Laying hen biological feed additive mixing device

Abstract

The laying hen biological feed additive mixing device comprises a base, two vertical rods are symmetrically fixed to the base, the two vertical rods are jointly connected with a supporting plate, a plurality of quantitative discharging mechanisms are arranged on the supporting plate, a material collecting mechanism is arranged below the quantitative discharging mechanisms, and a material mixing mechanism is arranged below the material collecting mechanism; the quantitative discharging mechanism comprises a discharging hopper, a feeding port is formed in the top of the discharging hopper, a buffer plate is fixed to an inner cavity of the discharging hopper, the bottom of the discharging hopper communicates with a material distribution chamber, a first motor is fixed to one outer side of the material distribution chamber, the output end of the first motor is connected with a first rotating shaft, and a plurality of material distribution plates are distributed on the first rotating shaft in a circular matrix mode. The problems that according to a mixing device in the prior art, the using amount of additives is inconvenient to control, manual measurement and adding are needed, the adding amount is different from the specified amount due to the existence of human factors, and meanwhile raw materials are not thoroughly mixed are solved.

Description

Technical Field

[0001] The utility model belongs to the technical field of mixing, and particularly relates to a mixing device for laying hen biological feed additives. Background Art

[0002] Feed additives are essential raw materials in modern feed industry, which have obvious effects on strengthening the nutritional value of basic feed, improving animal production performance, ensuring animal health, saving feed cost, and improving the quality of livestock products. However, for the mixing devices of feed additives in the prior art, it is inconvenient to control the dosage of additives, and manual measurement and addition are required. The existence of human factors will lead to a difference between the added amount and the specified amount, thus reducing the quality of livestock products. At the same time, the mixing of raw materials is not thorough enough. Therefore, this application proposes a mixing device for laying hen biological feed additives. Content of the Utility Model

[0003] This application proposes a mixing device for laying hen biological feed additives. By setting a series of structures, it solves the problems of the mixing devices of feed additives in the prior art, which are inconvenient to control the dosage of additives, require manual measurement and addition, the existence of human factors will lead to a difference between the added amount and the specified amount, thus reducing the quality of livestock products, and at the same time, the mixing of raw materials is not thorough enough.

[0004] This application proposes a mixing device for laying hen biological feed additives, which includes a base. Two vertical rods are symmetrically fixed on the base, and the other ends of the two vertical rods are commonly connected with a support plate. A plurality of quantitative feeding mechanisms are evenly arranged on the support plate. An aggregate mechanism is arranged below the quantitative feeding mechanism, and a mixing mechanism is arranged below the aggregate mechanism;

[0005] The quantitative feeding mechanism includes a feeding hopper. An inlet is opened at the top of the feeding hopper. A buffer plate is fixed in the inner cavity of the feeding hopper, and the buffer plate is located directly below the inlet. The bottom of the feeding hopper communicates with a distribution chamber. A first motor is fixed on one outer side of the distribution chamber. The output end of the first motor extends through the outer side wall of the distribution chamber into the inner cavity of the distribution chamber and is connected with a first rotating shaft. A plurality of distribution plates are arranged in a circular matrix on the first rotating shaft. The lower end of the distribution chamber communicates with a discharge channel.

[0006] Further, the aggregate mechanism includes an aggregate hopper fixed inside the two vertical rods. An inlet is opened at the top of the aggregate hopper, and the inlet matches with a plurality of discharge channels. A discharge opening is opened at the bottom of the aggregate hopper, and the discharge opening matches with the mixing mechanism.

[0007] Further, the mixing mechanism includes a mixing box. A feeding opening is opened at the top of the mixing box, and the feeding opening matches with the discharge opening. The two sides of the mixing box are connected with the inner side walls of the two vertical rods through two connecting blocks. A mixing component is arranged in the inner cavity of the mixing box.

[0008] Further, the mixing component includes a second motor fixed to the outer side of the top of the mixing tank. The output end of the second motor extends through the top of the mixing tank into the inner cavity of the mixing tank and is connected to a second rotating shaft. A number of spiral lifting blades are evenly arranged on the second rotating shaft. It further includes a third motor fixedly installed on the outer side of the bottom of the mixing tank. The output end of the third motor is connected to a third rotating shaft. The other end of the third rotating shaft extends through the bottom of the mixing tank into the inner cavity of the mixing tank and is connected to a rotating shell. The inside of the rotating shell is hollow and open at the upper end. The rotating shell is sleeved on the spiral lifting blades. A feeding port is opened on the bottom side wall of the rotating shell. A number of stirring rods are evenly arranged on the outer side wall of the rotating shell.

[0009] Further, the stirring rods are fixed to the outer side wall of the rotating shell by bolts.

[0010] Further, two arc-shaped material guiding platforms are symmetrically arranged at the bottom of the inner cavity of the mixing tank.

[0011] As can be seen from the above technical solutions, during use, various additives and feeds are respectively introduced into the inner cavity of the hoppers through the feeding ports opened at the tops of the multiple hoppers. The materials will first fall on the buffer plate fixed in the inner cavity of the feeding hopper for buffer feeding, and then enter the material distribution chamber. At this time, start the multiple first motors respectively. While the first motors drive the first rotating shafts, they will drive the multiple material distribution plates arranged in a circular matrix on the first rotating shafts to rotate. It should be noted here that the material distribution plates are in an equidistant fan shape, and the amount of each feeding is the capacity of a fan shape. By introducing the materials into the material distribution chamber for proportioning and feeding, by respectively controlling the multiple first motors, the amount of feeding of each hopper can be realized respectively. Finally, the materials are fed through the discharge channels connected to the lower end of the material distribution chamber, and then fall to the collecting mechanism arranged below the quantitative mechanism for collection. The materials fall from the bottom of the collecting mechanism into the mixing mechanism for full mixing, solving the problems in the prior art that in the feed additive mixing device, the dosage of the additives is inconvenient to control, manual measurement and addition are required, and the existence of human factors will cause the added amount to be different from the specified amount, thus reducing the quality of livestock products. At the same time, the mixing of raw materials is not thorough enough.

[0012] Compared with the prior art, the beneficial effects of the present utility model are:

[0013] 1. By setting a series of structures, this application eliminates the need for manual measurement and addition of various additives. Specifically, various additives and feed are respectively fed into the inner cavity of the hopper through the feed inlet. The material will first fall on the buffer plate for buffer feeding and then enter the distribution chamber. Multiple first motors are respectively started to drive multiple distribution plates arranged in a circular matrix to rotate. The distribution plates are equally spaced in a fan shape, and the amount of each feeding is the capacity of one fan shape. By feeding the material into the distribution chamber for proportioning and feeding, and by respectively controlling multiple first motors, the feeding amount of each hopper is respectively realized. Finally, the material is fed through the discharge channel connected to the lower end of the distribution chamber, solving the problem in the prior art that in the feed additive mixing device, it is inconvenient to control the dosage of additives, and manual measurement and addition are required. The existence of human factors will cause a difference between the added amount and the specified amount. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] In order to more clearly illustrate the technical solutions of this application, the following will briefly introduce the drawings required in the implementation cases. Obviously, for those of ordinary skill in the art, without creative efforts, other drawings can also be obtained based on these drawings.

[0015] Figure 1 FIG. 1 is a schematic structural diagram of a mixing device for laying hen biological feed additives proposed by the present utility model;

[0016] Figure 2 FIG. 2 is an enlarged schematic view of part A in a mixing device for laying hen biological feed additives proposed by the present utility model;

[0017] Figure 3 FIG. 3 is an enlarged schematic view of part B in a mixing device for laying hen biological feed additives proposed by the present utility model;

[0018] Illustration:

[0019] Wherein: 1. Base, 2. Vertical rod, 3. Support plate, 4. Hopper, 5. Feed inlet, 6. Buffer plate, 7. Distribution chamber, 8. First rotating shaft, 9. Distribution plate, 10. Discharge channel, 11. Aggregate hopper, 12. Inlet, 13. Discharge opening, 14. Mixing box, 15. Feeding opening, 16. Connecting block, 17. Second motor, 18. Second rotating shaft, 19. Screw lifting blade, 20. Third motor, 21. Third rotating shaft, 22. Rotating shell, 23. Feeding opening, 24. Stirring rod, 25. Bolt, 26. Arc-shaped guiding table. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0020] In order to enable those skilled in the art to better understand the technical solutions in this application, the following will clearly and completely describe the technical solutions in the embodiments of this application with reference to the drawings.

[0021] SeeFigures 1 - 3 。

[0022] Feed additives are raw materials that are necessarily used in the modern feed industry. They have obvious effects on strengthening the nutritional value of basic feeds, improving animal production performance, ensuring animal health, saving feed costs, and improving the quality of livestock products. However, for the feed additive mixing device in the existing technology, it is inconvenient to control the dosage of additives, and manual measurement and addition are required. The existence of human factors will lead to differences between the added amount and the specified amount, thereby reducing the quality of livestock products. At the same time, the mixing of raw materials is not thorough enough. For this reason, this application proposes a mixing device for laying hen biological feed additives, including a base 1, two vertical rods 2 symmetrically fixed on the base 1, and a support plate 3 connected to the other ends of the two vertical rods 2. A plurality of quantitative feeding mechanisms are evenly arranged on the support plate 3. An aggregate mechanism is arranged below the quantitative feeding mechanism, and a mixing mechanism is arranged below the aggregate mechanism;

[0023] The quantitative feeding mechanism includes a feeding hopper 4. An inlet 5 is opened at the top of the feeding hopper 4. A buffer plate 6 is fixed in the inner cavity of the feeding hopper 4. The buffer plate 6 is located directly below the inlet 5. The bottom of the feeding hopper 4 communicates with a distribution chamber 7. A first motor is fixed on one outer side of the distribution chamber 7. The output end of the first motor extends through the outer wall of the distribution chamber 7 into the inner cavity of the distribution chamber 7 and is connected to a first rotating shaft 8. A plurality of distribution plates 9 are arranged in a circular matrix on the first rotating shaft 8. The lower end of the distribution chamber 7 communicates with a discharge channel 10. Specifically, a variety of additives and feeds are respectively introduced into the inner cavity of the feeding hopper 4, and buffered and fed through the buffer plate 6, and then enter the distribution chamber 7. At this time, multiple first motors are respectively started to drive the plurality of distribution plates 9 arranged in a circular matrix on the first rotating shaft 8 to rotate. The distribution plates 9 are arranged in equidistant sectors, and the amount of each feeding is the capacity of one sector. By introducing the materials into the distribution chamber 7 for proportioning and feeding, by respectively controlling multiple first motors, the feeding amount of each feeding hopper 4 is respectively realized, and finally, feeding is carried out through the discharge channel 10 communicated with the lower end of the distribution chamber 7.

[0024] Further, the aggregate mechanism includes an aggregate hopper 11 fixed inside the two vertical rods 2. An inlet 12 is opened at the top of the aggregate hopper 11. The inlet 12 is matched with a plurality of discharge channels 10. A discharge port 13 is opened at the bottom of the aggregate hopper 11. The discharge port 13 is matched with the mixing mechanism. Specifically, it should be noted here that the diameter of the inlet 12 completely covers a plurality of discharge channels 10, and when a variety of materials are fed from the discharge channels 10, they are all introduced into the inner cavity of the aggregate hopper 11 through the inlet 12 for collection, and then centrally introduced into the inner cavity of the mixing mechanism through the discharge port 13 opened at the bottom of the aggregate hopper 11.

[0025] Further, the mixing mechanism includes a mixing box 14. A feeding port 15 is provided at the top of the mixing box 14, and the feeding port 15 is matched with the discharging port 13. Both sides of the mixing box 14 are connected to the inner side walls of two vertical rods 2 through two connecting blocks 16. A mixing component is arranged in the inner cavity of the mixing box 14. Specifically, the feeding port 15 and the discharging port 13 are arranged in a matching manner to feed raw materials into the mixing box 14, and the connecting blocks 16 are provided to fix the mixing box 14.

[0026] Further, the mixing component includes a second motor 17 fixed to the outer side of the top of the mixing box 14. The output end of the second motor 17 passes through the top of the mixing box 14 and extends into the inner cavity of the mixing box 14 and is connected to a second rotating shaft 18. A number of spiral lifting blades 19 are evenly arranged on the second rotating shaft 18. It also includes a third motor 20 fixedly installed on the outer side of the bottom of the mixing box 14. The output end of the third motor 20 is connected to a third rotating shaft 21. The other end of the third rotating shaft 21 passes through the bottom of the mixing box 14 and extends into the inner cavity of the mixing box 14 and is connected to a rotating shell 22. The inside of the rotating shell 22 is hollow and open at the upper end. The rotating shell 22 is sleeved on the spiral lifting blades 19. A feeding port 23 is opened on the bottom side wall of the rotating shell 22. A number of stirring rods 24 are evenly arranged on the outer side wall of the rotating shell 22. Specifically, by starting the second motor 17 and the third motor 20, the rotating directions of the second motor 17 and the third motor 20 are opposite. The rotating shell 22 and a number of stirring rods 24 evenly arranged on its outer side wall rotate to fully mix the materials in the inner cavity of the mixing box 14. After the materials are mixed, they fall to the bottom of the mixing box 14 and enter the inner cavity of the rotating shell 22 through the feeding port 23 opened on the bottom side wall of the rotating shell 22. The materials are lifted to the opening at the top of the rotating shell 22 by the spiral lifting blades 19 and discharged, and then fall into the inner cavity of the mixing box 14 again for stirring and mixing, realizing the cyclic mixing of the materials and making the materials more evenly mixed.

[0027] Further, the stirring rods 24 are fixed to the outer side wall of the rotating shell 22 through bolts 25. Specifically, the detachable stirring rods 24 are realized by setting the bolts 25, which is convenient for replacing the stirring rods 24.

[0028] Further, two arc-shaped guiding platforms 26 are symmetrically arranged at the bottom of the inner cavity of the mixing box 14. Specifically, by arranging the arc-shaped guiding platforms 26, the materials are guided to the feeding port 23 opened on the bottom side wall of the rotating shell 22.

[0029] As can be seen from the above technical solutions, during use, various additives and feeds are respectively introduced into the inner cavity of the blanking hopper 4 through the feed ports 5 opened at the tops of multiple blanking hoppers 4. The materials will first fall on the buffer plate 6 fixed in the inner cavity of the feed hopper for buffer blanking, and then enter the material distribution chamber 7. At this time, start multiple first motors respectively. While the first motors drive the first rotating shafts 8, they will drive the multiple material distribution plates 9 arranged in a circular matrix on the first rotating shafts 8 to rotate. It should be noted here that the material distribution plates 9 are in an equidistant fan shape, and the amount of each blanking is the capacity of one fan shape. By introducing the materials into the material distribution chamber 7 for proportional blanking, by respectively controlling the multiple first motors, the amount of blanking of each blanking hopper 4 is respectively realized. Finally, blanking is carried out through the discharge channel 10 communicated with the lower end of the material distribution chamber 7, and then it falls to the aggregate mechanism arranged below the metering mechanism for aggregation. It should be noted here that the diameter of the feed inlet 12 completely covers the multiple discharge channels 10, and when multiple materials are blanked from the discharge channels 10, they are all introduced into the inner cavity of the aggregate hopper 11 through the feed inlet 12 for collection, and then are centrally introduced into the inner cavity of the mixing mechanism through the blanking port 13 opened at the bottom of the aggregate hopper 11;

[0030] It falls into the mixing mechanism through the bottom of the aggregate mechanism for full mixing. Specifically, by starting the second motor 17 and the third motor 20, the rotation directions of the second motor 17 and the third motor 20 are opposite, and the rotating shell 22 and several stirring rods 24 uniformly arranged on its outer side wall rotate to fully mix the materials in the inner cavity of the mixing box 14. After the materials are mixed, they fall to the bottom of the mixing box 14 and enter the inner cavity of the rotating shell 22 through the feeding port 23 opened on the bottom side wall of the rotating shell 22. The materials are lifted to the top opening of the rotating shell 22 by the spiral lifting blades 19 and discharged, and then fall into the inner cavity of the mixing box 14 again for stirring and mixing, realizing the cyclic mixing of the materials and making the materials mix more evenly. It should be noted here that two arc-shaped guiding platforms 26 symmetrically arranged at the bottom of the inner cavity of the mixing box 14 are used to guide the materials to the feeding port 23 opened on the bottom side wall of the rotating shell 22, and the side wall of the mixing box 14 is also provided with a discharge port for discharging the materials, solving the problems in the existing feed additive mixing device that the dosage of the additives is inconvenient to control, manual measurement and addition are required, and the existence of human factors will cause the added amount to be different from the specified amount, thereby reducing the quality of livestock products. At the same time, the mixing of raw materials is not thorough enough.

[0031] After considering the specification and the practice of the present application, those skilled in the art will easily think of other implementation schemes of the present application. The present application aims to cover any variations, uses or adaptations of the present application. These variations, uses or adaptations follow the general principles of the present application and include the common general knowledge or conventional technical means in the technical field not disclosed in the present application. The specification and the embodiments are only regarded as exemplary, and the true scope of the present application is pointed out by the claims.

[0032] It should be understood that the present application is not limited to the exact structures described above and shown in the drawings, and various modifications and changes can be made without departing from its scope. The embodiments of the present application described above do not constitute a limitation on the protection scope of the present application.

Claims

1. A mixing device for biological feed additives for laying hens, characterized in that: It includes a base (1), on which two vertical rods (2) are symmetrically fixed. The other ends of the two vertical rods (2) are commonly connected to a support plate (3). A plurality of quantitative feeding mechanisms are evenly arranged on the support plate (3). An aggregate mechanism is arranged below the quantitative feeding mechanism, and a mixing mechanism is arranged below the aggregate mechanism. The quantitative feeding mechanism includes a feeding hopper (4). An inlet (5) is opened at the top of the feeding hopper (4). A buffer plate (6) is fixed in the inner cavity of the feeding hopper (4), and the buffer plate (6) is located directly below the inlet (5). The bottom of the feeding hopper (4) is communicated with a material distribution chamber (7). A first motor is fixed on one outer side of the material distribution chamber (7). The output end of the first motor extends through the outer wall of the material distribution chamber (7) into the inner cavity of the material distribution chamber (7) and is connected to a first rotating shaft (8). A plurality of material distribution plates (9) are arranged in a circular matrix on the first rotating shaft (8). The lower end of the material distribution chamber (7) is communicated with a discharge channel (10).

2. The mixing device for the biological feed additive for laying hens according to claim 1, characterized in that: The aggregate mechanism includes an aggregate hopper (11) fixed to the inner sides of the two vertical rods (2). An inlet (12) is opened at the top of the aggregate hopper (11), and the inlet (12) is matched with the plurality of discharge channels (10). A discharge opening (13) is opened at the bottom of the aggregate hopper (11), and the discharge opening (13) is matched with the mixing mechanism.

3. A mixing device for laying hen biological feed additive according to claim 2, characterized in that: The mixing mechanism includes a mixing box (14). A feeding opening (15) is opened at the top of the mixing box (14), and the feeding opening (15) is matched with the discharge opening (13). The two sides of the mixing box (14) are connected to the inner side walls of the two vertical rods (2) through two connecting blocks (16). A mixing component is arranged in the inner cavity of the mixing box (14).

4. A mixing device for laying hen biological feed additive according to claim 3, characterized in that: The mixing component includes a second motor (17) fixed to the outer side of the top of the mixing box (14). The output end of the second motor (17) extends through the top of the mixing box (14) into the inner cavity of the mixing box (14) and is connected to a second rotating shaft (18). A number of spiral lifting blades (19) are evenly arranged on the second rotating shaft (18). It also includes a third motor (20) fixedly installed on the outer side of the bottom of the mixing box (14). The output end of the third motor (20) is connected to a third rotating shaft (21). The other end of the third rotating shaft (21) extends through the bottom of the mixing box (14) into the inner cavity of the mixing box (14) and is connected to a rotating shell (22). The inside of the rotating shell (22) is hollow and the upper end is open. The rotating shell (22) is sleeved on the spiral lifting blades (19). A feeding opening (23) is opened on the bottom side wall of the rotating shell (22). A number of stirring rods (24) are evenly arranged on the outer side wall of the rotating shell (22).

5. The mixing device for laying hen biological feed additive according to claim 4, characterized in that: The stirring rod (24) is fixed to the outer side wall of the rotating shell (22) through a bolt (25).

6. The premixing device for laying hen biological feed additive according to claim 3, wherein: Two arc-shaped guiding platforms (26) are symmetrically arranged at the bottom of the inner cavity of the mixing box (14).

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