A full-automatic porridge feeder

Abstract

The utility model discloses a full -automatic porridge state feeder belongs to livestock feeding equipment technical field, and it aims at solving the existing porridge material feeding equipment residual material is easy to deteriorate, the complex structure, the maintenance cost is high, and the problem such as the insufficient degree of automation. The feeder includes feeding mechanism, dry material bin, dry material conveying mechanism, liquid storage and adding mechanism, mixed stirring mechanism, trough and control module, and feeding mechanism supplies the dry material bin, and dry material conveying mechanism, liquid storage and adding mechanism respectively supply dry material and liquid to mixed stirring mechanism, and after stirring, form porridge state material and convey to the trough, and control module is electrically connected each component and realizes overall control, and the trough can select disc type or strip combination type, and sets up detachable baffle and guide material and gathers material structure, and eliminates material accumulation dead angle, and the equipment is equipped with liquid level monitoring, heat preservation, vibration and removes residual material component, and control module has timing and wireless communication function, and supports parameter preset, remote control and data return.

Description

Technical Field

[0001] This utility model relates to the field of poultry farming equipment technology, specifically to a fully automatic porridge feeder. Background Technology

[0002] In livestock and poultry farming, dry feed, liquid feed, and porridge-like feed are the three main types of feed. They differ significantly in form, applicable scenarios, and feeding advantages.

[0003] The core drawbacks of dry feed feeding are its generally poor palatability, making it unsuitable for young and weak livestock, easily exacerbating their stress response and reducing feed intake; powdered feed easily generates dust, inducing respiratory diseases in livestock, and can also lead to picky eating, uneven nutrient intake, and high feed waste; pelleted feed requires pelleting equipment, resulting in high initial investment costs, and the pelleting process can lead to the loss of some nutrients, while controlling the pellet hardness can affect the digestive health of livestock later. In addition, dry feed feeding is highly dependent on drinking water conditions; insufficient water intake can cause constipation and indigestion in livestock.

[0004] Liquid feed and existing feeding equipment also have some shortcomings: liquid feed has a high water content, making it extremely prone to bacterial growth, mold, and spoilage. It must be prepared and fed immediately and requires frequent cleaning of the feeding troughs. Improper management can lead to intestinal diseases in livestock and poultry. Automatic feeding equipment not only has high initial purchase costs, but its pipes and mixing tanks are also prone to clogging and leaving feed residue. Daily cleaning and disinfection require significant manpower, resulting in high maintenance costs. This feeding method and equipment are only suitable for large-scale farming; small-scale farmers can hardly afford the costs and maintenance burden.

[0005] Porridge-like feed balances palatability and digestibility. Its moderately viscous texture makes it easier for livestock and poultry to consume than dry feed, reducing the problem of insufficient feed intake during special stages. It is also easier to control the nutrient ratio than liquid feed, preventing the deterioration of livestock and poultry's digestive capacity due to excessive moisture. Furthermore, it allows for the flexible addition of nutrients, traditional Chinese medicine, etc., to specifically improve the health of livestock and poultry. It has a low operating threshold and is suitable for small and medium-sized farms.

[0006] However, current porridge-based feed feeding and corresponding feeders also have some prominent problems. For example, CN207100074U lacks a residual feed cleaning function, leaving porridge residue in the feed trough that is prone to spoilage, failing to solve the problem of wet-mixed feed's poor storage life, and its protective structure is also simple. Another example is CN113711935A, which has a complex structure, using lead screws, transmission structures, and feed control structures for linkage, resulting in a high failure rate of parts and high maintenance costs. Furthermore, its wall-mounted installation relies on the wall's load-bearing capacity and space layout, leading to poor versatility. Yet another example is CN222216793U, whose unblocking mechanism is manually operated, with a low degree of automation, making it unsuitable for high-efficiency feeding needs. Summary of the Invention

[0007] To address the problems existing in the background technology, this application provides a fully automatic porridge feeder, which is a customizable, miniaturized, automated and programmable feed and liquid mixing and dispensing device. It can realize the instant mixing of dry feed, drinking water and nutritional supplements, traditional Chinese medicine and other liquid nutrients in a preset ratio to form a uniform porridge-like feed, which is then directly delivered to the pig's feeding trough to meet the needs of precise feeding.

[0008] To achieve the above objectives, the present invention adopts the following technical solution: a fully automatic porridge feeder, comprising: a feeding mechanism 1, a dry material bin 2, a dry material conveying mechanism 3, a liquid storage and adding mechanism 4, a mixing and stirring mechanism 5, a feeding trough 6, and a control module 7. The feeding mechanism 1 is sealed and connected to the dry material silo 2. The dry material silo 2 is connected to the mixing and stirring mechanism 5 through the dry material conveying mechanism 3. The liquid storage and adding mechanism 4 is directly connected to the mixing and stirring mechanism 5 and cooperates with the dry material conveying mechanism 3 to supply materials to the mixing and stirring mechanism 5. The discharge end of the mixing and stirring mechanism 5 extends above the feeding trough 6. The control module 7 is electrically connected to the feeding mechanism 1, the dry material conveying mechanism 3, the liquid storage and adding mechanism 4, and the mixing and stirring mechanism 5 respectively, and controls the operation of each mechanism.

[0009] Preferably, the feeding mechanism 1, the dry material bin 2, and the dry material conveying mechanism 3 are all detachably mounted on the main support 8. The feeding mechanism 1 is mounted on the side of the main support 8 and is in closed communication with the inlet end of the dry material bin 2. The feeding mechanism 1 adopts an inclined conveyor belt, screw conveyor, or pneumatic conveying equipment, and is equipped with dustproof pipes on the outside. The dry material bin 2 is mounted on the top of the main support 8 and is a horizontal hollow cylinder with a bin cover on the top. The dry material conveying mechanism 3 includes an integrally formed discharge channel 10 in the shape of a semi-circular trough at the bottom of the dry material bin 2. A screw feeder 9-1 is installed in the discharge channel 10. One end of the screw feeder 9-1 is connected to the drive motor 9-2 on the outside of the dry material bin 2. An adjustment component 9-3 is set on the drive motor 9-2 and electrically connected to the control module 7. The other end of the screw feeder 9-1 extends to the outside of the dry material bin 2 and is connected to the inlet end of the mixing mechanism 5.

[0010] Preferably, the liquid storage and addition mechanism 4 is detachably mounted on the auxiliary support 9, and includes a liquid storage tank, a metering pump 4-1, a delivery pipeline, and a liquid level monitoring component; the top of the liquid storage tank is provided with a sealed feeding port; the metering pump 4-1 is fixed to the bottom of the liquid storage tank, with its input end connected to the tank body and its output end sealed to the mixing and stirring mechanism 5 through an insulated delivery pipeline; the liquid level monitoring component is a float-type liquid level sensor, installed inside the liquid storage tank, and electrically connected to the control module 7; the metering pump 4-1 is electrically connected to the control module 7 to achieve precise liquid addition.

[0011] Preferably, the mixing and stirring mechanism 5 is installed on a platform below the main support 8 and the auxiliary support 9, and is erected above the feeding trough 6. It includes a stirring drum and a stirring assembly. The stirring drum is fixed in the middle of the platform, with a dry material inlet and a liquid inlet at the top and a discharge outlet at the bottom. The stirring assembly includes a spiral stirring blade, a rotating shaft, and a drive motor 9-2. The spiral stirring blade is installed inside the stirring drum through the rotating shaft, and the rotating shaft is connected to the drive motor 9-2 erected above the stirring drum. The drive motor 9-2 is a speed-regulating motor and is electrically connected to the control module 7.

[0012] Preferably, the feeding trough 6 is installed below the discharge port of the mixing drum, and it adopts a partitioned structure. The partition plate is a detachable structure and is connected to the main body of the feeding trough 6 through a slot.

[0013] Preferably, the feeding trough 6 is a strip-shaped combined structure. The upper cross-section consists of two rectangular opposite side plates, and the bottom trough has an inverted trapezoidal cross-section. The side walls of the trough are designed with a smooth inclination angle, naturally narrowing from the upper edge to the center of the bottom, forming a centripetal material-gathering slope. Utilizing the fluidity of the porridge-like material, the material is guided to automatically gather towards the center of the trough, avoiding dispersion along the edges. The bottom and both ends of the trough are arc-shaped transition structures. A material-gathering groove is set in the center of the bottom, positioned 3-5mm lower than the surrounding area, further enhancing the material concentration effect and preventing material from stagnating in corners. The inner edges of the partitions in the trough are rounded, seamlessly connecting with the trough walls. At the same time, the height of the partitions is 5cm lower than the trough opening, facilitating the return of uneaten material along the edge of the partitions to the center of the bottom.

[0014] Preferably, the feeding trough 6 is an integral disc-shaped shallow basin structure, with the diameter of the disc being larger than that of the stirring cylinder above it. The edge of the trough opening is a smooth, flanged structure, and the trough body adopts a fan-shaped partition structure with several radially removable partitions. The bottom of the trough is an arc-shaped structure, gradually decreasing from the edge of the trough opening, gradually increasing again after passing the radial center, and converging at the center of the disc. The center of the disc corresponds to the discharge port of the stirring cylinder above, and an annular buffer guide ring is provided on the raised part of the center of the disc to guide the feed to be evenly dispersed into each fan-shaped partition. A drain hole is reserved at the edge of the bottom of the trough to quickly discharge residual wastewater.

[0015] Preferably, the control module 7 includes a processor 7-1, a timing module 7-2, an input / output port 7-3, and a wireless communication module 7-4. The timing module 7-2, the input / output port 7-3, and the wireless communication module 7-4 are all electrically connected to the processor 7-1. The input / output port 7-3 is directly connected to the local field terminal 7-5, or connected to the remote handheld terminal 7-6 through the wireless communication module 7-4.

[0016] Preferably, a temperature control component is also provided; the temperature component includes a heater disposed in the liquid storage tank and a heat insulation layer on the inner wall of the stirring drum; the heater is electrically connected to the control module 7.

[0017] Preferably, it also includes a vibrator installed at the bottom of the mixing drum, which is electrically connected to the control module 7 and is triggered at regular intervals to prevent material adhesion; an electromagnetic valve is installed at the discharge port of the mixing drum and is electrically connected to the control module 7.

[0018] The workflow of the feeder described in this application is as follows: First, control module 7 is responsible for parameter preset and command issuance; Users set parameters such as the dry material to liquid ratio, feeding time, stirring speed, and heat preservation temperature through input / output port 7-3. After receiving the data, processor 7-1, in conjunction with timing module 7-2, generates instructions and issues them at the appropriate time. Each actuator executes the action according to the instructions. During the execution process, liquid level sensor and temperature sensor transmit liquid storage and material temperature data back in real time. Processor 7-1 compares the data with preset values ​​and controls the actuators to adjust the feeding amount, heating power, and stirring speed.

[0019] The specific process includes: ① Feeding and storage: The feeding mechanism 1 transports dry material to the dry material silo 2 via belt, screw or pneumatic conveying equipment. The top of the dry material silo 2 is sealed with a silo cover to prevent dust. The screw feeder 9-1 at the bottom of the dry material silo 2, driven by the drive motor 9-2, delivers the dry material quantitatively to the mixing and stirring mechanism 5 according to the instructions of the control module 7.

[0020] ② Liquid addition: The liquid storage tank stores water, nutrients, etc., and the float-type liquid level sensor monitors the liquid level in real time and feeds it back to the control module 7; the metering pump 4-1 accurately extracts liquid according to the preset ratio and transports it to the mixing and stirring mechanism 5 through the insulated pipeline.

[0021] ③ Mixing and stirring: Dry materials and liquids enter from the top inlet of the mixing drum, respectively. The speed-regulating drive motor 9-2 drives the spiral stirring blades to rotate, mixing the materials into a uniform porridge state. The inner wall of the mixing drum is equipped with a heat insulation layer, and the liquid storage tank has a heater to maintain a suitable temperature for the materials.

[0022] ④ After the porridge is dispensed and stirred, the control module 7 opens the solenoid valve at the bottom of the mixing drum, and the porridge falls into the feeding trough 6 below; the control module 7 triggers the vibrator at the bottom of the mixing drum to prevent the material from sticking.

[0023] In addition, the control module 7 can simultaneously perform remote data transmission and control, and the wireless communication module 7-4 supports uploading the device's operating status to the terminal for real-time access and viewing. It can also receive remote commands to achieve programmable and customized feeding adjustments. Beneficial effects

[0024] This fully automatic porridge feeder achieves precise proportioning and instant mixing of dry feed, liquids, and other nutrients, forming a porridge-like feed with excellent palatability and digestibility, suitable for different breeding scenarios and needs. The equipment has a reasonable structural design, is detachable and has no dead corners for cleaning, and is equipped with dustproof, heat preservation, and anti-adhesion functions to reduce feed residue and spoilage risks, and reduce the risk of bacterial growth. At the same time, automation and programmable control greatly improve feeding efficiency, reduce labor input and maintenance costs, and also support remote monitoring and parameter adjustment, taking into account precise feeding, livestock and poultry health protection, and ease of use, and is suitable for small and medium-sized farms and breeding needs of different scales. Attached Figure Description

[0025] Figure 1 This is a schematic diagram of the structure of the fully automatic porridge feeder described in Example 1.

[0026] Figure 2 This is a schematic diagram of the dry material conveying mechanism described in Example 1.

[0027] Figure 3 This is a connection diagram of the control module.

[0028] Figure 4 This is a schematic diagram of the structure of the fully automatic porridge feeder described in Example 2.

[0029] Figure 5 This is a cross-sectional view of the feeding trough described in Example 1.

[0030] Figure 6 This is a side view of the mixing tank and feeding trough described in Example 2.

[0031] In the diagram, the components are: 1. Feeding mechanism; 2. Dry material bin; 3. Dry material conveying mechanism; 4. Liquid storage and adding mechanism; 4. Metering pump; 5. Mixing and stirring mechanism; 6. Feed trough; 7. Control module; 7. Processor; 7. Timing module; 7. Input / output port; 7. Wireless communication module; 7. Field terminal; 7. Handheld terminal; 7. Main support; 8. Discharge channel; 10. Screw feeder; 9. Drive motor; 9. Adjustment component; 9. Secondary support. Detailed Implementation

[0032] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to specific embodiments. These embodiments are only used to explain this utility model and should not be construed as limiting this utility model. Example

[0033] refer to Figure 1-35. The fully automatic porridge feeder described in this embodiment is suitable for a breeding scale of 10 pigs. It adopts a disc-shaped feed trough 6 structure. The overall system includes a feeding mechanism 1, a dry feed bin 2, a dry feed conveying mechanism 3, a liquid storage and adding mechanism 4, a mixing and stirring mechanism 5, a disc-shaped feed trough 6, and a control module 7. Each mechanism operates collaboratively according to a preset logic.

[0034] The circular feeding trough 6 is an integrated shallow basin structure with a diameter suitable for feeding 10 pigs simultaneously. The trough opening features a smooth, rounded edge design to prevent pigs from getting scratched or feed from spilling while eating. The interior of the trough has 10 radially distributed, removable fan-shaped partitions that evenly divide the trough 6, allowing pigs to eat in designated areas in an orderly manner and preventing uneven nutrient intake caused by competition for food. The bottom of the trough has an arc-shaped transition structure, gradually decreasing in elevation from the edge to the center before slightly increasing again, creating a natural feed-guiding slope that, combined with the fluidity of the porridge-like feed, guides the feed towards the center. A ring-shaped buffer guide ring is located at the center of the disc, corresponding to the discharge port of the mixing mechanism 5, ensuring that the falling porridge-like feed is evenly distributed to each fan-shaped section, guaranteeing a balanced feed amount in each area. Two drainage holes are provided at the bottom edge of the trough for quick discharge of residual wastewater or spoiled feed. All inner walls and partition edges of the trough are rounded, eliminating right angles and dead corners, and seamlessly connecting with the trough walls and bottom, completely eliminating the risk of feed accumulation.

[0035] Control module 7 is designed with a dedicated workflow for feeding 10 pigs 6 meals a day: Users can preset six feeding times per day via their mobile phones, such as 6:00, 9:00, 12:00, 15:00, 18:00, and 21:00. They can also set the ratio of dry feed to liquid, stirring speed, and insulation temperature for each feeding. The timing module 7-2 triggers feeding commands sequentially according to the preset times. The processor 7-1 first receives the liquid level data from the float-type liquid level sensor in the liquid storage tank and the real-time temperature data from the temperature sensor in the mixing drum. After confirming that the material conditions meet the standards, it sequentially issues feeding, liquid addition, and mixing commands. After each feeding, the control module 7 triggers the vibrator at the bottom of the mixing drum after a 5-minute delay. The vibrator vibrates continuously for 30 seconds to clean up any remaining material. At the same time, it records the dry feed consumption, liquid consumption, and mixing time of this feeding and uploads the data to the terminal via the wireless communication module 7-4.

[0036] If the liquid level falls below the preset value or the temperature deviates from the set range during a certain period, the control module 7 immediately sends an early warning message and suspends the feeding instruction until the user handles the situation and the instruction is re-executed. During use, the control module 7 starts the equipment according to preset parameters. Dry feed is quantitatively delivered to the mixing and stirring mechanism 5 via the screw feeder 9-1. Water or nutrients in the liquid storage tank are precisely injected through the metering pump 4-1. After being mixed into a uniform porridge-like consistency by the screw stirring blades, the feed is controlled by an electromagnetic valve to fall into the disc-shaped feeding trough 6. Example

[0037] refer to Figure 3 , 4 6. This embodiment is designed for a breeding scale of 20 pigs. It adopts a square strip combined structure feeding trough 6. The system consists of a feeding mechanism 1, a dry feed bin 2, a dry feed conveying mechanism 3, a liquid storage and adding mechanism 4, a mixing and stirring mechanism 5, a square feeding trough 6 and a control module 7. Each component is installed on the main support 8, the secondary support 9 and the platform below in a detachable manner, taking into account both stability and ease of maintenance.

[0038] The square feed trough 6 has a strip-shaped combined structure, with an overall length suitable for 20 pigs to feed simultaneously. The upper cross-section is a rectangular side plate, while the bottom cross-section is an inverted trapezoid. The inner wall is designed with a smooth slope, naturally narrowing from the top edge to the center of the bottom, forming a centripetal feed-gathering slope. This utilizes the flowability of the porridge-like feed to guide the feed to automatically gather, preventing it from scattering along the edges. The trough interior has 9 removable partitions connected to the main body via slots, dividing the trough 6 into 10 independent feeding units, each suitable for 2 pigs. The partitions are lower than the trough opening, facilitating the return of uneaten feed along the partition edges to the bottom. The bottom and both ends of the trough feature an arc-shaped transition design, eliminating right-angle dead corners. A continuous feed-gathering groove is located in the center of the bottom, lower than the surrounding area, further enhancing feed concentration and preventing material buildup in corners. The inner edges of the partitions are rounded, seamlessly connecting with the trough walls and bottom, eliminating the risk of accumulation at the boundaries of the zones.

[0039] Control module 7 optimizes the workflow for feeding 20 pigs four times a day: Users can set four feeding times per day via their mobile phones, such as 7:00, 12:00, 17:00 and 22:00, and configure the ratio of dry feed to liquid feed, stirring speed and heat preservation temperature. At the same time, the dry feed delivery amount for each feeding is set to twice the amount for 10 pigs per feeding to ensure that the group's feeding needs are met.

[0040] After the timing module 7-2 triggers the command, the processor 7-1 first links the material level monitoring component and liquid level sensor of the dry feed bin 2. After confirming that the material is sufficient, the dry feed conveying mechanism 3 and the quantitative metering pump 4-1 are started simultaneously to supply the material accurately according to the ratio. During the mixing and stirring stage, the speed-regulating motor automatically adjusts the speed according to the load to ensure that the large amount of porridge feed required for 20 pigs is mixed evenly.

[0041] After each feeding, the control module 7 controls the solenoid valve to close and starts the vibrator to vibrate for 45 seconds. The control module 7 records the feeding time and material loss rate of each meal in real time, and supports users to adjust the ratio and feed amount of the next meal through the on-site terminal 7-5 or the handheld terminal 7-6 to achieve dynamic optimization.

Claims

1. A fully automatic porridge feeder, characterized in that, It includes a feeding mechanism (1), a dry material bin (2), a dry material conveying mechanism (3), a liquid storage and adding mechanism (4), a mixing and stirring mechanism (5), a feeding tank (6), and a control module (7); The feeding mechanism (1) is sealed and connected to the dry material silo (2). The dry material silo (2) is connected to the mixing and stirring mechanism (5) through the dry material conveying mechanism (3). The liquid storage and adding mechanism (4) is directly connected to the mixing and stirring mechanism (5) and cooperates with the dry material conveying mechanism (3) to supply materials to the mixing and stirring mechanism (5). The discharge end of the mixing and stirring mechanism (5) extends above the feeding trough (6). The control module (7) is electrically connected to the feeding mechanism (1), the dry material conveying mechanism (3), the liquid storage and adding mechanism (4), and the mixing and stirring mechanism (5) respectively, and controls the operation of each mechanism.

2. The fully automatic porridge feeder according to claim 1, characterized in that, The feeding mechanism (1), dry material bin (2), and dry material conveying mechanism (3) are all detachably mounted on the main support (8); the feeding mechanism (1) is mounted on the side of the main support (8) and is closedly connected to the inlet end of the dry material bin (2). The feeding mechanism (1) adopts an inclined conveyor belt, screw conveyor, or pneumatic conveying equipment, and is equipped with dustproof pipes on the outside; the dry material bin (2) is mounted on the top of the main support (8) and is a hollow cylinder in a horizontal position with a bin cover on the top; the dry material conveying mechanism (3) is mounted on the side of the main support (8). The feeding mechanism (3) includes an integrally formed discharge channel (10) in the shape of a semi-circular groove at the bottom of the dry material silo (2). A screw feeder (9-1) is installed in the discharge channel (10). One end of the screw feeder is connected to the drive motor (9-2) on the outside of the dry material silo (2). An adjustment component (9-3) is set on the drive motor (9-2) and electrically connected to the control module (7). The other end of the screw feeder (9-1) extends to the outside of the dry material silo (2) and is connected to the inlet end of the mixing and stirring mechanism (5).

3. The fully automatic porridge feeder according to claim 1, characterized in that, The liquid storage and addition mechanism (4) is detachably mounted on the sub-support (9) and includes a liquid storage tank, a metering pump (4-1), a conveying pipeline and a liquid level monitoring component. The top of the liquid storage tank is provided with a sealed feeding port. The metering pump (4-1) is fixed to the bottom of the liquid storage tank, with its input end connected to the tank body and its output end connected to the mixing and stirring mechanism (5) in a sealed manner through an insulated conveying pipeline. The liquid level monitoring component is a float-type liquid level sensor, which is installed inside the liquid storage tank and electrically connected to the control module (7). The metering pump (4-1) is electrically connected to the control module (7).

4. The fully automatic porridge feeder according to claim 1, characterized in that, The mixing and stirring mechanism (5) is installed on a platform below the main support (8) and the auxiliary support (9), and is erected above the feeding trough (6). It includes a stirring drum and a stirring assembly. The stirring drum is fixed in the middle of the platform. It has a dry material inlet and a liquid inlet at the top and a discharge outlet at the bottom. An electromagnetic valve is installed at the discharge outlet and is electrically connected to the control module (7). The stirring assembly includes a spiral stirring blade, a rotating shaft and a drive motor (9-2). The spiral stirring blade is installed inside the stirring drum through the rotating shaft. The rotating shaft is connected to the drive motor (9-2) erected above the stirring drum. The drive motor (9-2) is a speed-regulating motor and is electrically connected to the control module (7).

5. The fully automatic porridge feeder according to claim 1, characterized in that, The feeding trough (6) is installed below the discharge port of the mixing drum. It adopts a partitioned structure, and the partition is a detachable structure, which is connected to the main body of the feeding trough (6) through a slot.

6. The fully automatic porridge feeder according to claim 5, characterized in that, The feeding trough (6) is a strip-shaped combination structure. The upper cross section consists of two rectangular opposite side plates, and the bottom trough has an inverted trapezoidal cross section. The side wall of the trough is set with a smooth inclination angle, which naturally narrows from the upper edge to the center of the bottom of the trough, forming a centripetal material-gathering slope. The bottom of the trough and both ends of the trough are arc-shaped transition structures. A material-gathering groove is set in the center of the bottom of the trough, which is lower than the surrounding area. The inner edge of the partition plate of the trough is rounded and seamlessly connected with the trough wall. The height of the partition plate is lower than the opening of the trough.

7. The fully automatic porridge feeder according to claim 5, characterized in that, The feeding trough (6) is an integral disc-shaped shallow basin structure. The diameter of the disc is larger than that of the stirring cylinder above it. The edge of the trough opening is a smooth flange structure. The trough body adopts a fan-shaped partition structure and is equipped with several radially detachable partitions. The bottom of the trough is an arc structure that slowly decreases from the edge of the trough opening, slowly increases after passing the radial center, and converges to the center of the disc. The center of the disc corresponds to the discharge port of the stirring cylinder above. An annular buffer guide ring is set on the protruding part of the center of the disc. A sewage discharge hole is reserved at the edge of the bottom of the trough.

8. The fully automatic porridge feeder according to claim 1, characterized in that, The control module (7) includes a processor (7-1), a timing module (7-2), an input / output port (7-3), and a wireless communication module (7-4). The timing module (7-2), the input / output port (7-3), and the wireless communication module (7-4) are all electrically connected to the processor (7-1). The input / output port (7-3) is directly connected to the local field terminal (7-5) or connected to the remote handheld terminal (7-6) through the wireless communication module (7-4).

9. The fully automatic porridge feeder according to claim 1, characterized in that, It is also equipped with a temperature control component; the temperature component includes a heater installed in the liquid storage tank and a heat insulation layer on the inner wall of the stirring drum; the heater is electrically connected to the control module (7).

10. A fully automatic porridge feeder according to claim 4, characterized in that, A vibrator is installed at the bottom of the mixing drum, and the vibrator is electrically connected to the control module (7).

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