through the transfer box 315 and then flows out from the bottom of the discharge box 302, completing the transfer and mixing operation of the feed additives. This transfer and mixing device can control the flow state of the feed additives in the transfer box 315 at any time, so that the transfer and mixing device can not only control the mixing time of the feed additives, but also automatically control the amount of evenly mixed feed additives taken out of the mixing box 301.

[0058] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of protection claimed by the present invention. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A transfer and mixing device for a feed additive used to prevent and treat diarrhea in piglets, characterized in that: It includes two dispersing components (1), two conveying components (2), and a stirring component (3). The two dispersing components (1) are respectively installed above one end of the two conveying components (2), and the stirring component (3) is installed at the bottom of the two conveying components (2) away from the dispersing components (1). The dispersing component (1) includes a dispersing box (101), two rotating rods (104), and a rotating plate (109). The two rotating rods (104) and the rotating plate (109) are all installed in the dispersing box (101). Inside the rotating plate (109), two rotating rods (104) are installed above the rotating plate (109). Several dispersing plates (105) are installed on the outer surface of the rotating rods (104). Both ends of the rotating plate (109) are connected to the dispersing box (101) through rotating shafts. Brushes (110) are installed at the bottom of the rotating plate (109). Motor 2 (111) is installed in the middle of the bottom of the dispersing box (101). Motor 2 (111) is connected to one end of the rotating plate (109) through rotating shafts. The stirring assembly (3) includes a mixing tank (301), two rotating rods (308) and several stirring columns (309). The two rotating rods (308) are installed inside the mixing tank (301), and the several stirring columns (309) are installed on the outer surface of the two rotating rods (308) with equal arcs. The outer surface of the two rotating rods (308) is wrapped with a mixing plate (310). A fixed frame (102) is installed on the top of one end of the dispersing box (101). The fixed frame (102) has a "U" shaped cross section. Two transmission gears (107) are installed inside the fixed frame (102). The two transmission gears (107) are fixedly connected to two rotating rods (104) through pins. A motor (108) is installed on the fixed frame (102). The motor (108) is connected to one of the transmission gears (107) through a rotating shaft. The two transmission gears (107) mesh. The bottom of the disassembly box (101) has several openings at equal intervals. A walking frame (103) is installed below the disassembly box (101). The cross-section of the walking frame (103) is U-shaped. A movable frame (112) is installed inside the walking frame (103). The bottom of the movable frame (112) is inclined. Several electric cylinders (116) are installed at equal intervals inside the movable frame (112). One end of the electric cylinder (116) is connected to a push-pull rod (117). A motor (118) is installed on the top of the push-pull rod (117). A through-hole column (119) is installed on the motor (118) through a rotating shaft. A motor (113) is installed at one end of the walking frame (103). The motor (113) is connected to a lead screw (114) via a rotating shaft. A fixing rod (120) is installed on one side of the lead screw (114). The inner walls on both sides of the walking frame (103) are provided with slots. The lead screw (114) and the fixing rod (120) are respectively installed in the slots on both sides of the walking frame (103). Moving blocks (115) are installed on both sides of the moving frame (112). A screw hole is provided in the middle of one of the moving blocks (115). The screw hole is threaded with the lead screw (114). The fixing rod (120) passes through the moving block (115) away from the lead screw (114). The conveying assembly (2) includes a mounting frame (201), a bottom basket (202), and a conveyor belt (204). The bottom basket (202) is installed at the bottom of the mounting frame (201), and the walking frame (103) is welded to the top of the bottom basket (202). The conveyor belt (204) is located inside the mounting frame (201). Rollers (203) are installed at both ends of the mounting frame (201). The two ends of the two rollers (203) are connected to the mounting frame (201) through a rotating shaft. The two ends of the conveyor belt (204) are respectively sleeved on the outer surface of the two rollers (203). A motor (205) is installed above the mounting frame (201). The motor (205) is connected to a drive wheel (206) through a rotating shaft. A drive wheel (206) is installed at one end of the roller (203) near the motor (205). A belt (207) is sleeved on the outer surface of the two drive wheels (206). Several mounting frames 2 (208) are installed at equal intervals above mounting frame 1 (201). The cross-section of mounting frame 2 (208) is U-shaped. A connecting frame (209) is installed in the middle of mounting frame 2 (208). Two rotating rollers (210) are installed inside mounting frame 2 (208). The rotating rollers (210) are set at an angle.

2. The transfer and mixing device for a feed additive for preventing and treating piglet diarrhea according to claim 1, characterized in that: Three discharge boxes (302) are installed below the mixing tank (301). A connecting plate (303) is installed between the mixing tank (301) and the three discharge boxes (302). Three transfer boxes (315) are installed at the bottom of the mixing tank (301). The transfer boxes (315) are connected to the three mixing tanks (301), and all three transfer boxes (315) pass through the connecting plate (303). The three transfer boxes (315) are connected to the three discharge boxes (302) respectively. The cross-section of the material box (302) is an inverted "Y" shape. A fixing plate (304) is installed on one side of the transfer box (315). An electric cylinder (305) is installed on one side of the transfer box (315). The electric cylinder (305) is installed on the fixing plate (304). A push-pull rod (306) passes through one end of the electric cylinder (305). A control plate (307) is welded to one end of the push-pull rod (306). The control plate (307) passes through the transfer box (315).

3. The transfer and mixing device for a feed additive for preventing and treating diarrhea in piglets according to claim 2, characterized in that: A mounting frame (311) is installed at one end of the mixing box (301). The mounting frame (311) has a "U" shaped cross section. Two drive wheels (312) are installed inside the mounting frame (311). The two drive wheels (312) are fixedly connected to two rotating rods (308) respectively. Belts (313) are fitted on the two drive wheels (312). A motor (314) is installed on the mounting frame (311). The motor (314) is connected to one of the drive wheels (312) through a rotating shaft.

4. The transfer and mixing device for a feed additive for preventing and treating piglet diarrhea according to claim 3, characterized in that: The method of using this transfer mixing device specifically includes the following steps: Step 1: Pour the feed additive into the dispersing box (101). Motor 1 (108) drives the shaft to rotate the transmission gear (107). The two transmission gears (107) mesh, which in turn drives the two rotating rods (104) to rotate. The rotating rods (104) drive the dispersing plate (105) to rotate. In conjunction with Motor 2 (111), the shaft drives the rotating plate (109) to rotate. During the rotation, the dispersing plates (105) and rotating plates (109) can fully contact the feed additive that has entered the dispersing box (101), and quickly disperse the feed additive in the dispersing box (101). Step 2: The broken feed additives flow into the bottom basket (202) through the opening at the bottom of the breaking box (101). The motor five (205) drives the rotating shaft to drive the transmission wheel one (206) to rotate, which in turn drives the other transmission wheel one (206) to rotate through the belt one (207), thereby rotating the roller (203). The rotating roller (203) and the other roller (203) drive the transmission belt (204) to rotate. The rotating transmission belt (204) transfers the feed additives squeezed in the bottom basket (202) to the mixing box (301). During the transfer of feed additives, the two rotating rollers (210) can squeeze the two sides of the transmission belt (204), causing the transmission belt (204) to be concave towards the middle, thereby concentrating the feed additives in the middle of the transmission belt (204) for transfer, effectively preventing the feed additives from falling during the transfer process. Step 3: Motor 6 (314) drives the rotating shaft to rotate the transmission wheel 2 (312). The rotating transmission wheel 2 (312) drives another transmission wheel 2 (312) to rotate via belt 2 (313), which in turn drives the two rotating rods 2 (308) to rotate. The rotation of the two rotating rods 2 (308) drives several stirring columns (309) and mixing plates (310) to rotate. Combined with the electric cylinder 2 (305) controlling the extension and retraction of the push-pull rod 2 (306), the control plate (307) is pulled out and pulled in the transfer box (315). When the control plate (307) is pushed into the transfer box (315), the transfer box is activated. The bottom of the box (315) is kept sealed so that the feed additives will not fall out before they are evenly mixed. This allows the stirring column (309) and mixing plate (310) to have more time to come into full contact with the feed additives, thus mixing them more evenly. After the feed additives are evenly mixed, the control plate (307) is pulled out from inside the transfer box (315). The bottom of the transfer box (315) remains open. The mixed feed falls into the discharge box (302) through the transfer box (315) and then flows out from the bottom of the discharge box (302), completing the transfer and mixing of the feed additives.

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