A forced uniform distribution type feeding system with stirring and weighing functions

Abstract

The application provides a forced uniform material distribution type feeding system with stirring and weighing functions, and belongs to the technical field of uniform material distribution type feeding systems. In order to solve the problem that the feeding terminal of a traditional feeding system is inconvenient for causing materials with different specific gravities to jointly fall to a destination when the materials after stirring and weighing are controlled to fall, the feeding terminal of the traditional feeding system is inconvenient for controlling and adjusting the screening fineness of the material structure on the materials, and the screening of the materials is relatively limited, the application carries out stirring on the materials through a stirring module, carries out weighing through a weighing module, the materials enter the inside of a discharging chute, a uniform material distribution module is started, two groups of material distribution assemblies in the inside of the discharging chute buffer and uniformly distribute the materials, the materials are layered, the materials with large specific gravity and fast falling are caused to fall later, the materials with small specific gravity and slow falling are caused to fall first, and finally, a certain height is controlled, so that the materials with different specific gravities jointly fall to the destination.

Description

Technical Field

[0001] This invention relates to the field of uniform feeding technology, specifically a forced uniform feeding system with stirring and weighing functions. Background Technology

[0002] When powdery or small lumpy materials are fed from a high hopper into the grinding equipment, the heavier materials will fall first due to gravity, while the lighter materials will fall later. This causes material stratification, increases equipment wear, causes equipment vibration, and affects the stability of the system. Therefore, it is necessary to force the material to be distributed evenly.

[0003] Traditional feeding systems, when controlling the descent of materials after mixing and weighing, do not readily buffer or stratify the materials. This results in heavier materials falling faster and falling later, while lighter materials fall first. Finally, a certain height is controlled to allow materials of different densities to fall to their destination together. Traditional feeding systems also make it difficult to control and adjust the material distribution structure to achieve the desired screening precision, leading to limitations in material screening.

[0004] To address the aforementioned issues, a forced uniform material distribution feeding system with mixing and weighing functions is proposed. Summary of the Invention

[0005] The purpose of this invention is to provide a forced uniform material distribution feeding system with stirring and weighing functions. This solves the problem in the background art where the feeding terminal of a traditional feeding system is not convenient for buffering and stratifying the material while controlling the descent of the material after stirring and weighing. As a result, materials with a higher specific gravity and faster descent fall later, while materials with a lower specific gravity and slower descent fall first. Finally, a certain height is controlled to allow materials with different specific gravities to fall to the destination together. The feeding terminal of a traditional feeding system is not convenient for controlling and adjusting the material distribution structure to achieve the fineness of material screening, resulting in limited material screening.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a forced uniform material distribution feeding system with stirring and weighing functions, comprising a central control module, which is electrically connected to a metering and feeding module, a stirring module, and a weighing module; the stirring module is electrically connected to a motor drive module and a gate opening and closing module; the weighing module is electrically connected to a material pouring module; the material pouring module is electrically connected to a rotation module and a telescopic module; the material pouring module is electrically connected to a gate activation module; the gate activation module is electrically connected to a uniform material distribution module; the uniform material distribution module is electrically connected to a power module and a spacing adjustment module; and the uniform material distribution module is electrically connected to an electric feeding module. The stirring module, weighing module, material pouring module, and gate activation module are disposed inside the stirring and weighing chamber; the uniform material distribution module is disposed inside the material discharge chute; and the electric feeding module is disposed inside the electric feeding device.

[0007] The discharge chute is positioned between the mixing and weighing bin and the electric feeding device. The mixing and weighing bin is located above the electric feeding device. Two sets of material distribution components are installed inside the lower end of the discharge chute. One set of the material distribution components is arranged horizontally in a north-south direction, and the other set is arranged horizontally in an east-west direction. Controlled by the metering and discharging module, a certain amount of material is added to the mixing and weighing bin. After the material is mixed by the mixing module, it is weighed by the weighing module. After weighing, the material enters the discharge chute through the combined action of the pouring module and the gate activation module. The uniform distribution module is activated, and the two sets of material distribution components inside the discharge chute buffer and evenly distribute the material, ensuring that the descending material does not stratify. Finally, the material enters the electric feeding device, where it is operated by the electric feeding module.

[0008] Furthermore, a hopper is provided at the lower end of the mixing and weighing bin, and the lower end of the hopper is connected to the upper end of the discharge chute. A bar valve is movably installed inside the upper end of the discharge chute, and two sets of bar valves are provided. An L-shaped pipe is provided at the lower end of the discharge chute, and the material distribution components of the two sets are located inside the L-shaped pipe.

[0009] Furthermore, the upper end of the mixing and weighing chamber is provided with a feeding chamber, and the lower end of the feeding chamber is provided with a pouring chamber, and the two are connected. A mixing drum is fixedly installed inside the feeding chamber, and a mixing paddle is movably installed inside the mixing drum. An electrically driven valve is movably installed at the lower end of the inner wall of the feeding chamber, and two sets of electrically driven valves are provided. The lower end of the two sets of electrically driven valves is provided with a fixing ring, and the outer wall of the fixing ring is fixedly connected to the feeding chamber. A weighing component is movably installed inside the pouring chamber.

[0010] Furthermore, a support column is fixedly provided on the inner wall of the fixed ring, and four sets of support columns are provided. A first motor is fixedly provided at the center position of the four sets of support columns. A drive shaft is provided at the output end of the first motor, and the drive shaft is fixedly connected to the center position of the stirring paddle through a shaft.

[0011] Furthermore, the weighing assembly includes a weighing cylinder and a weighing pan disposed at the lower end of the weighing cylinder. A connecting ring is disposed at the lower end of the weighing pan. A telescopic column and a rotating shaft are disposed on the outside of the connecting ring. Two sets of telescopic columns and two sets of rotating shafts are disposed. The two sets of telescopic columns are on the same axis, and the two sets of rotating shafts are also on the same axis. A fixed motor is fixedly disposed on one set of rotating shafts, and the fixed motor is fixedly connected to the inner wall of the pouring chamber.

[0012] Furthermore, the fabric assembly includes a buffer fabric plate fixedly installed on the inner wall of the L-shaped tube. A fixing groove is opened inside the lower end of the buffer fabric plate, and a buffer screen shaft is fixedly installed inside the fixing groove. Two other sets of buffer screen shafts are also installed on one side of this set of buffer screen shafts. A fabric shaft is movably installed on one side of one set of buffer screen shafts, and three sets of fabric shafts are provided. A buffer sleeve is fitted on the outside of the buffer screen shaft.

[0013] Furthermore, the fabric shaft includes a first ring body disposed on the inner wall of both sides of the L-shaped tube. A second ring body and a limiting shaft are disposed between the two sets of the first ring bodies, and four sets of the second ring bodies and the limiting shaft are disposed. The four sets of the second ring bodies are fixedly connected to the two sets of the first ring bodies through the four sets of the limiting shafts. Each second ring body is provided with a through ring groove and a through arc groove. Multiple sets of through arc grooves are disposed, and the multiple sets of through arc grooves are located at the periphery of a circle, the diameter of which is larger than the diameter of the through ring groove. A screening shaft is embedded inside the multiple sets of through arc grooves, and the diameter of the screening shaft is smaller than the length of the through arc groove. Positive and negative spiral blades are disposed between the two sets of the first ring bodies, and the positive and negative spiral blades are partially located inside the four sets of through ring grooves.

[0014] Furthermore, a fitting groove is provided inside the through arc groove, and a fitting arc block is fitted inside the fitting groove. A lifting component and an adjusting element are provided on one side of the through arc groove, and the lifting component and the adjusting element are located inside the second ring body.

[0015] Furthermore, the lifting assembly includes a rotating cylinder movably disposed inside the second ring body, a second take-up wheel disposed on the outer side of the rotating cylinder, a threaded post disposed inside the rotating cylinder, a fitting piece disposed at one end of the threaded post, the fitting piece fitting inside the fitting groove, and one end of the fitting piece being fixedly connected to the fitting arc block.

[0016] Furthermore, the adjusting element includes an electric motor disposed inside the second ring body. The electric motor is connected to a first winding wheel via an output shaft, and multiple sets of the first winding wheels are provided. Each set of the first winding wheels has a winding rope on its outer side. One set of the first winding wheels is movably connected to the rotating drum via a set of the winding ropes. The electric motor controls multiple sets of interlocking arc blocks disposed inside the arc groove through the multiple sets of the first winding wheels. A folded protective cloth is disposed on the outer side of the interlocking arc blocks, and the outer side of the folded protective cloth is fixedly connected to the inner wall of the interlocking groove.

[0017] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0018] 1. This invention provides a forced uniform material feeding system with stirring and weighing functions. The system, controlled by a metering and feeding module, adds a certain amount of material to the stirring and weighing chamber. After stirring by the stirring module, the weighing module weighs the material. Following weighing, the material enters the feeding chute through the combined action of the discharge module and the gate activation module. The uniform material distribution module is activated, and two sets of distribution components inside the chute buffer and uniformly distribute the material, stratifying it so that heavier materials fall later, while lighter materials fall first. Finally, a certain height is controlled to allow the material to fall more evenly. Materials of varying specific gravities fall together to their destination, and the gaps in the internal structure are adjustable. The materials finally enter the electric feeding device, where the electric feeding module acts to solve the problem of traditional feeding systems where the feeding terminal cannot buffer and stratify the materials while controlling their descent after mixing and weighing. This results in heavier materials falling faster and lighter materials falling first, and finally, by controlling a certain height, materials of varying specific gravities fall together to their destination. Traditional feeding systems also have limitations in controlling and adjusting the material distribution structure to achieve finer material screening. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall modular structure of the present invention;

[0020] Figure 2 This is a schematic diagram of the mixing and weighing bin, the feeding chute, and the electric feeding device of the present invention.

[0021] Figure 3 This is a schematic diagram of the planar structure of the mixing and weighing chamber of the present invention;

[0022] Figure 4 This is a schematic diagram of the fixed ring and weighing assembly structure of the present invention;

[0023] Figure 5 This is a schematic diagram of the planar structure of the fabric assembly of the present invention;

[0024] Figure 6 This is a schematic diagram of the buffer fabric plate and buffer screen shaft structure of the present invention;

[0025] Figure 7 This is a schematic diagram of the fabric shaft structure of the present invention;

[0026] Figure 8 This is a schematic diagram of the fabric shaft planar structure of the present invention;

[0027] Figure 9 This is a schematic diagram of the through-radius groove, adjusting element, and lifting assembly structure of the present invention;

[0028] Figure 10 This is a schematic diagram of the interlocking arc block structure of the present invention.

[0029] In the diagram: 1. Central control module; 11. Metering and feeding module; 12. Mixing module; 121. Motor drive module; 122. Gate opening and closing module; 13. Weighing module; 2. Discharging module; 21. Rotation module; 22. Telescopic module; 3. Gate activation module; 4. Uniform material distribution module; 41. Power module; 42. Spacing adjustment module; 5. Electric feeding module; 6. Mixing and weighing bin; 61. Discharge hopper; 62. Mixing paddle; 63. Mixing cylinder; 64. Electric drive valve; 65. Fixing ring; 651. First motor; 652. Drive shaft; 653. Support column; 66. Weighing assembly; 661. Weighing cylinder; 662. Weighing pan; 663. Connecting ring; 664. Telescopic column; 665. Rotation shaft; 666. Fixing motor; 67. Discharge chamber; 68. 7. Discharge chamber; 71. Feed chute; 72. Bar valve; 73. L-shaped pipe; 8. Electric feeding device; 9. Fabric assembly; 91. Buffer fabric plate; 911. Fixing groove; 92. Buffer screen shaft; 921. Buffer sleeve; 93. Fabric shaft; 931. First ring body; 932. Second ring body; 933. Through ring groove; 934. Limiting shaft; 935. Through arc groove; 9351. Fitting arc block; 93511. Folded protective fabric; 9352. Fitting groove; 936. Screen shaft; 937. Positive and negative spiral blades; 938. Adjusting element; 9381. Electric motor; 9382. First winding wheel; 9383. Winding rope; 939. Lifting assembly; 9391. Rotating cylinder; 9392. Second winding wheel; 9393. Threaded column; 9394. Fitting plate. Detailed Implementation

[0030] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0031] To address the technical problem of traditional feeding systems where, during the controlled descent of material after mixing and weighing, it is difficult to simultaneously buffer and stratify the material, resulting in heavier, faster-falling materials falling later and lighter, more compact materials falling first, and finally, controlling the height to ensure that materials of varying densities fall together to their destination, the following approach is needed. Figures 1-8 As shown, the following preferred technical solutions are provided:

[0032] A forced uniform feeding system with stirring and weighing functions includes a central control module 1. The central control module 1 is electrically connected to a metering and discharging module 11, a stirring module 12, and a weighing module 13. The stirring module 12 is electrically connected to a motor drive module 121 and a gate opening and closing module 122. The weighing module 13 is electrically connected to a discharging module 2. The discharging module 2 is electrically connected to a rotation module 21 and a telescopic module 22. The discharging module 2 is electrically connected to a gate activation module 3. The gate activation module 3 is electrically connected to a uniform feeding module 4. The uniform feeding module 4 is electrically connected to a power module 41 and a spacing adjustment module 42. The uniform feeding module 4 is electrically connected to an electric feeding module 5. The stirring module 12, weighing module 13, discharging module 2, and gate activation module 3 are located inside a stirring and weighing chamber 6. The uniform feeding module 4 is located inside a discharge chute 7. The electric feeding module 5 is located in an electric feeding device. Inside the 8, the discharge chute 7 is positioned between the mixing and weighing bin 6 and the electric feeding device 8. The mixing and weighing bin 6 is located above the electric feeding device 8. A material distribution assembly 9 is installed inside the lower end of the discharge chute 7. Two sets of the material distribution assembly 9 are installed, one set oriented horizontally north-south and the other horizontally east-west. Controlled by the metering and discharge module 11, a certain amount of material is added to the mixing and weighing bin 6. After the material is mixed by the mixing module 12, the weighing module 13 weighs it. After weighing, the material enters the discharge chute 7 through the combined action of the pouring module 2 and the gate activation module 3. The uniform distribution module 4 is activated, and the two sets of material distribution assemblies 9 inside the discharge chute 7 buffer and evenly distribute the material, ensuring that the descending material does not stratify. Finally, the material enters the electric feeding device 8, where it is operated by the electric feeding module 5.

[0033] A hopper 61 is provided at the lower end of the mixing and weighing bin 6, and the lower end of the hopper 61 is connected to the upper end of the discharge chute 7. A bar valve 71 is movably installed inside the upper end of the discharge chute 7, and two sets of bar valves 71 are provided. An L-shaped pipe 72 is provided at the lower end of the discharge chute 7, and the two sets of material distribution components 9 are located inside the L-shaped pipe 72. A discharge chamber 67 is opened at the upper end of the mixing and weighing bin 6, and a discharge cavity 68 is opened at the lower end of the discharge chamber 67, and the two are connected. A mixing cylinder 63 is fixedly installed inside the discharge chamber 67, and a mixing paddle 62 is movably installed inside the mixing cylinder 63. The inner wall of the discharge chamber 67 is lower An electrically driven valve 64 is movably installed at the end position, and two sets of electrically driven valves 64 are provided. The lower end of the two sets of electrically driven valves 64 is provided with a fixing ring 65, and the outer wall of the fixing ring 65 is fixedly connected to the feeding chamber 67. A weighing component 66 is movably installed inside the discharge chamber 68. A support column 653 is fixedly installed on the inner wall of the fixing ring 65, and four sets of support columns 653 are provided. A first motor 651 is fixedly installed at the center of the four sets of support columns 653. A drive shaft 652 is provided at the output end of the first motor 651, and the drive shaft 652 is fixedly connected to the center of the stirring paddle 62 through a shaft.

[0034] The weighing assembly 66 includes a weighing cylinder 661 and a weighing pan 662 disposed at the lower end of the weighing cylinder 661. A connecting ring 663 is disposed at the lower end of the weighing pan 662. A telescopic column 664 and a rotating shaft 665 are disposed on the outer side of the connecting ring 663. Two sets of telescopic columns 664 and two sets of rotating shafts 665 are disposed on the same axis. A fixed motor 666 is fixedly mounted on one set of rotating shafts 665 via a shaft. The fixed motor 666 is fixedly connected to the inner wall of the discharge chamber 68. The material feeding assembly 9 includes a buffer material feeding plate 91 fixedly installed on the inner wall of the L-shaped tube 72. A fixing groove 911 is opened inside the lower end of the buffer material feeding plate 91, and a buffer screen shaft 92 is fixedly installed inside the fixing groove 911. Two other sets of buffer screen shafts 92 are also provided on one side of this set of buffer screen shafts 92. A material feeding shaft 93 is movably installed on one side of one set of buffer screen shafts 92, and three sets of material feeding shafts 93 are provided. The outer side of the buffer screen shaft 92 The kit includes a buffer sleeve 921. The fabric shaft 93 includes a first ring 931 disposed on the inner wall of both sides of the L-shaped tube 72. A second ring 932 and a limiting shaft 934 are disposed between the two sets of first rings 931. There are four sets of second rings 932 and limiting shafts 934. The four sets of second rings 932 are fixedly connected to the two sets of first rings 931 through the four sets of limiting shafts 934. Each second ring 932 has a through ring groove 933 and a through arc groove 935. Multiple sets of through arc grooves 935 are provided, and the multiple sets of through arc grooves 935 are located on the periphery of a circle. The diameter of this circle is larger than the diameter of the through ring groove 933. Screening shafts 936 are embedded inside the multiple sets of through arc grooves 935, and the diameter of the screening shafts 936 is smaller than the length of the through arc grooves 935. Positive and negative spiral blades 937 are provided between the first ring bodies 931 of the two sets, and the positive and negative spiral blades 937 are partially located inside the four sets of through ring grooves 933.

[0035] Specifically, the material is controlled to enter the feeding chamber 67, which is the mixing drum 63. The first motor 651 drives the drive shaft 652 and the mixing paddle 62 to rotate, stirring the material inside the mixing drum 63. At this time, the two sets of electrically driven valves 64 are closed to prevent material from falling out of the mixing drum 63. After stirring, the material enters the weighing drum 661 through the mixing drum 63. Then, the two sets of electrically driven valves 64 open, and the weighing pan 662 weighs the material inside the weighing drum 661. The material is then retracted by the two sets of telescopic columns 664, so that one end of each set of telescopic columns 664 is no longer in contact with the inner wall of the feeding chamber 67. The fixed motor 666 drives the rotating shaft 665 to rotate the connecting ring 663, the weighing pan 662, and the weighing cylinder 661. At the same time, the fixed motor 666 provides an electrical signal to drive the power module 41, causing the multiple sets of feeding shafts 93 in the feeding assembly 9 to start rotating. After the weighing cylinder 661 rotates, it will pour out the material inside, which will then flow through the feeding hopper 61 and the feeding chute. 7. Upon entering the L-shaped tube 72, the material is cushioned by impacting the buffer cloth plate 91 and the buffer screen shaft 92, preventing excessive impact force. After contacting the three sets of buffer screen shafts 92, the material is transported towards the cloth shaft 93. Large materials cannot pass through the filtration gaps formed by the multiple sets of screen shafts 936 and will be transported along the outside of the multiple sets of cloth shafts 93, while small materials will pass through the filtration gaps formed by the multiple sets of screen shafts 936 and continue to fall downwards. Subsequently, materials with lower specific gravity fall first, followed by materials with higher specific gravity, and so on. The anti-spiral blades 937 are designed to distribute the material evenly, preventing it from falling all the way down from the center. The multiple sets of screen shafts 936 will oscillate inside the corresponding sets of through arc grooves 935, preventing the material from being squeezed into the gaps between the screen shafts 936. When the material passes through one set of feeding components 9, it will fall onto another set of feeding components 9. One set of feeding components 9 forces the material to be fed left and right, while the other set forces the material to be fed back and forth, so that there will be no obvious material stratification when the material reaches its destination.

[0036] To address the technical problem of traditional feeding systems where the feeding terminal is difficult to control and adjust the fabric structure to achieve the desired material screening fineness, thus limiting the material screening capabilities, such as... Figures 9-10 As shown, the following preferred technical solutions are provided:

[0037] A fitting groove 9352 is provided inside the through-groove 935. A fitting arc block 9351 is fitted inside the fitting groove 9352. A lifting assembly 939 and an adjusting element 938 are provided on one side of the through-groove 935, and the lifting assembly 939 and the adjusting element 938 are located inside the second ring body 932. The lifting assembly 939 includes a rotating cylinder 9391 movably disposed inside the second ring body 932. A second winding wheel 9392 is provided on the outside of the rotating cylinder 9391. A threaded post 9393 is threaded inside the rotating cylinder 9391. A fitting piece 9394 is provided at one end of the threaded post 9393. The fitting piece 9394 is fitted inside the fitting groove 9352, and one end of the fitting piece 9394 is fixed to the fitting arc block 9351. The connecting and adjusting element 938 includes an electric motor 9381 disposed inside the second ring body 932. The electric motor 9381 is connected to a first take-up wheel 9382 via an output shaft. Multiple sets of first take-up wheels 9382 are provided. Each set of first take-up wheels 9382 has a take-up rope 9383 on its outer side. Each set of first take-up wheels 9382 is movably connected to a rotating drum 9391 via a set of take-up ropes 9383. The electric motor 9381 controls multiple sets of interlocking arc blocks 9351 disposed inside the arc groove 935 through the multiple sets of first take-up wheels 9382. A folded protective cloth 93511 is disposed on the outer side of the interlocking arc block 9351, and the outer side of the folded protective cloth 93511 is fixedly connected to the inner wall of the interlocking groove 9352.

[0038] Specifically, when it is necessary to control the gap between multiple sets of screening shafts 936 to control the fineness of material feeding, the gap adjustment module 42 controls the electric motor 9381 to drive it, thereby causing multiple sets of first winding wheels 9382 to rotate, that is, to wind up multiple sets of winding ropes 9383, which in turn drives multiple sets of second winding wheels 9392 to rotate. After the second winding wheels 9392 rotate, they will drive the threaded column 9393 and the fitting piece 9394 to rise. At this time, the fitting arc block 9351 moves, thereby reducing the movement gap of the screening shaft 936 in the through arc groove 935, so that the screening shaft 936... The reduced movable range of 36 increases the gap between each pair of screen shafts 936. Multiple sets of first winding wheels 9382, provided in each set of adjusting elements 938, can control the movement of multiple sets of interlocking arc blocks 9351 penetrating the arc groove 935. Multiple sets of electric motors 9381 are installed inside the second ring 932 to control the movement of all interlocking arc blocks 9351 penetrating the arc groove 935 within this second ring 932, facilitating control and adjustment. Furthermore, the folded protective cloth 93511 ensures that as the interlocking arc blocks 9351 rise and fall, the folded protective cloth 93511 stretches and contracts accordingly, preventing unintentional material entry.

[0039] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0040] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A forced uniform feeding system with stirring and weighing functions, comprising a central control module (1), wherein the central control module (1) is electrically connected to a metering and feeding module (11), a stirring module (12), and a weighing module (13), characterized in that: The mixing module (12) is electrically connected to the motor drive module (121) and the gate opening and closing module (122). The weighing module (13) is electrically connected to the pouring module (2). The pouring module (2) is electrically connected to the rotation module (21) and the telescopic module (22). The pouring module (2) is electrically connected to the gate activation module (3). The gate activation module (3) is electrically connected to the uniform distribution module (4). The uniform distribution module (4) is electrically connected to the power module (41) and the spacing adjustment module (42). The uniform distribution module (4) is electrically connected to the electric feeding module (5). The mixing module (12), weighing module (13), pouring module (2) and gate activation module (3) are located inside the mixing and weighing bin (6). The uniform distribution module (4) is located inside the discharge chute (7). The electric feeding module (5) is located inside the electric feeding device (8). The discharge chute (7) is positioned between the mixing and weighing bin (6) and the electric feeding device (8). The mixing and weighing bin (6) is located above the electric feeding device (8). A material distribution assembly (9) is installed inside the lower end of the discharge chute (7). Two sets of material distribution assemblies (9) are provided. One set of material distribution assemblies (9) is arranged horizontally in a north-south direction, and the other set is arranged horizontally in an east-west direction. A certain amount of material is added to the mixing and weighing bin (6) under the control of the metering and discharging module (11). After the material is stirred by the stirring module (12), the weighing module (13) weighs it. After weighing, the material enters the discharge chute (7) under the combined action of the discharge module (2) and the gate activation module (3). The uniform distribution module (4) is activated, and the two sets of distribution components (9) inside the discharge chute (7) buffer and distribute the material evenly to ensure that the descending material will not be separated into layers. Finally, the material enters the electric feeding device (8) and is operated by the electric feeding module (5).

2. The forced uniform feeding system with stirring and weighing function according to claim 1, characterized in that: The lower end of the mixing and weighing bin (6) is provided with a feeding hopper (61), and the lower end of the feeding hopper (61) is connected to the upper end of the feeding chute (7). The upper end of the feeding chute (7) is provided with a bar valve (71), and two sets of bar valves (71) are provided. The lower end of the feeding chute (7) is provided with an L-shaped pipe (72), and the two sets of material distribution components (9) are located inside the L-shaped pipe (72).

3. The forced uniform feeding system with stirring and weighing function according to claim 2, characterized in that: The upper end of the mixing and weighing chamber (6) is provided with a feeding chamber (67), and the lower end of the feeding chamber (67) is provided with a pouring chamber (68), and the two are connected. The feeding chamber (67) is fixedly provided with a mixing cylinder (63), and the mixing cylinder (63) is movably provided with a mixing paddle (62). The lower end of the inner wall of the feeding chamber (67) is movably provided with an electric drive valve (64), and two sets of electric drive valves (64) are provided. The lower end of the two sets of electric drive valves (64) is provided with a fixing ring (65), and the outer wall of the fixing ring (65) is fixedly connected to the feeding chamber (67). The pouring chamber (68) is movably provided with a weighing component (66).

4. A forced uniform feeding system with stirring and weighing function according to claim 3, characterized in that: The inner wall of the fixed ring (65) is fixedly provided with a support column (653), and four sets of support columns (653) are provided. The center position of the four sets of support columns (653) is fixedly provided with a first motor (651). The output end of the first motor (651) is provided with a drive shaft (652), and the drive shaft (652) is fixedly connected to the center position of the stirring paddle (62) through a shaft.

5. A forced uniform feeding system with stirring and weighing function according to claim 4, characterized in that: The weighing assembly (66) includes a weighing cylinder (661) and a weighing pan (662) disposed at the lower end of the weighing cylinder (661). A connecting ring (663) is disposed at the lower end of the weighing pan (662). A telescopic column (664) and a rotating shaft (665) are disposed on the outside of the connecting ring (663). Two sets of telescopic columns (664) and rotating shafts (665) are provided. The two sets of telescopic columns (664) are on the same axis. The two sets of rotating shafts (665) are also on the same axis. A fixed motor (666) is fixedly disposed on one set of rotating shafts (665) through a shaft. The fixed motor (666) is fixedly connected to the inner wall of the pouring chamber (68).

6. A forced uniform feeding system with stirring and weighing function according to claim 1, characterized in that: The fabric assembly (9) includes a buffer fabric plate (91) fixedly installed on the inner wall of the L-shaped tube (72). A fixing groove (911) is opened inside the lower end of the buffer fabric plate (91), and a buffer screen shaft (92) is fixedly installed inside the fixing groove (911). Two other sets of buffer screen shafts (92) are also provided on one side of this set of buffer screen shafts (92). A fabric shaft (93) is movably installed on one side of one set of buffer screen shafts (92), and three sets of fabric shafts (93) are provided. A buffer sleeve (921) is fitted on the outside of the buffer screen shaft (92).

7. A forced uniform feeding system with stirring and weighing function according to claim 6, characterized in that: The fabric shaft (93) includes a first ring (931) disposed on the inner walls of both sides of the L-shaped tube (72). A second ring (932) and a limiting shaft (934) are disposed between the two sets of the first rings (931). Four sets of the second rings (932) and the limiting shaft (934) are provided. The four sets of the second rings (932) are fixedly connected to the two sets of the first rings (931) through the four sets of the limiting shafts (934). Each second ring (932) is provided with a through ring groove (933) and a through arc groove (935). Multiple sets of through-arc grooves (935) are provided, and the multiple sets of through-arc grooves (935) are located on the periphery of a circle. The diameter of this circle is larger than the diameter of the through-ring groove (933). A screening shaft (936) is embedded inside the multiple sets of through-arc grooves (935), and the diameter of the screening shaft (936) is smaller than the length of the through-arc groove (935). Positive and negative spiral plates (937) are provided between the two sets of first ring bodies (931), and part of the positive and negative spiral plates (937) are located inside the four sets of through-ring grooves (933).

8. A forced uniform feeding system with stirring and weighing function according to claim 7, characterized in that: A fitting groove (9352) is provided inside the through arc groove (935), and a fitting arc block (9351) is fitted inside the fitting groove (9352). A lifting component (939) and an adjusting element (938) are provided on one side of the through arc groove (935), and the lifting component (939) and the adjusting element (938) are located inside the second ring body (932).

9. A forced uniform feeding system with stirring and weighing function according to claim 8, characterized in that: The lifting assembly (939) includes a rotating cylinder (9391) movably disposed inside the second ring body (932). A second take-up wheel (9392) is disposed on the outside of the rotating cylinder (9391). A threaded post (9393) is threaded inside the rotating cylinder (9391). A fitting piece (9394) is disposed at one end of the threaded post (9393). The fitting piece (9394) is fitted inside the fitting groove (9352), and one end of the fitting piece (9394) is fixedly connected to the fitting arc block (9351).

10. A forced uniform feeding system with stirring and weighing function according to claim 9, characterized in that: The adjusting element (938) includes an electric motor (9381) disposed inside the second ring body (932). The electric motor (9381) is connected to a first take-up wheel (9382) via an output shaft. Multiple sets of the first take-up wheels (9382) are provided. Each set of the first take-up wheels (9382) is provided with a take-up rope (9383) on its outer side. One set of the first take-up wheels (9382) is movably connected to the rotating drum (9391) via a set of the take-up ropes (9383). The electric motor (9381) controls multiple sets of interlocking arc blocks (9351) disposed inside the arc groove (935) via the multiple sets of the first take-up wheels (9382). A folded protective cloth (93511) is provided on the outer side of the interlocking arc block (9351), and the outer side of the folded protective cloth (93511) is fixedly connected to the inner wall of the interlocking groove (9352).

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