Biological fermentation feed mixing device and biological fermentation feed processing method

Abstract

The invention discloses a biological fermentation feed mixing device and a biological fermentation feed processing method.The biological fermentation feed mixing device comprises a carrier assembly, a block base and a scattering mechanism, first air cylinders are fixedly installed on a front support part and a rear support part in the carrier assembly, and a mixing box is movably installed on the block base; the mixing box is driven by a first air cylinder to form an overturning structure on a support part of the carrier frame assembly, the mixing box is driven by a servo motor to form a rotating structure on the block body seat, the scattering mechanism is arranged in a box cavity of the mixing box, and an arc-shaped track frame used for driving the scattering mechanism is arranged on the right side of the scattering mechanism. When the biological fermentation feed mixing device and the biological fermentation feed processing method are used for mixing the materials, the feed raw materials can be turned over comprehensively and sufficiently, sufficient mixing of the materials is guaranteed, the processing efficiency of the mixing process is improved, caking materials in the materials can be scattered, and the processing efficiency of the mixing process is improved. And uniform mixing of the materials is ensured.

Description

Technical Field

[0001] The invention relates to the technical field of bio-fermentation feed processing, in particular to a bio-fermentation feed mixing device and a bio-fermentation feed processing method. Background Art

[0002] Bio-fermented feed is a product obtained by fermenting feed raw materials using microorganisms. Treating feed raw materials through microbial fermentation can effectively improve the nutritional value and utilization rate of feed.

[0003] In the process of biological fermentation feed production and processing, a mixing device is required to mix the feed raw materials. However, the mixing devices used in the prior art still have certain shortcomings, such as: Existing biological fermentation feed mixing devices mostly directly use a stirring rod to rotate to mix the feed raw materials, but its single stirring and mixing method cannot achieve comprehensive turning of the feed raw materials, and the mixing is not sufficient; During the processing of bio-fermented feed, if there are agglomerated materials in the mixed materials, it will easily lead to uneven mixing. The traditional mixing device does not have a breaking up structure and cannot break up the agglomerated materials in the materials.

[0004] Therefore, we propose a biological fermentation feed mixing device to solve the above problems. Summary of the invention

[0005] The purpose of the present invention is to provide a bio-fermentation feed mixing device and a bio-fermentation feed processing method to solve the problem that the traditional single stirring and mixing method proposed in the above-mentioned background technology cannot achieve comprehensive turning of the feed raw materials, cannot break up the agglomerated materials in the materials, and causes insufficient mixing and uneven mixing.

[0006] To achieve the above object, the present invention provides the following technical solutions: A biological fermentation feed mixing device, comprising: A carrier assembly, wherein a first cylinder is fixedly mounted on both front and rear bracket parts of the carrier assembly; Also includes: A block seat, on which a mixing box is movably mounted, which is driven by a first cylinder to form a flipping structure on the bracket portion of the carrier assembly, and the mixing box is driven by a servo motor to form a rotating structure on the block seat; The scattering mechanism is arranged in the mixing box cavity, and an arc track frame for driving the scattering mechanism is arranged on the right side of the scattering mechanism.

[0007] Preferably, the block seat is rotatably connected to the upper end of the bracket part in the carrier assembly through a bearing, the front and rear shaft column parts in the block seat are fixedly connected to the first gear through bolts, and the left side of the first gear is meshed with a gear condition, and the lower end of the gear condition is fixedly connected to the output end of the first cylinder through bolts, and the gear condition forms a sliding structure in the groove cavity of the bracket part in the carrier assembly; Wherein, a servo motor is fixedly mounted on the middle part of the upper end of the block seat by means of bolts, and a second gear is fixedly connected to the output end of the servo motor.

[0008] Preferably, the block seat is rotatably connected to the feed pipe part in the mixing box with the assistance of a bearing, and the mixing box forms a flip structure on the bracket part in the carrier assembly with the assistance of the block seat; Among them, a pipe cover is threadedly fixed at the pipe mouth of the feed pipe part in the mixing box, a third gear is fixedly connected to the feed pipe part in the mixing box by bolts, and the third gear is connected to the second gear in a meshing manner, a valve plate is flipped and connected to the pipe mouth of the discharge pipe part in the mixing box, and the front and rear ends of the shaft rod in the valve plate are fixedly connected with a paddle plate, and the paddle plate is connected to the "T"-shaped rod frame in the second cylinder in a sliding manner, and the second cylinder is fixedly mounted on the lower box wall of the mixing box by bolts.

[0009] Preferably, the dispersing mechanism comprises a tube shell and a slapping plate, the connecting plate portion in the tube shell is fixedly connected to the middle of the right box wall of the mixing box by bolts, a linkage frame is slidably connected in the shell cavity of the left section of the tube shell, and a gear assembly is rotatably connected in the shell cavity of the left section of the tube shell by bearings, and the front and rear ends of the circular shaft portion in the gear assembly are fixedly connected to the slapping plate by bolts; Wherein, a driving rod is connected to the right section of the shell cavity of the tube shell through the auxiliary rotation of the bearing, and a driving groove is opened on the left section of the rod body of the driving rod, and the driving groove is connected to the pin in the linkage frame in a sliding manner, and the right end of the driving rod is fixedly connected to the fourth gear by a bolt; Among them, the right end of the tube shell is connected to the tube body seat through the assistance of bearing rotation, and the tube body seat is assisted by rollers to form a sliding structure on the arc track frame, and the lower end of the arc track frame is welded and fixed to the bottom frame part of the carrier assembly, and the lower end of the arc track frame is fixedly connected to a material discharge chute plate in an inclined state.

[0010] Preferably, the lower frame body of the "U"-shaped frame body in the linkage frame is arranged in a rack-like structure, and the rack-like frame body in the linkage frame is connected to the gear body in the gear assembly in a meshing manner.

[0011] Preferably, the maximum sliding distance of the linkage frame is equal to the length of the spiral groove in the driving groove, and the tubular frame body of the linkage frame is slidably connected to the left section of the driving rod.

[0012] Preferably, through holes are opened on the plate body of the flapping plate at equal intervals, the flapping plate is arranged in an inclined state on the tube shell, and the flapping plate forms a reciprocating flip structure on the tube shell with the assistance of a gear assembly.

[0013] Preferably, the arc center of the arc track frame coincides with the flip center of the mixing box, and the toothed ring portion of the arc track frame and its frame body are arranged in a co-arc center structural state, and the toothed ring portion of the arc track frame is meshed and connected with the fourth gear.

[0014] Furthermore, the present invention also provides a method for processing a bio-fermented feed, using the bio-fermented feed mixing device as described above to process the material, and the processing method comprises the following steps: Step 1: After removing the tube cover, add the proportioned feed raw materials into the mixing box through the feeding pipe in the mixing box; Step 2: The second gear and the third gear are meshed to drive the mixing box to rotate, and the feed raw materials are turned and mixed with the assistance of the flapping plate; Step 3: The mixing box reciprocates to turn over, driving the beating plate to reciprocate to turn over, beating and breaking up the feed raw materials, further assisting in the full mixing of the feed raw materials; Step 4: By turning the mixing box downward, the valve plate is driven to turn over and unfold, and the material discharge operation after mixing is carried out.

[0015] Compared with the prior art, the present invention has the following beneficial effects: When the bio-fermentation feed mixing device and the bio-fermentation feed processing method described in the present invention are used to process materials, the feed raw materials are fully and fully turned over through the dual mixing methods of rotation mixing and flipping and shaking mixing, thereby ensuring that the materials are fully mixed, the mixing uniformity effect is fully guaranteed, and the processing efficiency of the mixing process is improved. The agglomerated materials in the materials can be efficiently dispersed, and the feed raw materials can be efficiently beaten and dispersed. The agglomerations in the materials can be fully eliminated, the agglomeration of the feed raw materials is avoided, and the mixing uniformity of the materials is guaranteed.

[0016] The biological fermentation feed mixing device of the present invention is provided with a mixing box and a beating plate. The beating plate is arranged on the tube shell in an equidistant and inclined state. The second gear and the third gear cooperate with each other to drive the mixing box to rotate. The diversion of the beating plate is used to mix the feed raw materials. The first gear and the gear condition cooperate with each other to form a reciprocating flipping structure on the carrier assembly with the assistance of the block seat. The reciprocating flipping and toggling of the beating plate is used to further mix the feed raw materials. The dual mixing methods of rotation mixing and flipping and shaking mixing are different from the traditional single stirring mixing process, and the feed raw materials are fully and fully flipped, which effectively ensures the full mixing operation during the processing and also ensures the mixing efficiency.

[0017] The biological fermentation feed mixing device of the present invention is provided with a mixing box and a valve plate. Through the cooperation between the first gear and the gear condition, the mixing box is maintained in a tilted downward state, and the discharge pipe part in the mixing box is arranged corresponding to the wide part in the discharge chute plate. Through the mutual cooperation between the "T"-shaped rod frame and the paddle plate in the second cylinder, the valve plate is driven to flip and unfold, realizing automatic discharge operation after mixing, ensuring the convenience of the discharge process, and effectively improving the processing efficiency of the mixing process.

[0018] The biological fermentation feed mixing device of the present invention is provided with a linkage frame and a driving rod. During the reciprocating flipping process of the mixing box, the meshing action between the fourth gear and the gear ring part in the arc track frame is used to drive the driving rod to rotate reciprocatingly, and the mutual cooperation between the pin and the driving groove in the linkage frame is used to drive the linkage frame to slide reciprocatingly. The meshing action between the rack-shaped lower frame body in the linkage frame and the gear body in the gear assembly is used to drive the flapping plate to perform reciprocating flipping motion. During the flipping, shaking and mixing process, high-efficiency flapping and breaking up of the feed raw materials is achieved, which can fully eliminate the lumps in the materials and avoid the lumps of the feed raw materials, further ensuring the full mixing of the feed raw materials. In addition, through the setting of the flapping action, the feed raw materials are further flipped and mixed, ensuring the uniform mixing of the materials and further improving the mixing efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the front cross-sectional structure of the present invention; Figure 2 It is a schematic diagram of a top-view cross-sectional structure of the present invention; Figure 3 This is a schematic diagram of the front cross-sectional structure of the connection between the mixing box and the tube shell of the present invention; Figure 4 For the present invention Figure 3 The enlarged structural diagram at A in the middle; Figure 5 This is a schematic diagram of the front view of the three-dimensional structure of the disintegration mechanism of the present invention; Figure 6 It is a schematic diagram of the front cross-sectional three-dimensional structure of the connection between the tube shell and the linkage frame of the present invention; Figure 7 It is a schematic diagram of a front cross-sectional three-dimensional structure of the connection between the linkage frame and the driving rod of the present invention; Figure 8 It is a schematic diagram of the top cross-sectional structure of the connection between the tube body seat and the arc-shaped track frame of the present invention; Fig. 9 It is a schematic side view of the stereoscopic structure of the fourth gear connected to the arc-shaped track frame of the present invention.

[0020] In the figure: 1. carrier assembly; 2. first cylinder; 3. block seat; 4. first gear; 5. gear condition; 6. servo motor; 7. second gear; 8. mixing box; 9. pipe cover; 10. third gear; 11. valve plate; 12. paddle plate; 13. second cylinder; 14. breaking mechanism; 15. pipe shell; 16. linkage frame; 17. gear assembly; 18. beating plate; 19. driving rod; 20. driving groove; 21. fourth gear; 22. pipe body seat; 23. arc track frame; 24. unloading chute plate. DETAILED DESCRIPTION

[0021] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0022] See also Figure 1-9 , the present invention provides a technical solution: A biological fermentation feed mixing device comprises a carrier assembly 1, a block seat 3 and a breaking mechanism 14.

[0023] Before using the bio-fermentation feed mixing device, it is necessary to place the well-proportioned feed raw materials in the mixing device. Figure 1 , Figure 2 and Figure 3 As shown, a feed pipe portion is provided in the middle of the left box wall of the mixing box 8, wherein a pipe cover 9 is fixedly connected to the pipe mouth of the feed pipe portion by a threaded connection. The pipe cover 9 is screwed and rotated to complete the disassembly operation of the pipe cover 9 on the feed pipe portion in the mixing box 8, and the proportioned feed raw materials are poured into the box cavity of the mixing box 8 through the feed pipe portion.

[0024] When the biological fermentation feed mixing device is used to mix the feed raw materials with good proportions, according to the attached Figure 1 , Figure 3 , Figure 8 and Fig. 9As shown, the servo motor 6 is fixedly connected to the middle of the upper end of the block seat 3 by bolts after being placed, and is arranged in a vertical state. Since the second gear 7 is sleeved and fixedly connected to the output end of the servo motor 6 after being placed, and the second gear 7 is connected to the third gear 10 in a meshing manner, the servo motor 6 is started to operate, and the meshing action between the second gear 7 and the third gear 10 drives the third gear 10 to move; Since the third gear 10 is sleeved and fixedly connected to the feed pipe part in the mixing box 8 by bolts after being placed, the mixing box 8 is movably arranged on the block seat 3 after being placed, wherein the feed pipe part is installed with a bearing, and wherein the feed pipe part is connected to the block seat 3 in a movably penetrating manner, and since a connecting disk part of an integrated structure is arranged on the right section shell of the tube shell 15, the connecting disk part is fixedly connected to the middle part of the right box wall of the mixing box 8 by bolts after the tube shell 15 is placed, bearings are installed at both ends of the tube cavity of the tube body seat 22, which are movably sleeved on the right section shell of the tube shell 15 after being placed, and since the tube body seat 22 is movably limited in the frame of the arc track frame 23, the third gear 10 is driven to drive the mixing box 8 to move, so that the feed pipe part in the mixing box 8 is assisted by the bearing to rotate on the block seat 3, and the right end of the tube shell 15 is assisted by the bearing to rotate on the tube body seat 22, that is, the mixing box 8 is driven to rotate; Since the scattering mechanism 14 is placed in the central position of the mixing box 8, the left section of the tube shell 15 in the scattering mechanism 14 is inserted into the mixing box 8, and is vertically arranged on the right wall of the mixing box 8. The flapping plate 18 is inclined on the tube shell 15, and is evenly spaced on the left section of the tube shell 15. The flapping plate 18 plays the role of a diverter and a blocking plate in the mixing box 8. During the rotation of the mixing box 8, the feed raw materials are driven to move. The movement trajectory of the feed raw materials is changed by the diversion and blocking of the flapping plate 18, so that the feed raw materials are turned over and mixed.

[0025] In the process of mixing feed raw materials, the agglomerated feed raw materials need to be beaten and dispersed by the dispersing mechanism 14. Figure 1 , Figure 2 , Figure 5 , Figure 6 , Figure 7 , Figure 8 and Fig. 9As shown, the carrier assembly 1 consists of a base frame and a bracket, wherein the bracket is symmetrically arranged front and rear about the horizontal center axis of the base frame, and wherein the bracket is arranged in a vertically upward structural state at the left section of the base frame. Since the first cylinder 2 is fixedly installed on the front and rear brackets of the carrier assembly 1 by bolts, the first cylinder 2 is arranged in a vertically upward state after being installed, and since the cross section of the gear condition 5 is a "convex"-shaped structure, it is movably clamped in the groove cavity of the bracket portion of the carrier assembly 1 after being installed, and its lower end is fixedly connected to the output end of the first cylinder 2 by bolts, and the gear condition 5 is made to slide reciprocatingly in the groove cavity of the bracket portion of the carrier assembly 1 by controlling the first cylinder 2 to perform reciprocating telescopic motion; Since the middle parts of the front and rear side walls of the block seat 3 are both provided with shaft columns of an integrated structure, wherein bearings are arranged on the shaft columns, the block seat 3 is placed in an active state between the front and rear bracket parts in the carrier assembly 1 after being placed, wherein the front and rear shaft columns are respectively movably inserted in the front and rear bracket parts in the carrier assembly 1, and since the front and rear shaft columns in the block seat 3 are both provided with first gears 4, the first gear 4 is sleeved and fixedly connected to the shaft column part in the block seat 3 after being placed, and its left side is meshedly connected to the gear condition 5, and after the gear condition 5 slides back and forth, the first gear 4 is operated to perform reciprocating rotational motion, so that the block seat 3 is assisted by the bearing to perform reciprocating rotation at the upper end of the bracket part in the carrier assembly 1, and the mixing box 8 is assisted by the block seat 3 to perform reciprocating flipping on the bracket part in the carrier assembly 1; Since the arc track frame 23 is divided into two front and rear frames, and the front and rear frames are both provided with an arc chute, and the chute and the frame are at the same arc center, the lower end of the arc track frame 23 is welded and fixed to the bottom frame portion of the carrier assembly 1, and the arc center coincides with the turning center of the mixing box 8. In addition, since rollers are rotatably connected to the front and rear walls of the tube body seat 22, which are arranged in the gap between the front and rear frames of the arc track frame 23, and the front and rear rollers are respectively movably clamped in the chute of the front and rear frames of the arc track frame 23, when the mixing box 8 is driven to flip back and forth, the tube body seat 22 is assisted by the rollers to slide back and forth on the arc track frame 23, thereby assisting the mixing box 8 to flip back and forth; Since the rear frame body of the arc track frame 23 is provided with an integrated gear ring portion, wherein the gear ring portion and the frame body are arranged in a coaxial arc structure, and since the gear ring portion in the arc track frame 23 is meshed and connected with the fourth gear 21, during the reciprocating turning process of the mixing box 8, the meshing action between the gear ring portion in the arc track frame 23 and the fourth gear 21 drives the fourth gear 21 to perform reciprocating rotational motion in the forward and reverse directions; Since the right section of the driving rod 19 is provided with a bearing, it is inserted into the right section of the tube cavity of the tube shell 15 in an active state after being installed, and its right end is arranged in an extended state, and since the fourth gear 21 is sleeved and fixedly connected to the right end of the driving rod 19 by bolts after being installed, the driving rod 19 is driven by the fourth gear 21, so that the driving rod 19 performs reciprocating rotation in the right section of the tube cavity 15 in the forward and reverse directions with the assistance of the bearing; After the driving rod 19 is installed, its left end rod body is movably inserted into the frame cavity of the tubular frame body in the linkage frame 16, and a driving groove 20 is opened on the left section rod body. The driving groove 20 is composed of a combination of a plurality of spiral grooves, wherein two adjacent spiral grooves are arranged in opposite states, and they are arranged in a wavy annular structure state. In addition, since the right section frame body of the linkage frame 16 is arranged in a tubular structure, wherein a pin is threadedly fixed on the frame wall of the tubular frame body and is arranged in a vertical state, after the linkage frame 16 is installed, the pin is movably inserted into the driving groove 20. During the rotation of the driving rod 19, the pin in the linkage frame 16 slides along the driving groove 20, and the linkage frame 16 is driven to move through the mutual cooperation between the pin in the linkage frame 16 and the driving groove 20. Since the left section of the linkage frame 16 is arranged in a "U"-shaped structure, it is inserted into the left section of the tube cavity of the tube shell 15 in an active state after being installed, and the maximum sliding distance of the linkage frame 16 is equal to the length of the spiral groove in the driving groove 20. After the linkage frame 16 is driven, the tubular frame slides on the left section of the driving rod 19, so that the linkage frame 16 reciprocates in the left section of the shell cavity of the tube shell 15. Since the gear assembly 17 is composed of a gear body and a circular shaft portion, wherein the middle section of the circular shaft portion is arranged in a square structure, and wherein the gear body is arranged in the middle section of the circular shaft portion, and is connected to the circular shaft portion in a fixed clamping manner, the front and rear ends of the circular shaft portion in the gear assembly 17 are both equipped with bearings, which are arranged in the frame frame of the "U"-shaped frame body in the linkage frame 16, and wherein the front and rear ends of the circular shaft portion are respectively movably inserted through the front and rear shell walls of the tube shell 15 and extend to the outside, and since the lower frame body of the "U"-shaped frame body in the linkage frame 16 is arranged in a rack-shaped structure, wherein the rack-shaped frame body is connected to the gear body in the gear assembly 17 in a meshing manner, during the reciprocating sliding process of the linkage frame 16, the gear assembly 17 is assisted by the bearing to reciprocate in the positive and negative directions in the shell cavity of the left section of the tube shell 15; Since the gear assembly 17 is arranged in an equidistant state in the left section of the shell 15, the front and rear ends of the circular shaft portion are provided with flapping plates 18, which are sleeved and fixedly connected to the circular shaft portion of the gear assembly 17 by bolts after being installed, and are placed in the chamber of the mixing box 8. Since the maximum span of the flapping plate 18 is smaller than the height of the mixing box 8, the flapping plate 18 is driven by the gear assembly 17 to perform a reciprocating flipping motion on the shell 15, and the flapping plate Through holes are provided at equal intervals on the plate body 18. According to the above, when the mixing box 8 is turned down, the feed raw materials slide to the right along the lower cavity wall of the mixing box 8, and the feed raw materials are beaten and scattered by the reciprocating beating plate 18 to avoid the feed raw materials from agglomerating. When the mixing box 8 is turned up, the feed raw materials also slide to the left along the lower cavity wall of the mixing box 8, and the feed raw materials are also beaten and scattered by the reciprocating beating plate 18, thereby fully completing the mixing of the feed raw materials.

[0026] After the feed raw materials are mixed, when feeding, Figure 1 , Figure 3 and Figure 4 As shown, the lower box wall at the right end of the mixing box 8 is provided with an integrated discharge pipe part, and the discharge chute plate 24 is provided in a "convex"-shaped structure, fixedly connected to the lower end of the arc track frame 23, and provided in an inclined state. After the discharge chute plate 24 is placed, the width dimension of the wide part thereof is greater than the width dimension of the discharge pipe part in the mixing box 8, and the narrow part thereof is inserted through the gap between the front and rear bracket parts in the carrier assembly 1. Through the cooperation between the first gear 4 and the gear condition 5, the mixing box 8 is driven to be maintained in a downwardly flipped state, so that the wide part of the discharge chute plate 24 is provided corresponding to the discharge pipe part in the mixing box 8; Since a "T"-shaped rod frame is fixedly connected to the output end of the second cylinder 13, which is fixedly installed on the lower box wall of the mixing box 8 by bolts, and since a slide groove is provided on the plate body of the paddle plate 12, after the second cylinder 13 is installed, the "T"-shaped rod frame is inserted into the slide groove of the paddle plate 12 in an active state, and the "T"-shaped rod frame and the paddle plate 12 are arranged in an inclined state, and the second cylinder 13 is started to operate, and the "T"-shaped rod frame in the second cylinder 13 is driven to slide on the paddle plate 12, pushing the paddle plate 12 to move; Since the left end of the valve plate 11 is fixedly connected with an axis rod, it is movably fixed at the pipe mouth of the discharge pipe part in the mixing box 8 after being installed, and the front and rear ends of the axis rod respectively movably penetrate the front and rear pipe walls of the discharge pipe part in the mixing box 8 and extend to the outside, and the axis rod forms a rotating structure on the pipe wall of the discharge pipe part in the mixing box 8, and since the front and rear ends of the axis rod in the valve plate 11 are fixedly connected with a paddle 12, the paddle 12 and the valve plate 11 form a coaxial rotating structure, and after the paddle 12 is pushed, it drives the valve plate 11 to flip and unfold at the pipe mouth of the discharge pipe part in the mixing box 8, and the discharge operation is performed through the discharge pipe part in the mixing box 8.

[0027] Furthermore, in order to better demonstrate the workflow of the bio-fermentation feed mixing device, the present invention also provides a bio-fermentation feed processing method, which uses the bio-fermentation feed mixing device as described above to process materials, and the processing method includes the following steps: Step 1: After removing the pipe cover 9, add the well-proportioned feed raw materials into the chamber of the mixing box 8 through the feeding pipe in the mixing box 8; Step 2: The second gear 7 and the third gear 10 are meshed to drive the mixing box 8 to rotate, and the feed raw materials are turned and mixed with the assistance of the flapping plate 18; Step 3: The mixing box 8 performs a reciprocating turning motion, driving the beating plate 18 to perform a reciprocating turning motion, beating and breaking up the feed raw materials, and further assisting in the full mixing of the feed raw materials; Step 4: By turning the mixing box 8 downward, the valve plate 11 is driven to turn over and unfold, and the material discharge operation after mixing is carried out.

[0028] By adopting the bio-fermentation feed mixing device and the bio-fermentation feed processing method of the present invention to mix materials, the feed raw materials can be fully and fully turned over, ensuring that the materials are fully mixed, the full mixing effect of the materials is guaranteed, and the processing efficiency of the mixing process is improved. The agglomerated materials in the materials can be efficiently dispersed, and the feed raw materials can be efficiently beaten and dispersed. The agglomerations in the materials can be fully eliminated, the agglomeration of the feed raw materials is avoided, and the uniform mixing of the materials is guaranteed.

[0029] The contents not described in detail in this specification belong to the prior art known to professional and technical personnel in this field.

[0030] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A biological fermentation feed mixing device, comprising: A carrier assembly (1), wherein a first cylinder (2) is fixedly mounted on both front and rear bracket parts of the carrier assembly (1); It is characterized by further comprising: A block seat (3), a mixing box (8) being movably mounted on the block seat (3), the mixing box (8) being driven by the first cylinder (2) to form a turning structure on the bracket portion of the carrier assembly (1), and the mixing box (8) being driven by the servo motor (6) to form a rotating structure on the block seat (3); The scattering mechanism (14) is arranged in the chamber of the mixing box (8), and an arc-shaped track frame (23) for driving the scattering mechanism (14) is arranged on the right side of the scattering mechanism (14).

2. A biological fermentation feed mixing device according to claim 1, characterized in that: The block seat (3) is rotatably connected to the upper end of the bracket part of the carrier assembly (1) through the assistance of a bearing, and the front and rear shaft columns of the block seat (3) are fixedly connected to the first gear (4) through bolts, and the left side of the first gear (4) is meshed with a gear condition (5), and the lower end of the gear condition (5) is fixedly connected to the output end of the first cylinder (2) through bolts, and the gear condition (5) forms a sliding structure in the groove cavity of the bracket part of the carrier assembly (1); A servo motor (6) is fixedly mounted on the middle portion of the upper end of the block seat (3) by means of bolts, and a second gear (7) is fixedly connected to the output end of the servo motor (6).

3. A biological fermentation feed mixing device according to claim 2, characterized in that: The block seat (3) is rotatably connected to the feed pipe portion of the mixing box (8) with the assistance of a bearing, and the mixing box (8) forms a flip structure on the bracket portion of the carrier assembly (1) with the assistance of the block seat (3); The pipe opening of the feed pipe in the mixing box (8) is threadedly fixed with a pipe cover (9), the feed pipe in the mixing box (8) is fixedly connected with a third gear (10) by bolts, the third gear (10) is meshingly connected with the second gear (7), the pipe opening of the discharge pipe in the mixing box (8) is flipped and connected with a valve plate (11), the front and rear ends of the shaft rod in the valve plate (11) are fixedly connected with a shift plate (12), the shift plate (12) is slidably connected with a "T"-shaped rod frame in the second cylinder (13), and the second cylinder (13) is fixedly mounted on the lower box wall of the mixing box (8) by bolts.

4. A biological fermentation feed mixing device according to claim 1, characterized in that: The dispersing mechanism (14) comprises a tube shell (15) and a beating plate (18), wherein a connecting plate portion in the tube shell (15) is fixedly connected to the middle portion of the right box wall of the mixing box (8) by means of bolts, a linkage frame (16) is slidably connected in the shell cavity of the left section of the tube shell (15), a gear assembly (17) is rotatably connected in the shell cavity of the left section of the tube shell (15) by means of bearings, and the beating plate (18) is fixedly connected to the front and rear ends of the circular shaft portion in the gear assembly (17) by means of bolts; A driving rod (19) is rotatably connected in the right section of the shell cavity of the tube shell (15) through a bearing, a driving groove (20) is provided on the left section of the rod body of the driving rod (19), the driving groove (20) is connected to a pin in the linkage frame (16) in a sliding manner, and the right end of the driving rod (19) is fixedly connected to a fourth gear (21) by a bolt; The right end of the tube shell (15) is rotatably connected to a tube body seat (22) through the assistance of a bearing, and the tube body seat (22) is assisted by a roller to form a sliding structure on an arc track frame (23), and the lower end of the arc track frame (23) is welded and fixed to the bottom frame portion of the carrier assembly (1), and the lower end of the arc track frame (23) is fixedly connected to a material discharge chute plate (24) in an inclined state.

5. A biological fermentation feed mixing device according to claim 4, characterized in that: The lower frame body of the "U"-shaped frame body in the linkage frame (16) is arranged in a rack-shaped structure, and the rack-shaped frame body in the linkage frame (16) and the gear body in the gear assembly (17) are connected in a meshing manner.

6. A biological fermentation feed mixing device according to claim 5, characterized in that: The maximum sliding distance dimension of the linkage frame (16) is equal to the length dimension of the spiral groove path in the driving groove (20), and the tubular frame body of the linkage frame (16) is slidably connected to the left section of the driving rod (19).

7. A biological fermentation feed mixing device according to claim 4, characterized in that: The flapping plate (18) has through holes formed at equal intervals on its plate body. The flapping plate (18) is arranged on the tube shell (15) in an inclined state. The flapping plate (18) forms a reciprocating flip structure on the tube shell (15) with the assistance of a gear assembly (17).

8. The biological fermentation feed mixing device according to claim 4, characterized in that: The arc center of the arc track frame (23) coincides with the turning center of the mixing box (8), the toothed ring portion in the arc track frame (23) and its frame body are arranged in a co-arc center structural state, and the toothed ring portion in the arc track frame (23) is meshed and connected with the fourth gear (21).

9. A biological fermentation feed processing method, characterized in that: The biological fermentation feed mixing device according to claim 1 is used for processing, and the processing method comprises the following steps: Step 1: After removing the pipe cover (9), add the feed raw materials with good proportion into the chamber of the mixing box (8) through the feeding pipe in the mixing box (8); Step 2: The second gear (7) and the third gear (10) are meshed to drive the mixing box (8) to rotate, and the feed raw materials are turned and mixed with the assistance of the flapping plate (18); Step 3: The mixing box (8) performs a reciprocating turning motion, driving the beating plate (18) to perform a reciprocating turning motion, thereby beating and dispersing the feed raw materials; Step 4: The mixing box (8) is turned downward to drive the valve plate (11) to turn over and unfold, and the material discharge operation after mixing is carried out.

Images