Milk calf feed and microecological preparation mixed detection system

Abstract

The invention discloses a milk calf feed and microecological preparation mixed detection system, and relates to the technical field of feed detection, a plurality of fixed clamping hydraulic cylinders are clamped at the top end of the inner side of a whole separation cavity box at equal intervals, hollow side convex plates are mounted at the bottom ends of the fixed clamping hydraulic cylinders, and rotary repair motors are mounted at the top ends of the hollow side convex plates through motor bases; according to the device disclosed by the invention, through rapid and automatic fixed-point sampling after internal mixing, in cooperation with synchronous oscillation reaction treatment and rapid separation detection treatment, manual contact of a worker is not needed, the operation is simple, the operation is convenient, and the working efficiency is high. According to the method, the condition of sample pollution is avoided, and meanwhile, the real-time synchronous operation is utilized to realize on-site rapid detection and reduce the overall treatment time, so that the condition that bacteria die due to long-time waiting is effectively reduced, and the efficiency and the accuracy of actual use of the microbial preparation are improved.

Description

Technical Field

[0001] This invention relates to the field of feed testing technology, specifically to a detection system for the mixture of dairy calf feed and microecological preparations. Background Technology

[0002] Dairy calves typically refer to calves in the lactation period, that is, calves from birth to weaning. This stage is the fastest growing and developing period in a cow's life, but it is also the most critical and vulnerable period. The feeding and management of dairy calves are directly related to their future health, production performance and the economic benefits of the entire ranch. Microecological preparations are live microbial preparations made using normal microorganisms or substances that promote the growth of microorganisms.

[0003] The patent application number CN202323585686.9 mentions "a silage testing device". This patent has a simple structure, good storage and testing effect, greatly reduces labor costs, and is also easy to move.

[0004] Currently, when administering probiotics to dairy calves, it is necessary to understand the uniformity of the mixture ratio and the proportion of live bacteria. However, most of these operations involve on-site mixing and feeding, which means that sampling and testing are often affected by the operating environment. This often requires manual intervention by staff, which can easily lead to sample contamination. Furthermore, rapid on-site testing is not possible during processing, prolonging the overall processing time. The long waiting period can also cause the bacteria in the probiotics to die, affecting the actual effectiveness of the probiotics and hindering effective operation during rapid biomass lysis, thus impacting the growth of the herd. Summary of the Invention

[0005] This invention provides a detection system for the mixture of dairy calf feed and microecological preparations. It can effectively solve the problems mentioned in the background art, which currently require understanding the uniformity of the mixture ratio and the proportion of live bacteria when feeding dairy calves with microecological preparations. However, most of these operations are carried out on-site mixing and feeding, which leads to the need for manual intervention by staff during sampling and testing due to the influence of the operating environment. This can easily result in sample contamination by the environment and the inability to conduct rapid on-site testing, thus prolonging the overall processing time.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a detection system for mixing dairy calf feed and microecological preparations, comprising a compartmentalized chamber, wherein a multi-outlet collection tank is installed in the middle of the inner side of the compartmentalized chamber; The inner side of the partitioned chamber is equipped with a mixed testing and inspection component; The mixed testing and inspection component includes a fixed-card hydraulic cylinder; The inner top of the partitioned chamber is equidistantly connected to several fixed hydraulic cylinders, and the bottom of the fixed hydraulic cylinder is equipped with a hollow side protrusion plate. A rotary repair motor is mounted on the top of the hollow side convex plate via a motor base, and a rotary repair gear is mounted on the output shaft of the rotary repair motor. The bottom end of the hollow side convex plate is rotatably connected to a bottom threaded hole integrated gear, and several co-rotating double support blocks are welded at equal intervals to the bottom end of the bottom threaded hole integrated gear. The bottom end of the integrated gear with the bottom threaded hole is connected to a centralized feeding bucket via a threaded connection. A spring-loaded rod is installed at the top of the inner side of the centralized feeding hopper, and a locking bottom spike is engaged at the bottom end of the spring-loaded rod. A positioning guide post is installed on one end of the inner side of the centralized feeding hopper.

[0007] According to the above technical solution, a guide sliding rope is installed on one side of the top of the fitting bottom spike frame, and a counterweight traction block is installed at the bottom of the guide sliding rope; A locking electric push rod is installed on one end of the inner side of the same-rotation double support block, and a closing sealing cover is sleeved on one end of the locking electric push rod. The rotary gear meshes with the integrated gear with the bottom threaded hole, the fitting bottom spike frame is slidably placed inside the centralized feeding bucket, and the side end of the guide sliding rope is attached to the side end of the positioning guide column.

[0008] According to the above technical solution, an oscillating motor is mounted on the side end of the co-rotating double support block via a motor base, and a combined double convex ring is mounted on the output shaft of the oscillating motor. One end of the inner side of the combined double convex ring is embedded with a lifting electric slide rail, and one end of the lifting electric slide rail is equipped with a combined threaded ring through a slide rail seat. The combined threaded ring side end is connected to a vibrating mixing barrel by a thread, and a convex hollow plate is welded to the inner side of the vibrating mixing barrel. The bottom end of the convex hollow plate is symmetrically connected with a feeding inclined support pipe, and a liquid storage and fixing tank is installed at one end of the feeding inclined support pipe. An external vacuum tube is connected through one side of the bottom end of the convex hollow plate. One end of each of the external vacuum tubes is connected to a tap extraction tube via an adapter. A correction vacuum pump is installed at the top of the hollow side convex plate at the position corresponding to the tap extraction tube via a motor mount. The bottom end of the oscillating mixing tank is connected to a top hole guide pipe, and a sealing guide column is slidably connected to the inner side of the top hole guide pipe; The top of the sealing guide column is welded with a three-pronged filter rack.

[0009] According to the above technical solution, a limit extraction tube is connected through one side of the bottom end of the oscillating mixing tank, and a double-sealed isolation tube is connected through the bottom end of the limit extraction tube. The isolation double-sealed tube is slidably connected to a double-convex pressure frame on its side end, and a drip metering tube is connected through the top of the side end of the isolation double-sealed tube. One-way valves are embedded at one end of the extraction limit tube and the drip metering tube; The inner sides of the centralized feeding bucket, the convex hollow plate, and the feeding inclined support pipe are all equipped with pressure-resistant puncture membranes. The side end of the counterweight traction block is slidably connected to the outer end of the centralized feeding bucket, the combined double convex ring is rotatably installed on the side end of the same rotating double support block, and the lower convex hollow plate is slidably connected to the three-pronged filter rack.

[0010] According to the above technical solution, the side end of the mixing multi-outlet tank is equidistantly connected with several convex and sloping frames, and the inner side of the convex and sloping frames is slidably connected with a closely spaced fixed slide plate. A combined electromagnet is installed on the inner side of the upper convex and lower inclined frame and at one end of the closely spaced fixed slide plate; An optical microscope is installed at one end of the inner side of the partition box, and an automatic optical counting camera is installed on the inner side of the partition box corresponding to the position of the optical microscope. A repair electric slide rail is installed on one side of the bottom inner side of the partition box, and a repair reciprocating plate is installed on the top of the repair electric slide rail through the slide rail seat. The top of the repair reciprocating plate is equipped with a transverse electric slide rail, and a glass fixing plate is installed on the top of the transverse electric slide rail via a slide rail seat. One end of the feeding inclined support pipe is installed through the side of the vibrating mixing tank, one end of the tap extraction pipe is connected to one end of the correction vacuum pump through an adapter, and the double convex pressure frame is slidably installed inside the isolation double sealing pipe.

[0011] According to the above technical solution, the reciprocating plate and the glass fixing plate are both placed inside the partitioned chamber box, and the inner diameter of the top of the oscillating mixing tank is equal to the outer diameter of the bottom of the convex and inclined rack. The input ends of the fixed-position hydraulic cylinder, rotary repair motor, positioning electric push rod, oscillating motor, lifting electric slide rail, correction vacuum pump, combined electromagnet, optical microscope, optical automatic counting camera, positioning electric slide rail and transverse electric slide rail are all electrically connected to the output end of the external controller. The signal output terminals of both the optical microscope and the optical automatic counting camera are electrically connected to the input terminal of an external controller.

[0012] According to the above technical solution, a vertically connected assembly is provided on the side end of the partitioned chamber box; The vertically connected assembly includes a dual-chamber feeding box; The top of the partitioned box is fitted with a double-cavity feeding box, and the bottom of the double-cavity feeding box is connected with several feeding and control pipes at equal intervals. The bottom end of the dispensing and control pipe is connected to a high-ratio mixing tank. The top of the dual-cavity feeding box is equidistantly connected with an external feeding linkage pipe; A mixing motor is installed at the bottom center of the mixing multi-outlet tank via a motor base. A planetary mixing rack is installed on the inner side of the mixing multi-outlet tank corresponding to the output shaft of the mixing motor. Several multi-slot horizontal push racks are welded at equal intervals on the side end of the planetary mixing rack. The top of the inner side of the mixing multi-outlet tank is equipped with a multi-outlet belt drive box, and a long and short multi-groove frame is installed at the position of the mixing high ratio tank corresponding to the output shaft of the multi-outlet belt drive box. The side end of the long and short multi-slot frame is magnetically connected to an opening and closing electromagnet, and the side end of the opening and closing electromagnet is magnetically connected to a discharge fan-shaped plate.

[0013] According to the above technical solution, the bottom end of the mixing and discharging bucket is provided with an outward-feeding protrusion; A double-card feeding rack is installed at the top center of the multi-output belt drive box, corresponding to the position of the double-cavity feeding box. An electric slide rail is installed at one end of the inner side of the partition box, and an upper protrusion for entering and exiting is installed at the top of the electric slide rail via a slide rail seat. One end of the upper protrusion of the inlet and outlet is equipped with a take-up and discharge motor via a motor base. The output shaft of the take-up and discharge motor is equipped with a take-up and discharge lead screw. The side end of the take-up and discharge lead screw is equipped with a top protrusion electromagnetic tube via a lead screw seat. One end of the planetary mixing rack is engaged with the input shaft of the multi-belt drive box, and the long and short multi-groove rack is rotatably installed inside the high-ratio mixing tank.

[0014] According to the above technical solution, a pusher rod is installed at one end of the partition box, and a pusher operation block is installed at one end of the pusher rod. A glass feeding box is inserted and installed at the top of the partition box. A feeding rod is snapped into the inner side of the partition box at the position corresponding to the glass feeding box. A glass processing plate is installed at one end of the feeding rod. A waste collection and fixing box is installed at one end of the integrated compartment box, and movable operation wheels are installed at equal intervals at the bottom end of the integrated compartment box; A quantitative feeding box is inserted and installed at one end of the inner side of the compartmentalized box, and a quick-connect battery is embedded in the inner side of the compartmentalized box. The tap extraction pipe, the tap control pipe, the external tap linkage pipe, and the external tap lower convex bucket are all equidistantly embedded with a combined solenoid valve at one end. There are three mixing high ratio barrels. The bottom end of the discharge fan-shaped plate is rotated and fitted with the bottom end of the inner side of the mixing high ratio barrel. The top end of the top convex electromagnetic tube is fitted with the bottom end of the double convex pressure frame.

[0015] According to the above technical solution, the side end of the top-protruding electromagnetic tube is slidably connected to the side end of the upper protruding frame, and one end of the glass processing plate is sleeved and connected to one end of the glass feeding box. The input ends of the hybrid motor, opening and closing electromagnet, inlet and outlet electric slide rail, take-off and discharge machine, top protrusion solenoid tube, push plate electric push rod, discharge electric push rod and combined solenoid valve are all electrically connected to the output end of the external controller. The input terminal of the external controller is electrically connected to the output terminal of the quick-connect battery.

[0016] Compared with the prior art, the beneficial effects of the present invention are as follows: 1. Equipped with a mixed testing and inspection component, the position of the vibrating mixing tank is changed through a fixed-point hydraulic cylinder, a rotating gear, and a bottom threaded hole integrated gear. This, combined with multi-position fixed-point sampling, utilizes a vibrating motor and lifting electric slide rails to change the position of the vibrating mixing tank, connecting it to the upper convex and lower inclined frame, the centralized feeding tank, and the closed sealing cover. This enables continuous operation of sampling, feeding, microbial dissolution, and internal sealing. A counterweight traction block, guide sliding rope, spring-loaded pressure rod, and fitting bottom spike frame puncture the pressure-resistant puncture membrane. A corrected vacuum pump, tap extraction pipe, and external vacuum pipe change the internal air pressure of the vibrating mixing tank. Atmospheric pressure, a top hole guide pipe, a sealing guide column, and a three-pronged filtration frame puncture the pressure-resistant puncture membrane. Through multi-stage step-by-step puncture feeding, the solution is mixed with feed, and the dye is mixed with the solution. This allows samples to undergo different mixing reactions within the same component without manual intervention, avoiding contact between samples and the external environment, ensuring sample cleanliness, and improving the accuracy of sample data. A vibrating motor drives a combination of double-convex rings and a vibrating mixing tank to oscillate, ensuring thorough mixing of the solution, dye, and microbial preparation and initiating a fluorescence reaction. A positioning and transverse electric slide rail moves the glass slide and fixing plate. A pumping and dispensing machine, a pumping screw, a top-convex solenoid tube, a double-convex pressure frame, a double-sealing isolation tube, and a dropper tube are used for liquid extraction and droplet sampling. An optical microscope and an automatic optical counting camera are used to count the number of viable and dead bacteria using fluorescence counting, revealing the bacterial and viable bacterial ratios in the sample. This facilitates timely adjustments on-site. Through sampling and oscillation reaction, droplet sampling observation, data correction, and short-time fluorescence counting, the sampling and testing waiting time is reduced, minimizing microbial death caused by the oscillation process, and improving the speed and effectiveness of actual use and measurement. By combining multi-point sampling, lifting and positioning puncture, pneumatic puncture injection, shaking mixing, automatic liquid extraction and drip observation, automatic counting observation, and overall internal isolation treatment, this method effectively solves the problems of sample contamination and long testing times caused by sample contact with the external environment and manual intervention when feeding microecological preparations to dairy calves. Through rapid, automated, and targeted sampling after internal mixing, combined with synchronous shaking reaction treatment and rapid separation and detection, manual contact by staff is eliminated, avoiding sample contamination. Simultaneously, real-time synchronous operation enables rapid on-site testing, reducing overall processing time and effectively minimizing bacterial mortality due to prolonged waiting, thus improving the efficiency and accuracy of microbial preparation use.

[0017] 2. Equipped with a vertically connected distribution assembly, the system utilizes a hybrid motor, planetary mixer, multi-trough horizontal pusher, multi-outlet belt drive box, long and short multi-trough racks, and a double-card feeding rack to rotate synchronously. The double-card feeding rack pushes the feed and microecological preparations in the dual-chamber feeding box to be fed in, while the long and short multi-trough racks push the feed and microecological preparations to be stirred and mixed, achieving premixing of the feed and microecological preparations. In conjunction with the planetary mixer and multi-trough horizontal pusher, the feed is simultaneously fed into the high-ratio mixing tank and the fixed-point control pipe. The system utilizes top-level gradual dispersion and continuous stirring to achieve automated and uniform supply of feed and microecological preparations through the three-step operation of feeding, premixing, and total mixing, thereby improving the uniformity of the feed and microecological preparations mixture. The glass slides are fed through a glass slide feeding box, a feeding electric pusher, and a glass slide processing plate. Waste is discharged in conjunction with a slide pusher, a slide pushing operation block, and a waste collection and fixing box. The continuous glass slide replacement operation enables rapid replacement of the test glass slides, improving the testing speed. The in-and-out electric slide rail, the in-and-out upper protrusion frame, the discharge motor, the discharge screw, and the top protrusion solenoid work together to achieve sample extraction and processing through continuous in-and-out and position lifting operations. With the movement of the glass slide, the sample is accurately dripped onto the surface of the glass slide. The automatic operation eliminates the need for manual handling by personnel, ensuring the effectiveness of isolation and protection while maintaining the speed of testing and processing.

[0018] In summary, by combining the mixed testing and vertical arrangement components, and through a three-stage top-down feeding and mixing process, fixed-point sampling, multi-stage synchronous sampling, and solution oscillation separation, along with automatic liquid extraction, automatic slide replacement, and automatic sample dripping, rapid sample supply and observation / counting operations are achieved. This enables rapid and synchronous testing during calf feeding, improving testing efficiency, ensuring the close approximation of test data with actual microbial preparation data, and guaranteeing the actual efficiency and accuracy of microbial preparation use. Attached Figure Description

[0019] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof.

[0020] In the attached diagram: Figure 1 This is a three-dimensional structural schematic diagram of the present invention; Figure 2 This is a schematic diagram of the installation structure of the partitioned chamber box of the present invention; Figure 3 This is a schematic diagram of the structure of the mixed testing and detection component of the present invention; Figure 4 This is a schematic diagram of the installation structure of the repair electric slide rail of the present invention; Figure 5 This is a schematic diagram of the installation structure of the fixed-cab hydraulic cylinder of the present invention; Figure 6 This is a schematic diagram of the installation structure of the vibrating mixing tank of the present invention; Figure 7 This is a schematic diagram of the installation structure of the centralized feeding hopper of the present invention; Figure 8 This is a schematic diagram of the installation structure of the convex upper and inclined lower frame of the present invention; Figure 9 This is a schematic diagram of the structure of the vertically connected assembly component of the present invention; Figure 10 This is a schematic diagram of the installation structure of the discharge fan-shaped plate of the present invention; Figure 11 This is a schematic diagram of the installation structure of the glass substrate treatment plate of the present invention; The diagram is labeled: 1. Integrated compartmentalized box; 2. Mixing and discharging tank; 3. Mixed testing and inspection components; 301. Fixed clamping hydraulic cylinder; 302. Hollow side convex plate; 303. Rotary repair motor; 304. Rotary repair gear; 305. Bottom threaded hole integrated gear; 306. Simultaneous rotation double support block; 307. Centralized feeding bucket; 308. Spring downward pressure rod; 309. Fitting bottom spike frame; 310. Positioning guide column; 311. Guide sliding rope; 312. Counterweight traction block; 313. Clamping electric push rod; 314. Closing sealing cover; 315. Vibrating motor; 316. Combined double convex ring; 317. Lifting electric slide rail; 318. Combined threaded ring; 319. Vibrating mixing bucket; 320. Lower convex hollow plate; 321. Feeding inclined support tube; 32 2. Liquid storage clamping container; 323. External vacuum tube; 324. Tap-type extraction tube; 325. Correction vacuum pump; 326. Top hole guide tube; 327. Sealing guide column; 328. Three-pronged filtrate rack; 329. Extraction limit tube; 330. Isolation double-sealed tube; 331. Double-convex pressure rack; 332. Drop metering tube; 333. One-way valve; 334. Pressure-resistant puncture membrane; 335. Upper convex and lower inclined rack; 336. Sealing slide plate; 337. Combined electromagnet; 338. Optical microscope; 339. Optical automatic counting camera; 340. Repair electric slide rail; 341. Repair reciprocating plate; 342. Horizontal electric slide rail; 343. Glass holder fixing plate; 4. Vertical feeding assembly; 401. Dual-chamber feeding box; 402. Distributed feeding and control pipe; 403. Mixing and high-ratio tank; 404. External feeding linkage pipe; 405. Mixing motor; 406. Planetary mixer; 407. Multi-slot horizontal pusher; 408. Multi-outlet belt drive box; 409. Long and short multi-slot frame; 410. Opening and closing electromagnet; 411. Discharge sector plate; 412. External feeding lower convex hopper; 413. Double-card feeding rack; 414. 415. Electric slide rail for entry and exit; 416. Upper convex bracket for entry and exit; 417. Discharge / removal machine; 418. Discharge / removal lead screw; 419. Top convex solenoid tube; 420. Push plate electric push rod; 421. Push plate operating block; 422. Glass-carrying feeding box; 423. Discharge electric push rod; 424. Glass-carrying processing plate; 425. Waste collection fixing box; 426. Moving operating wheel; 427. Quantitative feeding box; 428. Quick-connect battery; 429. Combined solenoid valve. Detailed Implementation

[0021] 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.

[0022] Example: Figure 1-11 As shown, the present invention provides a technical solution, a detection system for mixing dairy calf feed and microecological preparations, including a compartmentalized chamber 1, and a multi-outlet collection tank 2 installed in the middle of the inner side of the compartmentalized chamber 1; The inner side of the compartmentalized chamber 1 is equipped with a mixed testing and inspection component 3; The mixed testing and inspection component 3 includes a fixed-clamp hydraulic cylinder 301, a hollow side convex plate 302, a rotary repair motor 303, a rotary repair gear 304, a bottom threaded hole integrated gear 305, a rotating double support block 306, a centralized feeding bucket 307, a spring-loaded pressure rod 308, a fitting bottom spike frame 309, a positioning guide post 310, a guide sliding rope 311, a counterweight traction block 312, a clamping electric push rod 313, a closing sealing cover 314, a vibrating motor 315, a combined double convex ring 316, a lifting electric slide rail 317, a combined threaded ring 318, a vibrating mixing bucket 319, a lower convex hollow plate 320, a feeding inclined support pipe 321, and a liquid storage container. 322, locking bucket; 323, external vacuum tube; 324, tap extraction tube; 325, correction vacuum pump; 326, top hole guide tube; 327, sealing guide column; 328, three-pronged filtrate rack; 329, extraction limit tube; 330, isolation double sealing tube; 331, double convex pressure frame; 332, drip metering tube; 333, one-way valve; 334, pressure-resistant puncture membrane; 335, upper convex and lower inclined rack; 336, airtight sliding plate; 337, combined electromagnet; 338, optical microscope; 339, optical automatic counting camera; 340, repair electric slide rail; 341, repair reciprocating plate; 342, transverse electric slide rail; and 343, glass mounting plate. Several fixed-clamp hydraulic cylinders 301 are equidistantly clamped to the top of the inner side of the partition box 1, and hollow side protrusions 302 are installed at the bottom of the fixed-clamp hydraulic cylinders 301. A rotary repair motor 303 is mounted on the top of the hollow side convex plate 302 via a motor base, and a rotary repair gear 304 is mounted on the output shaft of the rotary repair motor 303. The bottom end of the hollow side convex plate 302 is rotatably connected to the bottom threaded hole integrated gear 305. The rotating gear 304 meshes with the bottom threaded hole integrated gear 305 to ensure that the operation can be stable when the overall sampling and testing is performed. Several rotating double support blocks 306 are welded at equal intervals at the bottom end of the bottom threaded hole integrated gear 305. The bottom end of the integrated gear 305 with the bottom thread hole is connected to the centralized feeding bucket 307 by thread; A spring-loaded rod 308 is installed at the top of the inner side of the centralized feeding hopper 307, and a bottom-mounted spiked bracket 309 is engaged at the bottom end of the spring-loaded rod 308. A positioning guide post 310 is installed on one end of the inner side of the centralized feeding hopper 307; A guide sliding rope 311 is installed on one side of the top of the fitting bottom spike frame 309. The fitting bottom spike frame 309 is slidably placed inside the centralized feeding bucket 307. The side end of the guide sliding rope 311 is attached to the side end of the positioning guide post 310 to realize the lifting and piercing guidance of the fitting bottom spike frame 309. A counterweight traction block 312 is installed at the bottom end of the guide sliding rope 311. The side end of the counterweight traction block 312 is slidably connected to the outer end of the centralized feeding bucket 307 to realize counterweight traction and lifting and positioning processing. A locking electric push rod 313 is installed on one end of the inner side of the rotating double support block 306, and a closing sealing cover 314 is sleeved on one end of the locking electric push rod 313. A vibrating motor 315 is mounted on the side end of the co-rotating double support block 306 via a motor base. A combined double convex ring 316 is mounted on the output shaft of the vibrating motor 315. The combined double convex ring 316 is rotatably mounted on the side end of the co-rotating double support block 306 to achieve a mixed processing of rotational transposition and vibration. A lifting electric slide rail 317 is embedded in one end of the inner side of the combined double convex ring 316, and a combined threaded ring 318 is installed on one end of the lifting electric slide rail 317 through the slide rail seat. The side end of the combined threaded ring 318 is connected to the vibrating mixing tank 319 by thread. The inner diameter of the top of the vibrating mixing tank 319 is equal to the outer diameter of the bottom of the upper convex and lower inclined frame 335 to ensure the stability of the feeding combination. The inner side of the vibrating mixing tank 319 is welded with a lower convex hollow plate 320. The bottom end of the convex hollow plate 320 is symmetrically connected with a feeding inclined support pipe 321. One end of the feeding inclined support pipe 321 is installed through the side end of the vibrating mixing tank 319 to achieve steady liquid feeding and ensure the stability of the mixing test. One end of the feeding inclined support pipe 321 is installed with a liquid storage clamping tank 322. An external vacuum tube 323 is connected through one side of the bottom end of the convex hollow plate 320. One end of the multiple external vacuum tubes 323 is connected to a tap extraction tube 324 through an adapter. One end of the tap extraction tube 324 is connected to one end of the correction vacuum pump 325 through an adapter to achieve exhaust pressure control. The correction vacuum pump 325 is installed at the top of the hollow side convex plate 302 corresponding to the position of the tap extraction tube 324 through a motor mount. The bottom end of the oscillating mixing tank 319 is connected to a top hole guide pipe 326, and a sealing guide column 327 is slidably connected to the inside of the top hole guide pipe 326. The top of the sealing guide post 327 is welded with a three-pronged filter rack 328, and the convex hollow plate 320 is slidably connected to the three-pronged filter rack 328 to achieve puncture guidance; A limit extraction tube 329 is connected through one side of the bottom of the oscillating mixing tank 319, and a double-sealed isolation tube 330 is connected through the bottom of the limit extraction tube 329. A double-convex pressure frame 331 is slidably connected to the side end of the isolation double-sealed tube 330. The double-convex pressure frame 331 is slidably installed inside the isolation double-sealed tube 330 to realize sliding liquid extraction and liquid drainage. A drip metering tube 332 is connected through the top of the side end of the isolation double-sealed tube 330. One-way valves 333 are embedded at one end of the extraction limit tube 329 and the drip metering tube 332; The inner sides of the centralized feeding bucket 307, the convex hollow plate 320 and the feeding inclined support pipe 321 are all equipped with pressure-resistant puncture membranes 334; The two sides of the mixing tank are equidistantly connected by several convex and inclined frames 335, and the inner side of the convex and inclined frames 335 is slidably connected by a tight-separated fixed slide plate 336. A combined electromagnet 337 is installed on the inner side of the convex and inclined frame 335 and at one end of the closely spaced fixed slide plate 336. An optical microscope 338 is installed at one end of the inner side of the partition box 1, and an optical automatic counting camera 339 is installed at the position of the optical microscope 338 on the inner side of the partition box 1. A repair electric slide rail 340 is installed on one side of the bottom of the inner side of the partition box 1, and a repair reciprocating plate 341 is installed on the top of the repair electric slide rail 340 through the slide rail seat. The top of the reciprocating plate 341 is equipped with a transverse electric slide rail 342, and the top of the transverse electric slide rail 342 is equipped with a glass slide fixing plate 343 through a slide rail seat. The reciprocating plate 341 and the glass slide fixing plate 343 are both placed inside the partition box 1 to achieve the adjustment of the position of the glass slide. To ensure stable operation of the equipment, the input terminals of the fixed-position hydraulic cylinder 301, the rotary repair motor 303, the positioning electric push rod 313, the oscillation motor 315, the lifting electric slide rail 317, the correction vacuum pump 325, the combined electromagnet 337, the optical microscope 338, the optical automatic counting camera 339, the repair electric slide rail 340, and the transverse electric slide rail 342 are all electrically connected to the output terminal of the external controller. The signal output terminals of both the optical microscope 338 and the optical automatic counting camera 339 are electrically connected to the input terminal of an external controller.

[0023] A vertically connected assembly 4 is provided on the side end of the partition box 1; The vertical feeding assembly 4 includes a dual-chamber feeding box 401, a separate feeding and control pipe 402, a high-ratio mixing tank 403, an external feeding linkage pipe 404, a mixing motor 405, a planetary mixer 406, a multi-slot horizontal pusher 407, a multi-outlet belt drive box 408, a long and short multi-slot frame 409, an opening and closing electromagnet 410, a discharge fan-shaped plate 411, an external feeding lower convex bucket 412, a double-card feeding rack 413, an inlet and outlet electric slide rail 414, an inlet and outlet upper convex frame 415, a take-out and discharge machine 416, a take-out and discharge lead screw 417, a top convex solenoid tube 418, a pusher electric push rod 419, a pusher operating block 420, a glass feeding box 421, a discharge electric push rod 422, a glass processing plate 423, a waste collection and fixing box 424, a moving operating wheel 425, a quantitative feeding box 426, a quick-connect battery 427, and a combined solenoid valve 428. The top of the partitioned chamber box 1 is snapped with a double-chamber feeding box 401, and the bottom of the double-chamber feeding box 401 is equidistantly connected with several feeding and control pipes 402. The bottom of the dispensing and control pipe 402 is connected to the high-ratio mixing tank 403; The top of the dual-chamber feeding box 401 is equidistantly connected to an external feeding linkage pipe 404; A mixing motor 405 is installed at the bottom center of the mixing multi-outlet tank 2 via a motor base. A planetary mixer 406 is installed on the inner side of the mixing multi-outlet tank 2 corresponding to the output shaft of the mixing motor 405. Several multi-slot horizontal pushers 407 are welded at equal intervals on the side of the planetary mixer 406. A multi-outlet belt drive box 408 is installed on the top of the inner side of the mixing multi-outlet tank 2. A long and short multi-groove frame 409 is installed at the position of the output shaft of the multi-outlet belt drive box 408 corresponding to the position of the mixing high ratio tank 403. The long and short multi-slot frame 409 is magnetically connected to the side end of an opening and closing electromagnet 410. The side end of the opening and closing electromagnet 410 is magnetically connected to a discharge fan-shaped plate 411. One end of the planetary mixing frame 406 is engaged with the input shaft of the multi-outlet belt drive box 408. The long and short multi-slot frame 409 is rotatably installed inside the high-ratio mixing tank 403. There are three high-ratio mixing tanks 403. The bottom end of the discharge fan-shaped plate 411 is rotatably attached to the bottom end of the inner side of the high-ratio mixing tank 403 to achieve multi-segment combined transmission processing. The bottom of the mixing tank 2 has an external throwing convex hopper 412; A double-card feeding rack 413 is installed at the top center of the output shaft of the multi-belt drive box 408, corresponding to the position of the double-cavity feeding box 401. An electric slide rail 414 is installed at one end of the inner side of the partition box 1. An upper protrusion 415 is installed at the top of the electric slide rail 414 via a slide rail seat. One end of the upper protrusion 415 is equipped with a discharge / removal motor 416 via a motor base. The output shaft of the discharge / removal motor 416 is equipped with a discharge / removal lead screw 417. The side end of the discharge / removal lead screw 417 is equipped with a top protrusion solenoid 418 via a lead screw seat. The top end of the top protrusion solenoid 418 is fitted with the bottom end of the double protrusion pressure frame 331. The side end of the top protrusion solenoid 418 is slidably connected to the side end of the upper protrusion 415 to achieve a pull-out and press-fit connection. One end of the partition box 1 is equipped with a pusher rod 419, and the other end of the pusher rod 419 is equipped with a pusher operating block 420. A glass slide feeding box 421 is inserted and installed at the top of the partition box 1. A feeding electric push rod 422 is snapped into the inner side of the partition box 1 at the position corresponding to the glass slide feeding box 421. A glass slide processing plate 423 is installed at one end of the feeding electric push rod 422. One end of the glass slide processing plate 423 is fitted and connected to one end of the glass slide feeding box 421 to ensure the steady feeding operation of the glass slide. A waste collection and fixing box 424 is installed at one end of the partition box 1, and movable operating wheels 425 are installed at equal intervals at the bottom of the partition box 1. A quantitative feeding box 426 is inserted and installed at one end of the inner side of the compartmentalized box 1, and a quick-connect battery 427 is embedded and installed inside the compartmentalized box 1. A combined solenoid valve 428 is equidistantly embedded at one end of the branch extraction pipe 324, the branch injection control pipe 402, the external injection linkage pipe 404, and the external injection lower convex bucket 412. To ensure stable operation of the equipment, the input terminals of the hybrid motor 405, the opening and closing electromagnet 410, the inlet and outlet electric slide rail 414, the take-off and discharge machine 416, the top protrusion solenoid tube 418, the push plate electric push rod 419, the discharge electric push rod 422, and the combined solenoid valve 428 are all electrically connected to the output terminal of the external controller. The input terminal of the external controller is electrically connected to the output terminal of the quick-connect battery 427.

[0024] The working principle and usage process of this invention are as follows: When mixing and feeding microecological preparations and feed to dairy calves, the operator puts the required microecological preparation containing brewer's yeast and its culture, Bacillus subtilis, and lactic acid bacteria into the inner middle of the double-cavity feeding box 401 through the external feeding linkage pipe 404, and puts the required feed into the outer side of the double-cavity feeding box 401 through the external feeding linkage pipe 404 to complete the preparation of the mixed feed. After preparation, the equipment is powered by the quick-connect battery 427. At this time, the mixing motor 405 drives the planetary mixing rack 406 and the multi-slot horizontal pusher 407 in the mixing multi-outlet tank 2 to rotate. While the planetary mixing rack 406 is rotating, it drives the input shaft of the multi-outlet belt drive box 408. The rotation, driven by a belt, drives the output shaft of the multi-belt drive box 408 to rotate. The rotation of the output shaft of the multi-belt drive box 408 drives the long and short multi-groove frame 409 and the double-card feeding frame 413 to rotate synchronously. The rotation of the double-card feeding frame 413 pushes the feed and microecological preparation located in the double-cavity feeding box 401. In conjunction with the joint solenoid valve 428, the dispensing control pipe 402 is opened, and the feed and microecological preparation are added into the inner side of the mixing high ratio tank 403 in a 1:1 ratio. At the same time as feeding, the long and short multi-groove frame 409 pushes the feed and microecological preparation to stir and mix with each other, realizing the premixing treatment of feed and microecological preparation. At this time, all the microecological preparations to be used are mixed with an equal amount of feed to achieve overall pretreatment. After pretreatment, the discharge fan-shaped plate 411 is magnetically combined with the side end of the long and short multi-trough frame 409 by the opening and closing electromagnet 410. At this time, the bottom of the mixing high-ratio tank 403 is opened by the rotation of the long and short multi-trough frame 409. After opening, the opening and closing electromagnet 410 is closed. At this time, the long and short multi-trough frame 409 continues to stir and push the mixture of feed and microecological preparations into the inner side of the mixing multi-outlet tank 2. In conjunction with the feeding control pipe 402, feed is fed into the mixing multi-outlet tank 2 through the double-cavity feeding box 401. The feed and premixed feed and microecological preparations come into contact with each other and are fully mixed together under the stirring action of the planetary mixer 406 and the horizontal pushing and dispersing action of the multi-trough horizontal pusher 407. Through top isolation feeding, middle bin mixing and bottom centralized feeding and proportioning, the feed and microecological preparations are automatically and uniformly supplied by three-stage operation, and the uniformity of feed and microecological preparations mixing is improved, avoiding the occurrence of microecological preparation powder clumping or uneven distribution with feed, which would lead to uneven mixing. After mixing, the fixed-position hydraulic cylinder 301 drives the hollow side convex plate 302 to move up and down along the mixing multi-outlet tank 2, moving the vibrating mixing tank 319 to the sampling position of the upper convex and lower inclined frame 335. At this time, the vibrating motor 315 drives the combined double convex ring 316 to rotate, and the lifting electric slide rail 317 drives the combined threaded ring 318 to move along the combined double convex ring 316, so that the top of the vibrating mixing tank 319 fits with the upper convex and lower inclined frame 335. The two combined electromagnets then engage the top of the vibrating mixing tank 319. 337 Opposite poles attract each other, pulling the sealed sliding plate 336 along the upper convex and lower inclined frame 335 to open the upper convex and lower inclined frame 335. The planetary mixing frame 406 inside the frame pushes the mixture of feed and microecological preparation along the upper convex and lower inclined frame 335 into the inner side of the vibrating mixing tank 319. After feeding is completed, the two combined electromagnets 337 repel each other again, pushing the sealed sliding plate 336 to seal and isolate the upper convex and lower inclined frame 335, realizing the material handling. After material collection is completed, the lifting electric slide rail 317 drives the combined threaded ring 318 to move along the combined double convex ring 316, separating the vibrating mixing tank 319 from the upper convex and lower inclined frame 335. The vibrating motor 315 drives the combined double convex ring 316 and the vibrating mixing tank 319 to rotate and reset, moving the vibrating mixing tank 319 to the bottom of the centralized feeding tank 307. At this time, the lifting electric slide rail 317 again drives the combined threaded ring 318 and the vibrating mixing tank 319 to rise, so that the vibrating mixing tank 319 and the centralized feeding tank 307 are fitted together. During the sliding fitting process, the vibrating mixing tank 319 pushes the counterweight traction block 312 to move along the centralized feeding tank 307. During the rise of the counterweight traction block 312, the guide sliding rope 311 is released along the positioning guide post 310. At this time, the spring pressing rod 308 drives the fitting bottom spike. The frame 309 moves down along the centralized feeding tank 307. After the vibrating mixing tank 319 and the centralized feeding tank 307 are fully fitted together, the fitted bottom spike frame 309 penetrates the pressure-resistant puncture membrane 334, opening the centralized feeding tank 307. At this time, the solution of the microecological preparation flows into the inner side of the vibrating mixing tank 319 along the centralized feeding tank 307. After the liquid is added, the vibrating mixing tank 319 is reset by the lifting electric slide rail 317. The locking electric push rod 313 moves the closing sealing cover 314 to the top of the vibrating mixing tank 319. At this time, the vibrating mixing tank 319 is raised again by the lifting electric slide rail 317, so that the vibrating mixing tank 319 and the closing sealing cover 314 are fitted together, achieving the sealing treatment of the vibrating mixing tank 319. At this time, the locking electric push rod 313 is reset, and the lifting electric slide rail 317 drives the vibrating mixing tank 319 to reset. After the shaking mixing tank 319 is reset, the shaking motor 315 drives the combined double convex ring 316 and the shaking mixing tank 319 to swing back and forth, achieving full contact between the solution and the mixture, ensuring the complete dissolution of the microecological preparation. During the addition of the solution and shaking, the rotary motor 303 drives the rotary gear 304 to rotate, which in turn drives the bottom threaded hole integrated gear 305 to mesh and rotate. This, in conjunction with the fixed-clamp hydraulic cylinder 301, moves the hollow side convex plate 302 and the bottom threaded hole integrated gear 305 downward, changing the sampling position of the shaking mixing tank 319 and enabling simultaneous sampling at different positions. After dissolution is complete, the air between the bottom of the shaking mixing tank 319 and the lower convex hollow plate 320 is extracted through the correction vacuum pump 325, the tap extraction pipe 324, the external vacuum pipe 323, and the combined solenoid valve 428. At this time, the internal air pressure of the shaking mixing tank 319 decreases, while the external air pressure remains unchanged. Atmospheric pressure pushes the sealing guide column 327 towards the inside of the vibrating mixing tank 319 along the top guide pipe 326. The sealing guide column 327 drives the three-pronged filter rack 328 to move along the lower convex hollow plate 320. During the continuous extraction process, the three-pronged filter rack 328 moves gradually and eventually punctures the pressure-resistant puncture membrane 334 located at the position of the lower convex hollow plate 320 and the feeding inclined support pipe 321. When the three-pronged filter rack 328 is fully inserted into the top of the inside of the vibrating mixing tank 319 and comes into contact with the mixed liquid, the external vacuum pipe 323 is closed. At this time, because the pressure at the top of the vibrating mixing tank 319 is greater than that at the bottom, the mixed liquid is pushed along the three-pronged filter rack 328 into the bottom of the vibrating mixing tank 319. The dye liquid located in the liquid storage and fixing tank 322 enters the inside of the vibrating mixing tank 319 along the liquid storage and fixing tank 322 and the feeding inclined support pipe 321. At this time, the microecological preparation mixed liquid and the dye liquid are mixed. After the input is completed, the combination double convex ring 316 and the oscillating mixing tank 319 are oscillated and vibrated again by the oscillating motor 315, so that the dye and microbial preparation are fully mixed and fluorescent reaction occurs. During the sampling and mixing process, the staff inserts the glass slide feeding box 421 containing the glass slide into the inner side of the partition chamber 1. The trimming electric slide rail 340 drives the trimming reciprocating plate 341 and the glass slide fixing plate 343 to move to the position of the glass slide feeding box 421. The discharge electric push rod 422 drives the glass slide processing plate 423 to move, pushing the glass slide along the glass slide feeding box 421 to the top of the glass slide fixing plate 343. After the glass slide is placed, the trimming electric slide rail 340 drives the trimming reciprocating plate 341, the glass slide fixing plate 343 and the glass slide to the drip position to realize the glass slide feeding process. The fixed-cylinder hydraulic cylinder 301 drives the hollow side convex plate 302 to move downward, moving the drip metering tube 332 located at the bottom of the vibrating mixing tank 319 to the dripping position. At this time, the inlet and outlet electric slide rail 414 drives the inlet and outlet upper convex frame 415 to move, aligning the top convex solenoid tube 418 with the double convex pressure frame 331. The take-off and release motor 416 drives the take-off and release screw 417 to rotate, which drives the top convex solenoid tube 418 to rise and finally engage with the double convex pressure frame 331. The top convex solenoid tube 418 and the double convex pressure frame 331 are magnetically attracted together by electromagnetism. After the combination is completed, the take-off and release screw 417 drives the top convex solenoid tube 418 to reset, pulling the double convex pressure frame 331. The frame 331 moves down, and the mixture in the shaking mixing tank 319 is drawn through the extraction limit tube 329 and injected into the inner side of the isolation double sealing tube 330. At this time, under the action of the one-way valve 333, the drip metering tube 332 cannot be air-intaken. After the liquid in the isolation double sealing tube 330 is extracted, the lifting screw 417 drives the top convex solenoid tube 418 to rise again, pushing the double convex pressure frame 331 to rise. The mixture drips onto the glass slide along the isolation double sealing tube 330 and the drip metering tube 332. At this time, under the one-way restriction of the one-way valve 333, the liquid cannot return to the inner side of the shaking mixing tank 319 through the extraction limit tube 329, thus realizing liquid drip sampling. After sampling, the slide is moved to the position of the optical microscope 338 by the trimming electric slide rail 340, which drives the trimming reciprocating plate 341 and the slide fixing plate 343. The slide fixing plate 343 is moved back and forth by the trimming electric slide rail 340 and the transverse electric slide rail 342 to adjust the observation position. The live bacteria and dead bacteria are separated into green fluorescent labels and red fluorescent labels by direct fluorescence counting method. The optical automatic counting camera 339 counts them simultaneously to understand the bacterial count ratio and live bacteria ratio in the sample. This allows the staff to quickly understand the uniformity of the microecological preparation mixture and the amount of live bacteria in the formula, which is convenient for timely adjustment. In addition, the accuracy of sampling and detection is improved by processing multiple samples. At the same time, no manual operation is required and there is no contact with the external environment, which reduces the impact of human operation and external environment on the actual results and improves the accuracy of detection. After the test is completed, the slide is moved to the position of the slide pusher block 420 by the positioning electric slide rail 340. The slide pusher block 420 is then pushed by the slide pusher rod 419 to push the slide located on top of the slide fixing plate 343 into the inside of the waste collection fixing box 424. The process of placing the slide and dripping test is repeated to test the second set of samples. When the test is qualified, the staff pushes the compartment box 1 to the calf breeding position under the action of the moving operation wheel 425. The quantitative feeding box 426 is inserted into the position of the outer feeding hopper 412 inside the compartment box 1. At this time, the outer feeding hopper 412 is opened by the combined solenoid valve 428. With the help of the planetary mixer 406, the mixture is pushed into the quantitative feeding box 426 along the outer feeding hopper 412, so that the staff can feed the calves independently according to the breeding quantity.

[0025] 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 detection system for mixing dairy calf feed and microecological preparations, comprising a compartmentalized chamber (1), characterized in that: The inner middle of the compartmentalized box (1) is equipped with a mixing and discharging tank (2); The inner side of the partitioned chamber box (1) is provided with a mixed testing and inspection component (3); The mixed testing and inspection component (3) includes a fixed-card hydraulic cylinder (301); The inner top of the partition box (1) is equidistantly connected to several fixed hydraulic cylinders (301), and the bottom of the fixed hydraulic cylinders (301) is equipped with hollow side convex plates (302). A rotary repair motor (303) is mounted on the top of the hollow side convex plate (302) via a motor base, and a rotary repair gear (304) is mounted on the output shaft of the rotary repair motor (303). The bottom end of the hollow side convex plate (302) is rotatably connected to a bottom threaded hole integrated gear (305), and a number of co-rotating double support blocks (306) are welded at equal intervals to the bottom end of the bottom threaded hole integrated gear (305). The bottom end of the integrated gear (305) with the bottom thread hole is connected to the centralized feeding bucket (307) by thread. A spring-loaded rod (308) is installed at the top of the inner side of the centralized feeding hopper (307), and a locking bottom spike bracket (309) is engaged at the bottom of the spring-loaded rod (308). A positioning guide post (310) is installed on one end of the inner side of the centralized feeding hopper (307).

2. The detection system for mixing dairy calf feed and microecological preparations according to claim 1, characterized in that, A guide sliding rope (311) is installed on one side of the top of the fitting bottom spike frame (309), and a counterweight traction block (312) is installed at the bottom of the guide sliding rope (311). A locking electric push rod (313) is installed on one end of the inner side of the same rotation double support block (306), and a closing sealing cover (314) is sleeved on one end of the locking electric push rod (313). The rotary gear (304) meshes with the bottom threaded hole integrated gear (305), the fitting bottom spike frame (309) is slidably placed inside the centralized feeding bucket (307), and the side end of the guide sliding rope (311) is attached to the side end of the positioning guide column (310).

3. The detection system for mixing dairy calf feed and microecological preparations according to claim 1, characterized in that, The side end of the co-rotating double support block (306) is equipped with an oscillating motor (315) via a motor base, and the output shaft of the oscillating motor (315) is equipped with a combined double convex ring (316). The inner end of the combined double convex ring (316) is embedded with a lifting electric slide rail (317), and a combined threaded ring (318) is installed at one end of the lifting electric slide rail (317) through a slide rail seat. The combined threaded ring (318) is connected to a vibrating mixing barrel (319) by a thread on its side end, and a convex hollow plate (320) is welded to the inner side of the vibrating mixing barrel (319). The bottom end of the convex hollow plate (320) is symmetrically connected with a feeding inclined support pipe (321), and a liquid storage clamping tank (322) is installed at one end of the feeding inclined support pipe (321). An external vacuum tube (323) is connected through one side of the bottom end of the lower convex hollow plate (320). One end of the multiple external vacuum tubes (323) is connected to a tap extraction tube (324) through an adapter. A correction vacuum pump (325) is installed at the top of the hollow side convex plate (302) at the position corresponding to the tap extraction tube (324) through a motor mount. The bottom end of the oscillating mixing tank (319) is connected to a top hole guide pipe (326), and a sealing guide column (327) is slidably connected to the inside of the top hole guide pipe (326). The top of the sealing guide post (327) is welded with a three-pronged filter rack (328).

4. The detection system for mixing dairy calf feed and microecological preparations according to claim 3, characterized in that, The bottom of the oscillating mixing tank (319) is connected to a limit tube (329), and the bottom of the limit tube (329) is connected to an isolation double-sealing tube (330). The isolation double-sealed tube (330) is slidably connected to a double-convex pressure frame (331) at one side end, and a drip metering tube (332) is connected through the top of the side end of the isolation double-sealed tube (330). One end of the extraction limit tube (329) and the drip metering tube (332) is fitted with a one-way valve (333). The inner sides of the centralized feeding bucket (307), the convex hollow plate (320), and the feeding inclined support pipe (321) are all equipped with pressure-resistant puncture membranes (334). The side end of the counterweight traction block (312) is slidably connected to the outer end of the centralized feeding bucket (307), the combined double convex ring (316) is rotatably installed on the side end of the same rotation double support block (306), and the lower convex hollow plate (320) is slidably connected to the three-pronged filter rack (328).

5. The detection system for mixing dairy calf feed and microecological preparations according to claim 4, characterized in that, The side end of the mixing multi-outlet tank (3) is equidistantly connected with several convex and inclined racks (335), and the inner side of the convex and inclined racks (335) is slidably connected with a closely spaced fixed plate (336). A combined electromagnet (337) is installed on the inner side of the upper convex and lower inclined frame (335) and at one end of the close-separated fixed slide plate (336). An optical microscope (338) is installed at one end of the inner side of the partition box (1), and an optical automatic counting camera (339) is installed on the inner side of the partition box (1) at the position corresponding to the optical microscope (338). The inner bottom side of the partition box (1) is equipped with a repair electric slide rail (340), and the top of the repair electric slide rail (340) is equipped with a repair reciprocating plate (341) through the slide rail seat. The top of the repair reciprocating plate (341) is equipped with a transverse electric slide rail (342), and the top of the transverse electric slide rail (342) is equipped with a glass fixing plate (343) through a slide rail seat. One end of the feeding inclined support pipe (321) is installed through the side of the vibrating mixing tank (319), one end of the tap extraction pipe (324) is connected to one end of the correction vacuum pump (325) through an adapter, and the double convex pressure frame (331) is slidably installed inside the isolation double sealing pipe (330).

6. The detection system for mixing dairy calf feed and microecological preparations according to claim 5, characterized in that, The repair reciprocating plate (341) and the glass fixing plate (343) are both placed inside the partition box (1), and the inner diameter of the top of the vibration mixing tank (319) is equal to the outer diameter of the bottom of the convex and inclined rack (335); The input ends of the fixed-position hydraulic cylinder (301), the rotary repair motor (303), the positioning electric push rod (313), the oscillation motor (315), the lifting electric slide rail (317), the correction vacuum pump (325), the combined electromagnet (337), the optical microscope (338), the optical automatic counting camera (339), the repair electric slide rail (340), and the transverse electric slide rail (342) are all electrically connected to the output end of the external controller; The signal output terminals of the optical microscope (338) and the optical automatic counting camera (339) are both electrically connected to the input terminal of the external controller.

7. The detection system for mixing dairy calf feed and microecological preparations according to claim 6, characterized in that, The side end of the partition box (1) is provided with a vertically connected assembly (4). The vertically connected feeding assembly (4) includes a dual-chamber feeding box (401). The top of the partition box (1) is fitted with a double-cavity feeding box (401), and the bottom of the double-cavity feeding box (401) is connected with several feeding control pipes (402) at equal intervals. The bottom end of the dispensing and control pipe (402) is connected to a high-ratio mixing tank (403). The top of the dual-cavity feeding box (401) is equidistantly connected to an external feeding linkage pipe (404). A mixing motor (405) is installed at the bottom center of the mixing multi-outlet tank (3) via a motor base. A planetary stirring rack (406) is installed on the inner side of the mixing multi-outlet tank (3) corresponding to the output shaft of the mixing motor (405). Several multi-slot horizontal push racks (407) are welded at equal intervals on the side end of the planetary stirring rack (406). The top of the inner side of the mixing multi-outlet tank (3) is equipped with a multi-outlet belt drive box (408), and a long and short multi-groove frame (409) is installed at the position of the output shaft of the multi-outlet belt drive box (408) corresponding to the position of the mixing high ratio tank (403). The long and short multi-slot rack (409) is magnetically connected to an opening and closing electromagnet (410) on its side end, and the opening and closing electromagnet (410) is magnetically connected to a discharge fan-shaped plate (411) on its side end.

8. The detection system for mixing dairy calf feed and microecological preparations according to claim 7, characterized in that, The bottom of the mixing and discharging bucket (3) is perforated by an external feeding hopper (412). A double-card feeding rack (413) is installed at the top center of the output shaft of the multi-output belt drive box (408) corresponding to the position of the double-cavity feeding box (401). An electric slide rail (414) is installed at one end of the inner side of the partition box (1), and an upper protrusion (415) is installed at the top of the electric slide rail (414) through the slide rail seat. One end of the upper protrusion (415) is equipped with a take-off and discharge machine (416) via a motor seat. The output shaft of the take-off and discharge machine (416) is equipped with a take-off and discharge screw (417). The side end of the take-off and discharge screw (417) is equipped with a top protrusion solenoid (418) via a screw seat. One end of the planetary mixing rack (406) is engaged with the input shaft of the multi-belt drive box (408), and the long and short multi-groove rack (409) is rotatably installed inside the high-ratio mixing tank (403).

9. The detection system for mixing dairy calf feed and microecological preparations according to claim 8, characterized in that, One end of the partition box (1) is equipped with a pusher rod (419), and one end of the pusher rod (419) is equipped with a pusher operation block (420). A glass feeding box (421) is inserted and installed at the top of the partition box (1). A feeding electric push rod (422) is snapped into the inner side of the partition box (1) at the position corresponding to the glass feeding box (421). A glass processing plate (423) is installed at one end of the feeding electric push rod (422). One end of the partition box (1) is equipped with a waste collection and fixing box (424), and the bottom end of the partition box (1) is equipped with movable operation wheels (425) at equal intervals. A quantitative feeding box (426) is inserted and installed at one end of the inner side of the compartmentalized box (1), and a quick-connect battery (427) is embedded and installed inside the compartmentalized box (1). A combined solenoid valve (428) is equidistantly embedded at one end of the tap extraction pipe (324), the tap control pipe (402), the external tap linkage pipe (404), and the external tap lower convex bucket (412). There are three mixing high ratio barrels (403). The bottom end of the discharge fan-shaped plate (411) is rotated and attached to the bottom end of the inner side of the mixing high ratio barrel (403). The top end of the top convex electromagnetic tube (418) is fitted with the bottom end of the double convex pressure frame (331).

10. The detection system for mixing dairy calf feed and microecological preparations according to claim 9, characterized in that, The side end of the top protruding electromagnetic tube (418) is slidably connected to the side end of the upper protruding frame (415), and one end of the glass processing plate (423) is fitted and connected to one end of the glass feeding box (421). The input ends of the hybrid motor (405), the opening and closing electromagnet (410), the inlet and outlet electric slide rail (414), the take-off and discharge machine (416), the top protrusion solenoid tube (418), the push plate electric push rod (419), the discharge electric push rod (422), and the combined solenoid valve (428) are all electrically connected to the output end of the external controller. The input terminal of the external controller is electrically connected to the output terminal of the quick-connect battery (427).

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