Method for producing high-grade mutton by feeding millet

Abstract

This invention discloses a method for producing high-grade mutton from feed millet. The method includes steps S1: millet selection; S2: millet impurity removal; S3: millet washing; S4: millet drying; S5: fermentation treatment; and S6: monitoring and feeding. A drive motor drives a separating and fixing cylinder, while a drive gear and a linkage gear drive a supporting fixing rod and a linkage striking plate to rotate. The gear meshing and opposing transmission cause the separating and fixing cylinder and the linkage striking plate to rotate in opposite directions. This allows for continuous impact and beating of impurities as the separating and fixing cylinder centrifuges the millet to remove them, dislodging impurities adhering to the surface of the millet and impurities that are mixed and adhered together. This ensures effective cleaning of the millet. An accelerating fan then exhausts the air containing suspended dust, and a cleaning scraper removes the internal impurities to the outside, preventing dust from re-adhering to the surface of the millet after processing.

Description

Technical Field

[0001] This invention relates to the field of sheep farming technology, specifically a method for producing high-grade mutton from millet feed. Background Technology

[0002] Sheep is a general term for the subfamily Caprinae, which belongs to the class Mammalia, order Artiodactyla, family Bovidae, and subfamily Caprinae. They are one of the domesticated animals of humans, four-legged ruminants with wool, and wool is the main source of their wool. Meat sheep are among the most adaptable livestock to the external environment, with a wide diet, tolerance to roughage, and strong resistance to adverse conditions. With the improvement of people's living standards in my country, the demand for meat sheep has gradually increased. Now, in order to pursue better meat quality, farmers use millet to raise meat sheep.

[0003] However, the current method of processing millet by simply blowing air cannot effectively remove the impurities attached to the surface of the millet. This results in excessive internal impurities affecting fermentation during subsequent fermentation, and the presence of metal fragments can lead to fermentation spoilage, affecting the processing effect and efficiency of the millet, and thus indirectly affecting the growth of lambs. Summary of the Invention

[0004] This invention provides a method for producing high-grade mutton from feed millet, which can effectively solve the problem mentioned in the background art. Currently, when processing millet, simple air blowing is generally used, which cannot fully remove impurities attached to the surface of the millet. This results in excessive internal impurities affecting fermentation during subsequent fermentation, and the presence of metal fragments can lead to fermentation spoilage, affecting the processing effect and efficiency of the millet, and thus indirectly affecting the growth of lambs.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a method for producing high-grade mutton from feed millet, comprising the following steps:

[0006] S1: Millet selection: Selecting the required type, grain size, and quality of millet;

[0007] S2: Millet impurity removal: The selected millet is put into the inner side of the separating and fixing cylinder. As the separating and fixing cylinder rotates, the linkage gear and transmission gear drive the support fixing rod and linkage striking plate to rotate in opposite directions, thereby striking the impurities in the millet and the impurities attached to the surface of the millet, crushing the soil and discharging the impurities, thus quickly removing impurities and ensuring the cleanliness of the millet.

[0008] S3: Millet Washing: After removing impurities, millet is put into the washing tank. The fixed motor drives the washing tank, the processing motor drives the linkage transmission rod and the processing scraper, and at the same time, it works with the high-pressure spray pipe to wash away the surface dust, making the surface of the millet clean and easy for subsequent processing.

[0009] S4: Millet Drying: A fixed motor drives the washing tank, and a vibrating motor drives the drying box, which works in conjunction with a perforated heating plate and a guide fan to dry the millet, thus preventing the millet from being too damp and affecting subsequent processing.

[0010] S5: Fermentation treatment: The processed millet is fermented to process it. Fermentation can effectively prevent sheep from directly ingesting millet, which would cause it to ferment in their stomachs and thus prevent bloating after the sheep ingests millet.

[0011] S6: Testing and Feeding: Test the fermented millet. If it meets the requirements, it can be directly mixed with feed and fed.

[0012] Preferably, a striking separation assembly is installed on one side of the fixed support frame, and the striking separation assembly includes a fixed support cylinder;

[0013] The linkage motor drives the sealing isolation plate to open the top of the fixed support cylinder. At the same time, the sealing isolation plate pushes the closed cover plate. The torsion spring drives the closed cover plate to reset. Then, the closed cover plate is attracted and fixed by the fixed electromagnet. The linkage electric push rod drives the sliding insertion block to be embedded into the inner side of the sliding insertion groove.

[0014] The linkage locking block drives the separation fixing cylinder to rotate, and at the same time, the linkage locking block drives the transmission gear to rotate. The transmission gear drives the linkage gear to mesh and transmit power, and the linkage gear drives the support fixing rod to rotate in opposite directions with the separation fixing cylinder.

[0015] The cleaning scraper removes impurities from the inside of the separation and fixing cylinder, and the internal air is driven by the acceleration fan to enter the inside of the collection and storage box along the slag discharge pipe.

[0016] Preferably, a fixed support cylinder is welded to one end of the fixed support frame, and a slag discharge pipe is connected through one end of the fixed support cylinder. An acceleration fan is embedded in the inner side of the slag discharge pipe. A support mounting plate is connected to the side end of the fixed support cylinder by a snap-fit ​​pin. A collection and storage box is slidably sleeved on the top of the support mounting plate at the position corresponding to the slag discharge pipe. An isolation net frame is snap-fitted into one side of the top of the collection and storage box. A linkage motor is symmetrically mounted on one end of the fixed support cylinder through a motor base. A sealing isolation plate is snap-fitted onto the output shaft of the linkage motor at the position corresponding to the fixed support cylinder.

[0017] A drive motor is mounted on one end of the fixed support cylinder via a motor mount. The output shaft of the drive motor is engaged with a linkage engagement block. A separation fixed cylinder is sleeved on the side end of the linkage engagement block. A fixed mounting box is welded to one end of the separation fixed cylinder at the position corresponding to the linkage engagement block. A sliding insertion groove is provided at one end of the linkage engagement block and the fixed mounting box. A linkage electric push rod is embedded in one end of the fixed mounting box. A sliding insertion block is engaged on one end of the output shaft of the linkage electric push rod. A support fixed rod is rotatably connected to the inside of the separation fixed cylinder at the position corresponding to the linkage engagement block. A linkage mounting hole is provided at one end of the support fixed rod. A linkage gear is sleeved and engaged inside the linkage mounting hole. A drive gear is installed at one end of the linkage engagement block at the position corresponding to the linkage mounting hole. A linkage striking plate is symmetrically welded to the side end of the support fixed rod. Several cleaning scrapers are equidistantly welded to the side end of the separation fixed cylinder.

[0018] A torsion spring is welded to the top of the side end of the separating and fixing cylinder, and a closing cover plate is welded to one end of the torsion spring. A fixing electromagnet is installed at the position of the closing cover plate on the side end of the separating and fixing cylinder.

[0019] Preferably, the side end of the collection and storage box is connected to the slag discharge pipe, the sealing isolation plate is rotatably installed on the side end of the fixed support cylinder, the maximum rotation angle of the sealing isolation plate is degrees, the input ends of the acceleration fan, linkage motor, transmission motor, linkage electric push rod and fixed electromagnet are all electrically connected to the output end of the external controller, and the input end of the external controller is electrically connected to the output end of the external power supply.

[0020] Preferably, the longitudinal section of the support mounting plate and the sliding insertion block is T-shaped, the transmission gear is rotatably embedded in the inner side of the mounting linkage hole, the linkage gear and the transmission gear are meshed and connected, and the side end of the cleaning scraper is in contact with the inner end of the fixed support cylinder.

[0021] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0022] 1. Equipped with a striking and separating component, the separation cylinder is driven by a transmission motor, while the support rod and the striking plate are rotated by transmission gears and linkage gears. The opposing transmission through gear meshing causes the separation cylinder and the striking plate to rotate in opposite directions. This allows for continuous striking and impacting of impurities as the separation cylinder centrifuges the millet to separate them from the impurities. This knocks off impurities adhering to the surface of the millet and impurities that are mixed and stuck together, making the cleaning process effective and ensuring a cleaning effect. Then, an acceleration fan exhausts the air containing floating dust inside, and a cleaning scraper removes the impurities from the inside to the outside, preventing floating dust from re-adhering to the surface of the millet after processing, further ensuring the cleaning effect.

[0023] 2. Equipped with a collection and washing component, the collection and heating cylinder are moved via a movable electric slide rail and support frame. This allows for quick adjustment of the equipment's position according to different processing conditions. A fixed motor drives the washing tank to rotate, which in turn drives the linkage transmission rod and the processing scraper to rotate, thus turning the millet. High-pressure spray nozzles then wash away the surface dust from the millet. Through continuous turning and washing, the overall cleanliness of the millet surface is ensured, preventing the accumulation of surface dust and maintaining the cleanliness of the millet. Furthermore, high-speed centrifugation quickly dehydrates the millet, preventing water residue buildup that could lead to damp fermentation.

[0024] 3. Equipped with a centralized processing component, the drying box is slowly turned by a vibration motor with the assistance of an auxiliary spring. A guide fan then drives high-temperature air from the perforated heating plate through an isolation air inlet to slowly dry the millet, thus ensuring the drying effect. Direct drying accelerates the drying speed. A hammer-driven electric push rod drives an impact plate to flatten the millet, and a discharge electric slide rail drives a discharge scraper to discharge the millet, allowing for quick operation when discharge is required.

[0025] In summary, the combination of the tapping separation component and the collection and washing component allows for mixed processing of various impurity removal operations when millet needs to be processed, ensuring the cleanliness of the millet. The combination of the collection and washing component and the centralized processing component allows for dual processing of dehydration and drying during the millet drying process, ensuring the dryness of the millet. The cooperation of multiple components ensures both the cleanliness and dryness of the millet, thus facilitating subsequent processing. Attached Figure Description

[0026] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0027] Figure 1 This is a schematic diagram of the method flow of the present invention;

[0028] Figure 2 This is a three-dimensional structural schematic diagram of the present invention;

[0029] Figure 3 This is a schematic diagram of the structure of the tapping separation component of the present invention;

[0030] Figure 4 This is a schematic diagram of the installation structure of the sliding insertion block of the present invention;

[0031] Figure 5This is a schematic diagram of the installation structure of the linkage gear of the present invention;

[0032] Figure 6 This is a schematic diagram of the structure of the collection and washing component of the present invention;

[0033] Figure 7 This is a schematic diagram of the installation structure of the high-pressure nozzle of the present invention;

[0034] Figure 8 This is a schematic diagram of the installation structure of the scraper of the present invention;

[0035] Figure 9 This is a schematic diagram of the structure of the centralized processing component of the present invention;

[0036] Figure 10 This is a schematic diagram of the installation structure of the isolation air intake mesh of the present invention;

[0037] Figure 11 This is a schematic diagram of the installation structure of the impact plate of the present invention;

[0038] Numbered in the diagram: 1. Fixed support frame;

[0039] 2. Impact Separation Components; 201. Fixed Support Cylinder; 202. Slag Discharge Pipe; 203. Accelerating Fan; 204. Support Mounting Plate; 205. Collection and Storage Box; 206. Isolation Frame; 207. Linkage Motor; 208. Sealing Isolation Plate; 209. Transmission Motor; 210. Linkage Locking Block; 211. Separation Fixing Cylinder; 212. Fixed Mounting Box; 213. Sliding Insertion Slot; 214. Linkage Electric Push Rod; 215. Sliding Insertion Block; 216. Support Fixing Rod; 217. Mounting Linkage Hole; 218. Linkage Gear; 219. Transmission Gear; 220. Linkage Impact Plate; 221. Cleaning Scraper; 222. Torsion Spring; 223. Closing Cover Plate; 224. Fixing Electromagnet; 225. Locking Pin;

[0040] 3. Collection and cleaning components; 301. Movable electric slide rail; 302. Collection and fixing box; 303. Support fixing frame; 304. Cleaning heating cylinder; 305. Fixing motor; 306. Cleaning treatment tank; 307. Treatment motor; 308. Linkage transmission rod; 309. Treatment scraper; 310. Limit spring; 311. Limit cover plate; 312. Limit electromagnet; 313. Fixing support box; 314. Adsorption electromagnet; 315. Drain pipe; 316. Downward pressure spring; 317. Cleaning scraper; 318. Install electric slide rail; 319. Close moving plate; 320. Exhaust fixing pipe; 321. High-pressure spray pipe;

[0041] 4. Centralized processing components; 401. Collection and processing box; 402. Auxiliary spring; 403. Drying and processing box; 404. Vibration motor; 405. Isolation air inlet mesh; 406. Perforated heating plate; 407. Guide fan; 408. Discharge electric slide rail; 409. Discharge scraper; 410. Closing motor; 411. Closing fixing plate; 412. Snap-on electromagnet; 413. Closing electric slide rail; 414. Restriction cover plate; 415. Hammering electric push rod; 416. Impact plate. Detailed Implementation

[0042] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0043] Example: Figure 1-11 As shown, the present invention provides a technical solution, a method for producing high-grade mutton from feed millet, comprising the following steps:

[0044] S1: Millet selection: Selecting the required type, grain size, and quality of millet;

[0045] S2: Millet impurity removal: The selected millet is put into the inner side of the separation fixing cylinder 211. As the separation fixing cylinder 211 rotates, the linkage gear 218 and the transmission gear 219 drive the support fixing rod 216 and the linkage striking plate 220 to rotate in opposite directions, thereby striking the impurities in the millet and the impurities attached to the surface of the millet, crushing the soil and discharging the impurities, thus quickly removing impurities and ensuring the cleanliness of the millet;

[0046] S3: Millet washing: After removing impurities, millet is put into the inside of the washing tank 306. The fixed motor 305 drives the washing tank 306, the processing motor 307 drives the linkage transmission rod 308 and the processing scraper 309, and at the same time cooperates with the high-pressure spray pipe 321 to wash away the floating dust on the surface, making the surface of the millet clean and easy for subsequent processing.

[0047] S4: Millet drying: The millet is dried by the fixed motor 305 driving the washing tank 306, the vibration motor 404 driving the drying box 403, and cooperating with the porous heating plate 406 and the guide fan 407 to avoid the millet being too damp and affecting subsequent processing.

[0048] S5: Fermentation treatment: The processed millet is fermented to process it. Fermentation can effectively prevent sheep from directly ingesting millet, which would cause it to ferment in their stomachs and thus prevent bloating after the sheep ingests millet.

[0049] S6: Testing and Feeding: Test the fermented millet. If it meets the requirements, it can be directly mixed with feed and fed.

[0050] The feed consists mainly of millet, along with green grass, corn, soybean cake, protein powder, bone meal, cauliflower seeds, and fried ingredients, providing lambs with sufficient nutrition.

[0051] A knocking separation assembly 2 is installed on one side of the fixed support frame 1. The knocking separation assembly 2 includes a fixed support cylinder 201, a slag discharge pipe 202, an acceleration fan 203, a support mounting plate 204, a collection and storage box 205, an isolation mesh frame 206, a linkage motor 207, a sealing isolation plate 208, a transmission motor 209, a linkage locking block 210, a separation fixing cylinder 211, a fixed mounting box 212, a sliding insertion slot 213, a linkage electric push rod 214, a sliding insertion block 215, a support fixing rod 216, a mounting linkage hole 217, a linkage gear 218, a transmission gear 219, a linkage knocking plate 220, a cleaning scraper 221, a torsion spring 222, a closing cover plate 223, a fixing electromagnet 224, and a locking pin 225.

[0052] The linkage motor 207 drives the sealing isolation plate 208 to open the top of the fixed support cylinder 201. At the same time, the sealing isolation plate 208 pushes the closing cover 223. The torsion spring 222 drives the closing cover 223 to reset. Then, the closing cover 223 is attracted and fixed by the fixed electromagnet 224. The linkage electric push rod 214 drives the sliding insertion block 215 to be embedded into the inner side of the sliding insertion groove 213.

[0053] The linkage latching block 210 drives the separation fixing cylinder 211 to rotate. At the same time, the linkage latching block 210 drives the transmission gear 219 to rotate. The transmission gear 219 drives the linkage gear 218 to mesh and transmit power. The linkage gear 218 drives the support fixing rod 216 to rotate in opposite directions with the separation fixing cylinder 211.

[0054] The cleaning scraper 221 scrapes away impurities from the inside of the separation fixing cylinder 211, and the internal air is driven by the acceleration fan 203 to enter the inside of the collection and storage box 205 along the slag discharge pipe 202.

[0055] A fixed support cylinder 201 is welded to one end of the fixed support frame 1. A slag discharge pipe 202 is connected through one end of the fixed support cylinder 201. An acceleration fan 203 is embedded inside the slag discharge pipe 202. A support mounting plate 204 is connected to the side end of the fixed support cylinder 201 by a snap-fit ​​pin 225. A collection and storage box 205 is slidably sleeved at the top of the support mounting plate 204 corresponding to the position of the slag discharge pipe 202. An isolation net frame 206 is snap-fitted and embedded on one side of the top of the collection and storage box 205. A linkage motor 207 is symmetrically mounted on one end of the fixed support cylinder 201 through a motor base. A sealing isolation plate 208 is snap-fitted at the position of the output shaft of the linkage motor 207 corresponding to the position of the fixed support cylinder 201. The sealing isolation plate 208 is rotatably mounted on the side end of the fixed support cylinder 201. The maximum rotation angle of the sealing isolation plate 208 is 90 degrees, which allows for quick restriction of the feeding position and direction when feeding is required, ensuring the stability of feeding.

[0056] A drive motor 209 is mounted on one end of a fixed support cylinder 201 via a motor mount. The output shaft of the drive motor 209 is engaged with a linkage engagement block 210. A separation fixed cylinder 211 is sleeved on the side of the linkage engagement block 210. A fixed mounting box 212 is welded to one end of the separation fixed cylinder 211 at the position corresponding to the linkage engagement block 210. A sliding insertion groove 213 is provided at one end of both the linkage engagement block 210 and the fixed mounting box 212. A linkage electric actuator 214 is embedded at one end of the fixed mounting box 212. A sliding insertion block 215 is engaged at one end of the output shaft of the linkage electric actuator 214. The longitudinal section of the support mounting plate 204 and the sliding insertion block 215 is T-shaped, allowing for one-end limiting during engagement to prevent movement and detachment. The inner side of the separation fixed cylinder 211 rotates at the position corresponding to the linkage engagement block 210. The device is connected to a support rod 216. One end of the support rod 216 has a mounting linkage hole 217. A linkage gear 218 is sleeved and snapped into the inner side of the mounting linkage hole 217. A transmission gear 219 is installed at one end of the linkage snap block 210 corresponding to the position of the mounting linkage hole 217. The transmission gear 219 is rotatably embedded in the inner side of the mounting linkage hole 217. The linkage gear 218 and the transmission gear 219 are meshed and connected, so that they can be effectively combined and limited during synchronous counter-linkage operation. A linkage striking plate 220 is symmetrically welded to the side end of the support rod 216. Several cleaning scrapers 221 are equidistantly welded to the side end of the separation fixing cylinder 211. The side end of the cleaning scraper 221 is attached to the inner end of the fixing support cylinder 201, so that the inner side of the fixing support cylinder 201 can be continuously and effectively cleaned when cleaning is required.

[0057] A torsion spring 222 is welded to the top of the side end of the separating fixed cylinder 211. A closing cover plate 223 is welded to one end of the torsion spring 222. A fixed electromagnet 224 is installed at the position of the closing cover plate 223 on the side end of the separating fixed cylinder 211. The input ends of the acceleration fan 203, the linkage motor 207, the transmission motor 209, the linkage electric push rod 214, and the fixed electromagnet 224 are all electrically connected to the output end of the external controller. The input end of the external controller is electrically connected to the output end of the external power supply.

[0058] A collection and washing assembly 3 is installed on one side of the fixed support frame 1. The collection and washing assembly 3 includes a movable electric slide rail 301, a collection and fixing box 302, a support and fixing frame 303, a cleaning heating cylinder 304, a fixed motor 305, a cleaning and processing tank 306, a processing motor 307, a linkage transmission rod 308, a processing scraper 309, a limit spring 310, a limit cover plate 311, a limit electromagnet 312, a fixed support box 313, an adsorption electromagnet 314, a drain pipe 315, a downward pressure spring 316, a cleaning scraper 317, an installation electric slide rail 318, a closing movable plate 319, an exhaust fixing pipe 320, and a high-pressure spray pipe 321.

[0059] One end of the fixed support frame 1 is snapped with a movable electric slide rail 301. The top of the movable electric slide rail 301 is connected to a collection and fixing box 302 via a slide rail seat. Support fixing frames 303 are symmetrically welded to both ends of the collection and fixing box 302. A cleaning heating cylinder 304 is welded between multiple support fixing frames 303. A fixed motor 305 is mounted on one end of the cleaning heating cylinder 304 via a motor base. One end of the output shaft of the fixed motor 305 is snapped with a cleaning treatment tank 306. The cleaning treatment tank 306 is rotatably mounted on the cleaning heating cylinder 304. The inner side of 04 allows for effective positioning and fixation during millet washing. The other end of the washing heating cylinder 304 is equipped with a processing motor 307 via a motor mount. One end of the output shaft of the processing motor 307 is connected to a linkage transmission rod 308. Both the linkage transmission rod 308 and the processing scraper 309 are rotatably mounted inside the washing tank 306, allowing the millet to rotate and adjust during the washing process, ensuring a clean surface. The processing scraper 309 is equidistantly sleeved and secured to the side end of the linkage transmission rod 308.

[0060] A limit spring 310 is welded to one end of the cleaning tank 306, and a limit cover plate 311 is welded to the other end of the limit spring 310. A limit electromagnet 312 is installed at the corresponding position of the limit cover plate 311 at one end of the cleaning tank 306. Several fixed support boxes 313 are welded at equal intervals to the side of the cleaning tank 306. An attraction electromagnet 314 is embedded and snapped into the top of the inner side of the fixed support box 313. Several downward pressure springs 316 are welded at equal intervals to the side of the fixed support box 313. A cleaning scraper 317 is welded to the bottom of the multiple downward pressure springs 316. The longitudinal section of the cleaning scraper 317 is T-shaped. The cleaning scraper 317 is slidably installed inside the fixed support box 313, which allows for quick operation when adjusting the cleaning position and allows for sliding limit. The cleaning heating cylinder 304 is symmetrically fitted with mounting electric slide rails 318 at both ends. A closing moving plate 319 is installed between the two mounting electric slide rails 318 through a slide rail seat. The side end of the closing moving plate 319 slides and fits against the side end of the cleaning heating cylinder 304, so that it can be operated quickly and effectively when closing and sealing. An exhaust fixing pipe 320 is equidistantly connected through the side end of the cleaning heating cylinder 304. A drain pipe 315 is connected through the bottom of one end of the cleaning heating cylinder 304. A high-pressure spray pipe 321 is connected through the side end of the cleaning heating cylinder 304. The input ends of the moving electric slide rail 301, the fixing motor 305, the processing motor 307, the limit electromagnet 312, the adsorption electromagnet 314, and the mounting electric slide rail 318 are all electrically connected to the output end of an external controller.

[0061] A centralized processing component 4 is installed on one side of the fixed support frame 1. The centralized processing component 4 includes a collection and processing box 401, an auxiliary spring 402, a drying and processing box 403, a vibration motor 404, an isolation air inlet mesh 405, a perforated heating plate 406, a guide fan 407, a discharge electric slide rail 408, a discharge scraper 409, a closing motor 410, a closing fixing plate 411, a snap-fit ​​electromagnet 412, a closing electric slide rail 413, a limiting cover plate 414, a hammer electric push rod 415, and an impact plate 416.

[0062] A collection and processing box 401 is installed on the top of one side of the fixed support frame 1. Several auxiliary springs 402 are symmetrically welded at equal intervals to the bottom of the inner side of the collection and processing box 401. A drying box 403 is welded to the top of each auxiliary spring 402. A vibration motor 404 is installed in the middle of the bottom of the drying box 403 via a motor mount. Isolation air intake nets 405 are symmetrically embedded at both ends of the drying box 403. Perforated heating plates 406 are symmetrically snapped onto both ends of the inner side of the collection and processing box 401. Guide fans 407 are symmetrically embedded at both ends of the collection and processing box 401. A discharge electric slide rail 408 is installed on the inner side of the drying box 403. A discharge scraper 409 is connected between two discharge electric slide rails 408 via a slide rail seat. The discharge scraper 409 is slidably installed inside the drying box 403, allowing it to fully conform to the inner wall of the drying box 403 during discharge, ensuring stable and fast discharge. A closing mechanism is installed at one end of the collection and processing box 401 via a motor mount. Motor 410, with its output shaft snapped with a closing fixing plate 411, is rotatably mounted on the collection and processing box 401, allowing for quick operation during sealing. One end of the collection and processing box 401 is snapped with a snap-on electromagnet 412, and the top of the collection and processing box 401 is symmetrically snapped with closing electric slide rails 413. The tops of the two closing electric slide rails 413 are connected to limiting covers 414 via slide rail seats, and the limiting covers 414 are slidably mounted on the collection and processing box. The top of the drying box 401 ensures effective limiting and fixation during vibration drying. A hammer electric push rod 415 is connected through the middle of the top of the limiting cover plate 414. An impact plate 416 is snapped at the bottom of the output shaft of the hammer electric push rod 415. The input ends of the vibration motor 404, the perforated heating plate 406, the guide fan 407, the discharge electric slide rail 408, the closing motor 410, the snap-fit ​​electromagnet 412, the closing electric slide rail 413, and the hammer electric push rod 415 are electrically connected to the output end of the external controller.

[0063] The working principle and usage process of this invention are as follows: When millet needs to be processed, the linkage motor 207 drives the sealing isolation plate 208 to open the top of the fixed support cylinder 201. When the sealing isolation plate 208 is embedded in the inner side of the fixed support cylinder 201, the sealing isolation plate 208 simultaneously pushes the closing cover 223, thereby opening the separation fixing cylinder 211. The millet enters the inner side of the separation fixing cylinder 211 along the sealing isolation plate 208. After the millet is placed, the linkage motor 207 drives the sealing isolation plate 208 to reset, and then the torsion spring 222 drives the closing cover 223 to reset. Then, the closing cover 223 is attracted and fixed by the fixing electromagnet 224. After the fixing is completed, the linkage electric push rod 214 drives the sliding insertion block 215 to be embedded in the inner side of the sliding insertion groove 213, thereby locking and fixing the linkage snap-fit ​​block 210 and the fixing mounting box 212 through the sliding insertion block 215. The linkage snap-fit ​​block 210 drives the separation fixing cylinder 211 to rotate, and at the same time, the linkage... The snap-fit ​​block 210 drives the transmission gear 219 to rotate, which in turn drives the linkage gear 218 to mesh and transmit power. The linkage gear 218 drives the support fixing rod 216 to rotate in opposite directions with the separation fixing cylinder 211. The support fixing rod 216 drives the linkage striking plate 220 to rotate continuously along the inner side of the separation fixing cylinder 211. Through the opposing linkage, the millet is struck and impacted, thereby breaking up the dirt and impurities in the millet. The separation fixing cylinder 211 continues to rotate at high speed, causing dust and impurities to be discharged along the separation fixing cylinder 211. Then, the cleaning scraper 221 scrapes the impurities from the inner side of the separation fixing cylinder 211 and discharges them into the inner side of the collection fixing box 302, thereby quickly removing impurities and preventing excessive impurities from affecting the sheep's intake of millet. During the continuous rotation, the acceleration fan 203 drives the internal air to enter the inner side of the collection storage box 205 along the slag discharge pipe 202, thereby quickly discharging the suspended dust and preventing the suspended dust from affecting the subsequent processing of millet.

[0064] After impurities are treated and emptied, the collection and fixing box 302 is moved to the side of the fixed support frame 1 by the movable electric slide rail 301. During the movement, the cleaning heating cylinder 304 is moved synchronously through the support frame 303, so that the cleaning heating cylinder 304 moves to the bottom of the fixed support cylinder 201, and the fixing electromagnet 224 is closed. The gravity of the millet pushes the closing cover 223, and the millet enters the inside of the cleaning and processing tank 306 through the closing cover 223. After the millet is filled, the limiting spring 310 drives the limiting cover 311 to seal and limit the cleaning and processing tank 306, and the limiting electromagnet 312 attracts and fixes the limiting cover 311. The processing motor 307 drives the linkage transmission rod 308 along the... The cleaning tank 306 rotates, driven by a fixed motor 305. Simultaneously, the high-pressure spray pipe 321 washes the millet. Through the linkage transmission rod 308 and the processing scraper 309, the millet is continuously turned and washed by the cleaning tank 306, ensuring the cleanliness of the wash and further guaranteeing the cleaning effect of the millet. After cleaning, the water on the surface of the millet can be spun dry by high-speed centrifugation. While dehydrating the millet, the adsorption electromagnet 314 is turned off, and the downward pressure spring 316 drives the cleaning scraper 317 to slide along the fixed support box 313, so that the side end of the cleaning scraper 317 is in contact with the side end of the collection fixed box 302 for cleaning, thereby quickly draining the residual water inside.

[0065] The sliding plate 319 is closed by the electric slide rail 318, and the limiting electromagnet 312 is closed, so that the millet is discharged from the washing tank 306 and discharged into the drying box 403. The vibration motor 404 drives the drying box 403 to vibrate with the assistance of the auxiliary spring 402, thereby causing the millet to turn over. The guide fan 407 drives the air through the porous heating plate 406 and along the isolation air inlet net 405 to continuously dry the millet. After drying, the limiting cover 414 is moved and reset by the closed electric slide rail 413. The hammer electric push rod 415 drives the impact plate 416 to flatten the millet, so that when it is necessary to discharge through the discharge scraper 409, the situation of uneven accumulation affecting the discharge can be avoided.

[0066] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A method for raising high-grade mutton using millet as feed, characterized in that, Includes the following steps: S1: Millet selection: Selecting the required type, grain size, and quality of millet; S2: Millet impurity removal: The selected millet is put into the inside of the separation fixing cylinder (211). As the separation fixing cylinder (211) rotates, the linkage gear (218) and the transmission gear (219) drive the support fixing rod (216) and the linkage striking plate (220) to rotate in opposite directions, thereby striking the impurities in the millet and the impurities attached to the surface of the millet, crushing the soil and discharging the impurities, thereby quickly removing impurities and ensuring the cleanliness of the millet; S3: Millet washing: After removing impurities, millet is put into the inside of the washing and processing tank (306). The fixed motor (305) drives the washing and processing tank (306), the processing motor (307) drives the linkage transmission rod (308) and the processing scraper (309), and at the same time cooperates with the high-pressure spray pipe (321) to wash and clean the surface dust, so that the surface of the millet is clean and easy for subsequent operation and processing. S4: Millet drying: The millet is dried by a fixed motor (305) driving the washing tank (306), a vibrating motor (404) driving the drying box (403), and in conjunction with the perforated heating plate (406) and the guide fan (407), so as to avoid the situation where the millet is too damp and affects the subsequent processing. S5: Fermentation treatment: The processed millet is fermented to process it. Fermentation can effectively prevent sheep from directly ingesting millet, which would cause it to ferment in their stomachs and thus prevent bloating after the sheep ingests millet. S6: Testing and Feeding: Test the fermented millet. If it meets the requirements, it can be directly mixed with feed and fed. A striking separation assembly (2) is installed on one side of a fixed support frame (1), the striking separation assembly (2) including a fixed support cylinder (201); One end of the fixed support cylinder (201) is symmetrically equipped with a linkage motor (207) via a motor base. The linkage motor (207) drives the sealing isolation plate (208) to open the top of the fixed support cylinder (201). At the same time, the sealing isolation plate (208) pushes the closing cover plate (223). The torsion spring (222) drives the closing cover plate (223) to reset. Then, the closing cover plate (223) is attracted and fixed by the fixed electromagnet (224). The linkage electric push rod (214) drives the sliding insertion block (215) to be embedded into the inner side of the sliding insertion groove (213). One end of the fixed support cylinder (201) is equipped with a drive motor (209) via a motor mount. The output shaft of the drive motor (209) is engaged with a linkage engagement block (210). The linkage engagement block (210) drives the separation fixed cylinder (211) to rotate. At the same time, the linkage engagement block (210) drives the drive gear (219) to rotate. The drive gear (219) drives the linkage gear (218) to mesh and transmit power. The linkage gear (218) drives the support fixing rod (216) to rotate in opposite directions with the separation fixed cylinder (211). Several cleaning scrapers (221) are welded at equal intervals on the side end of the separation fixing cylinder (211). The cleaning scrapers (221) scrape the impurities from the inside of the separation fixing cylinder (211), and the internal air is driven by the acceleration fan (203) to enter the inside of the collection and storage box (205) along the slag discharge pipe (202).

2. The method for raising high-grade mutton using millet as feed according to claim 1, characterized in that, One end of the fixed support frame (1) is welded with a fixed support cylinder (201), and one end of the fixed support cylinder (201) is connected through a slag discharge pipe (202). An acceleration fan (203) is embedded in the inside of the slag discharge pipe (202). The side end of the fixed support cylinder (201) is connected to a support mounting plate (204) by a snap-fit ​​pin (225). A collection and storage box (205) is slidably sleeved on the top of the support mounting plate (204) at the position corresponding to the slag discharge pipe (202). An isolation net frame (206) is snap-fitted and embedded on one side of the top of the collection and storage box (205). A sealing isolation plate (208) is snap-fitted on the output shaft of the linkage motor (207) at the position corresponding to the fixed support cylinder (201). The linkage snap-fit ​​block (210) is sleeved with a separation fixing cylinder (211) at one end. A fixing box (212) is welded to one end of the separation fixing cylinder (211) at the position corresponding to the linkage snap-fit ​​block (210). A sliding insertion groove (213) is opened at one end of the linkage snap-fit ​​block (210) and the fixing box (212). A linkage electric push rod (214) is embedded in one end of the fixing box (212). A sliding insertion block (215) is snapped to one end of the output shaft of the linkage electric push rod (214). A support fixing rod (216) is rotatably connected to the inner side of the separation fixing cylinder (211) at the position corresponding to the linkage snap block (210). One end of the support fixing rod (216) is provided with a mounting linkage hole (217). A linkage gear (218) is sleeved and snapped into the inner side of the mounting linkage hole (217). A transmission gear (219) is installed at one end of the linkage snap block (210) at the position corresponding to the mounting linkage hole (217). A linkage striking plate (220) is symmetrically welded to the side end of the support fixing rod (216). A torsion spring (222) is welded to the top of the side end of the separation fixing cylinder (211), and a closing cover plate (223) is welded to one end of the torsion spring (222). A fixing electromagnet (224) is installed at the position of the closing cover plate (223) on the side end of the separation fixing cylinder (211).

3. The method for raising high-grade mutton using millet as feed according to claim 2, characterized in that, The side end of the collection and storage box (205) is connected to the slag discharge pipe (202). The sealing isolation plate (208) is rotatably installed on the side end of the fixed support cylinder (201). The maximum rotation angle of the sealing isolation plate (208) is 90 degrees. The input ends of the acceleration fan (203), linkage motor (207), transmission motor (209), linkage electric push rod (214) and fixed electromagnet (224) are all electrically connected to the output end of the external controller. The input end of the external controller is electrically connected to the output end of the external power supply.

4. The method for producing high-grade mutton from feed millet according to claim 3, characterized in that, The longitudinal section of the support mounting plate (204) and the sliding insertion block (215) is T-shaped. The transmission gear (219) is rotatably embedded in the inner side of the mounting linkage hole (217). The linkage gear (218) and the transmission gear (219) are meshed and connected. The side end of the cleaning scraper (221) is in contact with the inner end of the fixed support cylinder (201).

5. The method for raising high-grade mutton using millet as feed according to claim 1, characterized in that, A collection and washing assembly (3) is installed on one side of the fixed support frame (1), and the collection and washing assembly (3) includes a movable electric slide rail (301). One end of the fixed support frame (1) is connected to a movable electric slide rail (301). The top end of the movable electric slide rail (301) is connected to a collection fixed box (302) through a slide rail seat. The two ends of the collection fixed box (302) are symmetrically welded with support fixed frames (303). A cleaning heating cylinder (304) is welded between multiple support fixed frames (303). One end of the cleaning heating cylinder (304) is equipped with a fixed motor (305) through a motor seat. One end of the output shaft of the fixed motor (305) is connected to a cleaning treatment tank (306). The other end of the cleaning heating cylinder (304) is equipped with a treatment motor (307) through a motor seat. One end of the output shaft of the treatment motor (307) is connected to a linkage transmission rod (308). The side end of the linkage transmission rod (308) is equidistantly sleeved and connected with a treatment scraper (309). A limit spring (310) is welded to one end of the cleaning tank (306), and a limit cover plate (311) is welded to the other end of the limit spring (310). A limit electromagnet (312) is installed at one end of the cleaning tank (306) corresponding to the position of the limit cover plate (311). Several fixed support boxes (313) are welded at equal intervals on the side of the cleaning tank (306). An adsorption electromagnet (314) is embedded and snapped into the top of the inner side of the fixed support box (313). Several downward pressure springs (314) are welded at equal intervals on the side of the fixed support box (313). 6) A cleaning scraper (317) is welded to the bottom of multiple pressure springs (316). The cleaning heating cylinder (304) is symmetrically connected to the two ends of the electric slide rail (318). A closed moving plate (319) is installed between the two electric slide rails (318) through the slide rail seat. An exhaust fixing pipe (320) is equidistantly connected to the side end of the cleaning heating cylinder (304). A drain pipe (315) is connected to the bottom of one end of the cleaning heating cylinder (304). A high-pressure spray pipe (321) is connected to the side end of the cleaning heating cylinder (304).

6. A method for raising high-grade mutton using millet as feed according to claim 5, characterized in that, The cleaning tank (306) is rotatably installed inside the cleaning heating cylinder (304). The linkage transmission rod (308) and the processing scraper (309) are both rotatably installed inside the cleaning tank (306). The input ends of the movable electric slide rail (301), the fixed motor (305), the processing motor (307), the limit electromagnet (312), the adsorption electromagnet (314), and the mounting electric slide rail (318) are all electrically connected to the output end of the external controller.

7. A method for raising high-grade mutton using millet as feed according to claim 5, characterized in that, The longitudinal section of the cleaning scraper (317) is T-shaped. The cleaning scraper (317) is slidably installed inside the fixed support box (313). The side end of the closed moving plate (319) is slidably attached to the side end of the cleaning heating cylinder (304).

8. The method for raising high-grade mutton using millet as feed according to claim 1, characterized in that, A centralized processing component (4) is installed on one side of the fixed support frame (1), and the centralized processing component (4) includes a collection and processing box (401). A collection and processing box (401) is installed on the top of the side of the fixed support frame (1). Several auxiliary springs (402) are symmetrically welded at equal intervals on the bottom of the inner side of the collection and processing box (401). A drying box (403) is welded to the top of the auxiliary springs (402). A vibration motor (404) is installed in the middle of the bottom of the drying box (403) through a motor base. An isolation air intake net (405) is symmetrically embedded at both ends of the drying box (403). A perforated heating plate (406) is symmetrically snapped into both ends of the inner side of the collection and processing box (401). A guide fan (407) is symmetrically embedded at both ends of the collection and processing box (401). A discharge electric slide rail (407) is installed on the inner end of the drying box (403). 8) A discharge scraper (409) is connected between the two discharge electric slide rails (408) through a slide rail seat. A closing motor (410) is installed at one end of the collection and processing box (401) through a motor seat. A closing fixing plate (411) is snapped onto the output shaft of the closing motor (410). A snapping electromagnet (412) is snapped onto one end of the collection and processing box (401). A closing electric slide rail (413) is symmetrically snapped onto the top of the collection and processing box (401). A limiting cover plate (414) is connected to the top of the two closing electric slide rails (413) through a slide rail seat. A hammer electric push rod (415) is connected through the middle of the top of the limiting cover plate (414). An impact plate (416) is snapped onto the bottom end of the output shaft of the hammer electric push rod (415).

9. A method for producing high-grade mutton from feed millet according to claim 8, characterized in that, The discharge scraper (409) is slidably installed inside the drying box (403), the closing fixing plate (411) is rotatably installed on the collection box (401), the limiting cover (414) is slidably installed on the top of the collection box (401), and the input ends of the vibration motor (404), the perforated heating plate (406), the guide fan (407), the discharge electric slide rail (408), the closing motor (410), the snap-fit ​​electromagnet (412), the closing electric slide rail (413), and the hammer electric push rod (415) are electrically connected to the output end of the external controller.

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