Health monitoring comprehensive management system for chicken breeding

Abstract

The invention discloses a health monitoring comprehensive management system for bred chickens, and particularly relates to the technical field of health management of the bred chickens. A health monitoring comprehensive management system for bred chickens comprises a chicken coop, a monitoring device, a track structure and a computer, the track structure is arranged in a winding mode along the chicken coop, the chicken coop is of a multi-layer structure, a belt conveyor assembly is arranged below each layer, chicken manure on each layer of the chicken coop directly falls on the belt conveyor assemblies, and the monitoring device is connected with the computer. The monitoring device walks on the track structure, and the monitoring device comprises a temperature and humidity sensor, an air quality sensor, a thermal imaging camera module, a camera module, an excrement analysis module and a central processing unit. According to the health monitoring comprehensive management system for the bred chickens, comprehensive and real-time monitoring and management of poultry health conditions are achieved, the breeding efficiency is improved, the disease occurrence rate is reduced, and the breeding environment quality is optimized.

Description

Technical Field

[0001] The present invention relates to the technical field of healthy management of breeding chickens, and particularly to a comprehensive management system for health monitoring of breeding chickens. Background Art

[0002] In modern poultry farming, the health management of chickens is one of the key factors for improving production efficiency and ensuring food safety. Traditional methods for monitoring chicken health mainly rely on manual observation and regular inspections. This method is not only time-consuming and laborious, but also difficult to achieve precise management and disease prevention due to untimely data collection and strong subjectivity.

[0003] With the development of the Internet of Things and sensing technologies, automated health monitoring systems have gradually become a research hotspot in poultry farming management. These systems can collect key data in the breeding environment in real time by integrating functions such as environmental monitoring, behavior analysis, and body temperature measurement, and predict the health status of the chicken flock through data analysis.

[0004] Existing health monitoring systems mostly focus on a single biological indicator or environmental parameter, such as only monitoring temperature, humidity or being limited to behavior pattern recognition, etc. This single-dimensional monitoring often cannot comprehensively reflect the overall health status of chickens. Therefore, a comprehensive, automated, multi-parameter monitoring chicken health monitoring and management system has become an urgent need in the industry. Summary of the Invention

[0005] In view of the above situation, to overcome the defects of the prior art, the present invention provides a comprehensive management system for health monitoring of breeding chickens to achieve all-round and real-time monitoring and management of the health status of poultry, improve breeding efficiency, reduce the incidence of diseases, and optimize the quality of the breeding environment.

[0006] To achieve the above object, the technical solution adopted by the present invention is as follows:

[0007] Integrated management system for health monitoring of farmed chickens, comprising: chicken coops, monitoring devices, track structures and computers. The track structures are arranged in a meandering manner along the chicken coops. The chicken coops are of a multi-layer structure, and a belt conveyor assembly is provided below each layer. The feces of the chickens on each layer of the chicken coop directly fall on the belt conveyor assembly. The monitoring devices travel on the track structures. The monitoring devices include temperature and humidity sensors, air quality sensors, thermal imaging camera modules, camera modules, feces analysis modules and central processing units. The temperature and humidity sensors monitor the temperature and humidity in the chicken coop environment. After being processed by the built-in single-chip microcomputer, digital signals are output and transmitted to the central processing unit. The central processing unit processes the signals and transmits the analysis results to the computer. The air quality sensors detect the air quality in the environment near the chicken coops. The air quality sensor modules use high-precision detection technologies to monitor the pollutants in the air in real time and convert the detection results into electrical signals or digital outputs. These data are transmitted to the central processing unit through standard digital communication protocols. The central processing unit further analyzes and transmits the analysis results to the computer. The thermal imaging camera modules monitor the health status of chickens through temperature distribution. The thermal imaging camera modules obtain the temperature distribution information of objects by detecting the infrared radiation emitted by the surfaces of objects. Inside the modules, the received infrared radiation is converted into electrical signals and processed into visible temperature distribution images through algorithms to help the monitoring personnel identify the health status of chickens. The camera modules monitor the behaviors of chickens, identify abnormal behaviors and observe the feces conditions. The camera modules capture the video images in the chicken coops to monitor the behavior patterns of chickens in real time. The video data are transmitted to the central processing unit, and through image recognition technologies, it is analyzed whether the behaviors of chickens are normal. The captured feces information is analyzed by the feces analysis modules. The feces analysis modules evaluate the health status and nutrient absorption conditions of chickens by analyzing the characteristics such as the color and texture of the feces, monitor and analyze the chicken feces in real time, and convert the physical and chemical properties of the feces into digital signals, which are analyzed by the central processing unit to evaluate the health status of chickens. Finally, the central processing unit sends the analysis results to the computer.

[0008] Preferably, the monitoring devices further include traveling assemblies, and the traveling assemblies are adapted to the track structures. The track structures include double-step-shaped grooves opened on the ground, and fixing plates are installed on the tops of the double-step-shaped grooves. The traveling assemblies include T-shaped blocks, and the T-shaped blocks are located inside the double-step-shaped grooves. A plurality of driving motors are installed inside the double-step-shaped grooves, and traveling wheels are installed on the output shafts of the driving motors. The traveling wheels travel on the steps of the double-step-shaped grooves. The tops of the T-shaped blocks are higher than the tops of the fixing plates, and there is a distance between the bottoms of the T-shaped blocks and the bottoms of the double-step-shaped grooves.

[0009] Preferably, the monitoring device further includes a disinfection component which sprays a disinfectant onto the chicken coop to disinfect the chicken coop and the chickens. The disinfection component includes a mixing tank, the bottom of the mixing tank is fixedly connected to the top of the T-shaped block, a vertical column is fixedly installed on the top of the mixing tank, the temperature and humidity sensor, the air quality sensor, the thermal imaging camera module and the camera module are all installed on the vertical column, a water pump is installed on one side of the mixing tank, a receiving cavity is formed inside the vertical column, a plurality of rotating pipes are rotatably installed on the vertical column, the rotating pipes communicate with the receiving cavity, spray pipes are fixedly installed at one ends of the rotating pipes away from the receiving cavity, the rotating pipes communicate with the spray pipes, and a nozzle is arranged at one end of the spray pipe.

[0010] Preferably, a rack is arranged on one side of the vertical column, an electric push rod is fixedly installed on the top of the rack, the electric push rod is fixed to the vertical column, gears are fixedly installed on the rotating pipes, and the gears are engaged with the rack.

[0011] Preferably, a limiting hole is formed in the rack, a plurality of T-shaped limiting blocks are fixedly installed on one side of the vertical column, and the T-shaped limiting blocks penetrate through the limiting hole.

[0012] Preferably, a liquid inlet is arranged on the top of the mixing tank, a valve is installed on the liquid inlet, a measuring cylinder is installed on the valve, the measuring cylinder is used for accurately measuring the dosage of the added medicine, an observation window is arranged on one side of the mixing tank, the observation window is made of transparent glass and is provided with scales.

[0013] Preferably, an electric control box is arranged on one side of the mixing tank, a storage battery is arranged inside the electric control box, and the feces analysis module and the central processing unit are both arranged in the electric control box.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] (1) The present invention can monitor and analyze multiple key indicators in real time, such as environmental temperature and humidity, air quality, chicken behavior, body temperature, and feces conditions, and can conduct in-depth analysis and processing through the central processing system. It not only improves the timeliness and accuracy of data, but also can automatically judge the health status through intelligent algorithms and give early warnings in a timely manner, significantly improving the breeding efficiency and animal welfare, realizing all-round and real-time monitoring and management of the health status of poultry, improving the breeding efficiency, reducing the incidence of diseases, and optimizing the quality of the breeding environment;

[0016] (2) The disinfection component of the present invention realizes the disinfection inside the chicken house to ensure the health of the chickens during daily growth;

[0017] (3) Through the cooperation of the rack and the gear, the spraying pipe of the present invention can be in a horizontal or vertical state. When the spraying pipe is in the horizontal state, the disinfectant can be directly sprayed onto the chicken coop, achieving a better disinfection effect on the chicken coop. Or, when the spraying pipe is in the vertical state, the entire device can be made more compact, reducing the space occupation.

[0018] (4) The arrangement of the measuring cylinder and the observation window in the present invention facilitates personnel to accurately configure a disinfectant with an appropriate concentration. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 is a schematic block diagram of the comprehensive management system for the health monitoring of breeding chickens provided by the present invention;

[0020] Figure 2 is a schematic layout diagram of the chicken coop and the track structure in the comprehensive management system for the health monitoring of breeding chickens provided by the present invention;

[0021] Figure 3 is a schematic structural diagram of the chicken coop in the comprehensive management system for the health monitoring of breeding chickens provided by the present invention;

[0022] Figure 4 is a partial schematic structural diagram of the monitoring device in the comprehensive management system for the health monitoring of breeding chickens provided by the present invention;

[0023] Figure 5 is Figure 4 an enlarged view of part A in

[0024] Figure 6 is a partial schematic structural diagram of the monitoring device in the comprehensive management system for the health monitoring of breeding chickens provided by the present invention;

[0025] Figure 7 is a partial schematic structural diagram of the monitoring device in the comprehensive management system for the health monitoring of breeding chickens provided by the present invention;

[0026] Figure 8 is Figure 7 an enlarged view of part B in

[0027] Figure 9 is a schematic structural diagram of the walking component and the track structure in the monitoring device.

[0028] Among them, the names corresponding to the reference numerals are: 1 - chicken coop, 2 - belt conveyor assembly, 3 - mixing tank, 4 - column, 5 - thermal imaging camera module, 6 - camera module, 7 - electric control box, 8 - double stepped groove, 9 - T-shaped block, 10 - driving motor, 11 - walking wheel, 12 - fixing plate, 13 - measuring cylinder, 14 - water pump, 15 - accommodating cavity, 16 - rotating pipe, 17 - spraying pipe, 18 - observation window, 19 - rack, 20 - electric push rod, 21 - gear, 22 - limiting hole, 23 - T-shaped limiting block. Detailed implementation manners

[0029] The present invention will be further described below in conjunction with the accompanying drawings and embodiments. The implementation manners of the present invention include but are not limited to the following embodiments.

[0030] Embodiment 1

[0031] As Figures 1-9 shown, the comprehensive health monitoring and management system for breeding chickens provided by the present invention includes: a chicken coop 1, a monitoring device, a track structure, and a computer. The track structure is arranged in a winding manner along the chicken coop 1. The chicken coop 1 is a multi-layer structure, and a belt conveyor assembly 2 is provided below each layer. The feces of the chickens on each layer of the chicken coop 1 directly fall on the belt conveyor assembly 2. When it is necessary to clean the chicken feces, the belt conveyor assembly 2 is started, and the chicken feces on it can be quickly and conveniently conveyed to one end for cleaning, so as to shorten the storage time of the feces in the chicken house, avoid the growth of bacteria and air pollution caused by the long-term presence of chicken feces in the chicken house, and is more conducive to the healthy growth of chickens. The monitoring device travels on the track structure, walks along the track structure, detects the chickens in the chicken coop 1, the feces on the belt conveyor assembly 2, and the temperature, humidity, and air quality around the chicken coop, and evaluates the monitoring results. After evaluation, the results are transmitted to the computer in the control room through a wireless network, so that the monitoring personnel can timely master the health status of the chickens.

[0032] The monitoring device includes a temperature and humidity sensor (not shown in the figure), an air quality sensor (not shown in the figure), a thermal imaging camera module 5, a camera module 6, a feces analysis module (not shown in the figure), and a central processing unit (not shown in the figure).

[0033] The temperature and humidity sensor monitors the temperature and humidity in the chicken coop environment. The temperature and humidity sensor uses a resistive humidity sensing element and an NTC temperature sensing element to sense the changes in the environmental temperature and humidity, converts the sensed temperature and humidity into electrical signals, and after being processed by the built-in single-chip microcomputer, outputs digital signals and transmits them to the central processing unit. The central processing unit processes the signals and transmits the analysis results to the computer.

[0034] The air quality sensor detects the air quality in the environment near the chicken coop, such as the concentration of harmful gases such as ammonia and hydrogen sulfide. The air quality sensor module uses high-precision detection technologies, such as optical or chemical sensor technologies, to real-time monitor the pollutants in the air, and converts the detection results into electrical signals or digital outputs. These data are transmitted to the central processing unit through a standard digital communication protocol. The central processing unit further analyzes and transmits the analysis results to the computer.

[0035] The thermal imaging camera module monitors the health status of chickens through temperature distribution. The thermal imaging camera module obtains the temperature distribution information of an object by detecting the infrared radiation emitted from the object's surface. Inside the module, the received infrared radiation is converted into an electrical signal and processed into a visible temperature distribution image through algorithms to help the monitoring personnel identify the health status of chickens.

[0036] The camera module monitors the behavior of chickens, identifies abnormal behaviors and observes the feces situation. The camera module captures video images inside the chicken coop to monitor the behavior patterns of chickens in real time. The video data is transmitted to the central processing unit, and image recognition technology is used to analyze whether the behavior of chickens is normal, such as lack of appetite, reduced activity, etc. The captured feces information is analyzed by the feces analysis module. The feces analysis module evaluates the health status and nutrient absorption of chickens by analyzing the characteristics of feces such as color and texture. The feces analysis module uses optical and chemical sensing technologies to monitor and analyze chicken feces in real time, and converts the physical and chemical properties of feces into digital signals for analysis by the central processing unit to evaluate the health status of chickens. Finally, the central processing unit sends the analysis results to a computer. When monitoring and analyzing feces, the conveyor belt is in a stationary state, and the conveyor belt should retain the feces of chickens within 1.5 hours so that there is enough feces on the conveyor belt for the camera assembly 6 to capture.

[0037] This embodiment can monitor and analyze multiple key indicators in real time, such as environmental temperature and humidity, air quality, chicken behavior, body temperature, and feces situation, and can conduct in-depth analysis and processing through the central processing system. It not only improves the timeliness and accuracy of data, but also can automatically judge the health status and give early warnings through intelligent algorithms, significantly improving the breeding efficiency and animal welfare, realizing the all-round and real-time monitoring and management of the health status of poultry, improving the breeding efficiency, reducing the disease incidence rate, and optimizing the quality of the breeding environment.

[0038] Embodiment 2

[0039] Such as Figure 9As shown in the figure, the monitoring device further includes a walking component, which is adapted to the track structure. The track structure includes a double-step groove 8 opened on the ground. Fixed plates 12 are installed at the top of the double-step groove 8. The walking component includes a T-shaped block 9, which is located inside the double-step groove 8. A plurality of driving motors 10 are installed inside the double-step groove 8. A walking wheel 11 is installed on the output shaft of the driving motor 10. The walking wheel 11 walks on the steps of the double-step groove 8. The fixed plate 12 has a limiting effect on the T-shaped block 9, enabling the T-shaped block 9 to move stably in the double-step groove 8. The top of the T-shaped block 9 is higher than the top of the fixed plate 12, which is convenient for connecting the T-shaped block 9 to other parts of the monitoring device. There is a distance between the bottom of the T-shaped block 9 and the bottom of the double-step groove 8. This distance is used to accommodate some sundries, such as spilled feed, to prevent the sundries from affecting the movement of the walking component.

[0040] Embodiment 3

[0041] As Figure 4 shown in the figure, the monitoring device further includes a disinfection component, which sprays disinfectant on the chicken coop to disinfect the chicken coop and the chickens. During the growth process of the chickens, it is necessary to disinfect the equipment in the chicken house with the chickens inside. The advantage of disinfecting with the chickens inside is that there is no need to move the chickens out of the chicken coop. During the disinfection process, the concentration of the medicament must be strictly controlled to ensure that the disinfectant will not harm the chickens. Immediately ventilate after disinfection. The disinfection component includes a mixing box 3, the bottom of which is fixedly connected to the top of the T-shaped block 9. A column 4 is fixedly installed on the top of the mixing box 3. The temperature and humidity sensor, air quality sensor, thermal imaging camera module 5 and camera module 6 are all installed on the column 4. A water pump 14 is installed on one side of the mixing box 3. An accommodation cavity 15 is opened inside the column 4. After the water pump 14 is started, the disinfectant liquid in the mixing box 3 can be conveyed through a pipeline to the accommodation cavity 15. A plurality of rotating pipes 16 are rotatably installed on the column 4. The rotating pipes 16 are communicated with the accommodation cavity 15. Spray pipes 17 are fixedly installed at the ends of the rotating pipes 16 far away from the accommodation cavity 15. The rotating pipes 16 are communicated with the spray pipes 17. One end of the spray pipe 17 is provided with a nozzle. The disinfectant liquid entering the accommodation cavity 15 enters the interior of the spray pipe 17 through the rotating pipe 16 and is finally sprayed out through the nozzle to achieve the disinfection of the interior of the chicken house to ensure the health of the chickens during their daily growth.

[0042] Further, a rack 19 is provided on one side of the column 4. An electric push rod 20 is fixedly installed at the top of the rack 19. The electric push rod 20 is fixed to the column 4. Gears 21 are fixedly installed on the rotating pipe 16. The gears 21 are engaged with the rack 19. When the electric push rod 20 is started and extended downward, the rack 19 drives the rotating pipe 16 to rotate through the gears 21. The rotation of the rotating pipe 16 drives the spraying pipe 17 to rotate. When the spraying pipe 17 rotates to the horizontal position, the electric push rod 20 stops extending. At this time, the disinfectant sprayed by the spraying pipe 17 can directly spray onto the chicken coop, achieving a better disinfection effect on the chicken coop. After disinfection, the electric push rod 20 is started in reverse to contract, so that the rack 19 moves upward, and finally the spraying pipe 17 rotates downward, which can make the whole device more compact and reduce the space occupation.

[0043] Furthermore, a limiting hole 22 is formed in the rack 19. A plurality of T-shaped limiting blocks 23 are fixedly installed on one side of the column 4. The T-shaped limiting blocks 23 penetrate through the limiting hole 22. When the rack 19 moves up and down, the T-shaped limiting blocks 23 limit the rack 19, enabling the rack 19 to move up and down stably.

[0044] Further, a liquid inlet is provided at the top of the mixing tank 3. A valve is installed on the liquid inlet, and a measuring cylinder 13 is installed on the valve. The measuring cylinder is used to accurately measure the dosage of the added medicine. An observation window 18 is provided on one side of the mixing tank 3. The observation window 18 is made of transparent glass and is provided with scales, which can measure the depth of the disinfectant. When it is necessary to mix the disinfectant, first pour the medicine into the measuring cylinder, and accurately measure the amount of the medicine through the measuring cylinder, so that the personnel can accurately configure the disinfectant subsequently. After adding the appropriate medicine, open the valve to put the medicine into the mixing tank 3. Then, add water to the mixing tank 3. By observing the scales on the observation window 18, the dilution degree of the medicine can be determined. In this process, add the medicine first and then add water, so that the medicine can be fully diluted during the process of adding water.

[0045] Embodiment 4

[0046] As Figure 4 shown, an electric control box 7 is provided on one side of the mixing tank 3. A storage battery, a fecal analysis module and a central processing unit are all arranged in the electric control box 7.

[0047] Working principle

[0048] In this system, the drive motor 10 is controlled by the central processing unit. During daily monitoring, the system detects at regular intervals (which can be set specifically). When the system is working, the central processing unit starts the drive motor to make the walking assembly move on the track structure. At the same time, the temperature and humidity sensor, air quality sensor, thermal imaging camera module 5, camera module 6, and fecal analysis module all start working. The temperature and humidity sensor monitors the temperature and humidity in the chicken coop environment and outputs digital signals, which are transmitted to the central processing unit. The central processing unit processes the signals and transmits the analysis results to the computer. The air quality sensor detects the air quality in the environment near the chicken coop and converts the detection results into electrical signals or digital outputs. These data are transmitted to the central processing unit through standard digital communication protocols. The central processing unit further analyzes and transmits the analysis results to the computer. The thermal imaging camera module monitors the health status of chickens through temperature distribution and processes it into a visible temperature distribution image through algorithms to help the monitoring personnel identify the health status of chickens. The camera module monitors the behavior of chickens, identifies abnormal behaviors, and observes the fecal conditions. The camera module captures video images in the chicken coop, monitors the behavior patterns of chickens in real time, and the video data is transmitted to the central processing unit. Whether the behavior of chickens is normal is analyzed through image recognition technology. The fecal analysis module evaluates the health status and nutrient absorption of chickens by analyzing the characteristics such as the color and texture of feces, monitors and analyzes chicken feces in real time, and converts the physical and chemical properties of feces into digital signals for analysis by the central processing unit to evaluate the health status of chickens. Finally, the central processing unit sends the analysis results to the computer.

[0049] When it is necessary to disinfect the chicken cages inside the chicken house, first configure the medicine with an appropriate concentration in the mixing box 3, and then start the electric push rod 20 to make it extend downward. During its downward extension, it drives the gear 21 to rotate, thereby driving the rotating pipe 16 to rotate. The rotation of the rotating pipe 16 drives the spraying pipe 17 to rotate until the spraying pipe 17 is rotated to the horizontal position. Then start the water pump 14. After the water pump 14 is started, the disinfectant liquid in the mixing box 3 is transported to the accommodating cavity 15, and the disinfectant liquid is then sprayed out through the rotating pipe 16 and the spraying pipe 17, thereby realizing the disinfection of the chicken cages.

Claims

1. An integrated health monitoring and management system for breeding chickens, characterized in that, Including: A chicken coop (1), a monitoring device, a track structure, and a computer. The track structure is arranged in a meandering manner along the chicken coop (1). The chicken coop (1) is a multi-layer structure, and a belt conveyor assembly (2) is provided below each layer. The feces of the chickens on each layer of the chicken coop (1) directly fall on the belt conveyor assembly (2). The monitoring device travels on the track structure. The monitoring device includes a temperature and humidity sensor, an air quality sensor, a thermal imaging camera module (5), a camera module (6), a feces analysis module, and a central processing unit.

2. The comprehensive health monitoring and management system for breeding chickens according to claim 1, characterized in that, The monitoring device further includes a traveling assembly. The traveling assembly is adapted to the track structure. The track structure includes a double-step groove (8) opened on the ground. Fixed plates (12) are installed on the tops of the double-step grooves (8). The traveling assembly includes a T-shaped block (9). The T-shaped block (9) is located inside the double-step groove (8). A plurality of drive motors (10) are installed inside the double-step groove (8). A traveling wheel (11) is installed on the output shaft of the drive motor (10). The traveling wheel (11) travels on the steps of the double-step groove (8). The top of the T-shaped block (9) is higher than the top of the fixed plate (12).

3. The integrated health monitoring and management system for breeding chickens according to claim 2, wherein, There is a distance between the bottom of the T-shaped block (9) and the bottom of the double-step groove (8).

4. The comprehensive health monitoring and management system for breeding chickens according to claim 2, characterized in that, The monitoring device further includes a disinfection assembly. The disinfection assembly sprays a disinfectant on the chicken coop to disinfect the chicken coop and the chickens. The disinfection assembly includes a mixing tank (3). The bottom of the mixing tank (3) is fixedly connected to the top of the T-shaped block (9). A column (4) is fixedly installed on the top of the mixing tank (3). The temperature and humidity sensor, the air quality sensor, the thermal imaging camera module (5), and the camera module (6) are all installed on the column (4). A water pump (14) is installed on one side of the mixing tank (3). An accommodation cavity (15) is opened inside the column (4). A plurality of rotating tubes (16) are rotatably installed on the column (4). The rotating tubes (16) communicate with the accommodation cavity (15). One end of the rotating tube (16) away from the accommodation cavity (15) is fixedly installed with a medicine spraying tube (17). The rotating tube (16) communicates with the medicine spraying tube (17). One end of the medicine spraying tube (17) is provided with a nozzle.

5. The comprehensive health monitoring and management system for breeding chickens according to claim 4, characterized in that, A rack (19) is provided on one side of the column (4). An electric push rod (20) is fixedly installed on the top of the rack (19). The electric push rod (20) is fixed to the column (4). Gears (21) are fixedly installed on the rotating tubes (16). The gears (21) are engaged with the rack (19). A limiting hole (22) is opened on the rack (19). A plurality of T-shaped limiting blocks (23) are fixedly installed on one side of the column (4). The T-shaped limiting blocks (23) penetrate through the limiting hole (22).

6. The comprehensive health monitoring and management system for breeding chickens according to claim 4, characterized in that, A liquid inlet is provided on the top of the mixing tank (3). A valve is installed on the liquid inlet. A measuring cylinder (13) is installed on the valve. The measuring cylinder is used to accurately measure the dosage of the added medicine.

7. The comprehensive health monitoring and management system for breeding chickens according to claim 4, characterized in that, One side of the mixing box (3) is provided with an observation window (18), the observation window (18) is made of transparent glass and is provided with scales on it.

8. The comprehensive health monitoring and management system for breeding chickens according to claim 4, characterized in that, An electric control box (7) is provided on one side of the mixing box (3), a storage battery is arranged inside the electric control box (7), and the feces analysis module and the central processing unit are both arranged in the electric control box (7).

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