A processing device for abalone feed

Abstract

The present invention relates to the technical field of preparing livestock feed, and in particular to a processing device for abalone feed. The technical problem is that when drying the agaricus, the current feed processing equipment is not convenient for brushing off the attached agaricus, which makes it difficult for the hot air to pass through the steel wire for drying, and is not convenient for tearing apart the entangled, lumped and accumulated agaricus, which makes the drying uneven, thus resulting in poor drying effect. A processing device for abalone feed includes support legs, a drying bin fixedly connected between the tops of two support legs, a groove is provided at the bottom of the drying bin, and a top cover is rotatably connected to the top of the drying bin. While the drying rack rotates, the guide ring drives two lifting brushes to repeatedly brush off the agaricus attached to the inner side of the steel wire mesh, thereby making it difficult for the inner side wall of the steel wire mesh to be blocked by the agaricus, which is conducive to the hot air passing through the steel wire mesh from the side to dry the agaricus, thereby further improving the drying efficiency of the agaricus.

Description

Technical Field

[0001] The invention relates to the technical field of preparing livestock feed, and in particular to a processing device for abalone feed. Background Art

[0002] In the abalone farming industry, Agaricus lemaneiformis is a filamentous algae plant, which is an important and commonly used feed source that can meet the nutritional needs of abalone. Due to the high water content of fresh Agaricus lemaneiformis, it needs to be dried. The operator will put the Agaricus lemaneiformis on the drying rack in the feed processing equipment for drying. During the drying process, the drying rack will rotate and move up and down to shake off the moisture attached to the surface of the Agaricus lemaneiformis, making the Agaricus lemaneiformis easier to dry, thereby improving the drying efficiency of the Agaricus lemaneiformis.

[0003] Since the agaricus is easily attached to the steel wire mesh during the drying process, the current feed processing equipment is not convenient for repeatedly brushing off the agaricus attached to the side of the steel wire mesh when drying the agaricus, which makes it difficult for hot air to pass through the steel wire mesh from the side to dry the agaricus, and in the process of rotating the agaricus, the agaricus is easily entangled, clumped and piled up, and the inside of the accumulated agaricus is not easy to be dried, and the existing feed processing equipment is not convenient for tearing apart the entangled, clumped and piled agaricus, which makes the agaricus not dried evenly, resulting in a poor drying effect on the agaricus. Summary of the invention

[0004] In order to overcome the above disadvantages, the present invention provides a processing device for abalone feed, which can repeatedly brush off the agaricus attached to the side of the steel wire mesh while drying the agaricus, so that hot air can better pass through the steel wire mesh from the side to dry the agaricus, and can disperse the agaricus that is entangled, clumped and piled together, so that the agaricus is dried more evenly, thereby enhancing the drying effect of the agaricus.

[0005] The technical solution is as follows: A processing equipment for abalone feed, comprising supporting feet, two supporting feet are symmetrically arranged, a drying bin is fixedly connected between the tops of the two supporting feet, a groove is provided at the bottom of the drying bin, a top cover is rotatably connected to the top of the drying bin, an exhaust hole is provided on the top cover, a hot air blower is fixedly connected between one side of the two supporting feet, a shunt pipe is connected to the air outlet of the hot air blower, both ends of the top of the shunt pipe are connected to the first hot air bin, the two first hot air bins are symmetrically arranged, the two first hot air bins are respectively connected to the two sides of the drying bin, the two sides of the bottom of the drying bin are connected to the second hot air bin, the two second hot air bins are respectively connected to the shunt pipe, a drying mechanism for drying the agaragara is provided between the two supporting feet, and a cleaning mechanism for cleaning the agaragara is provided in the drying bin.

[0006] As an improvement of the above solution, the bottom of the drying bin is a conical structure.

[0007] As an improvement on the above scheme, the drying mechanism includes a servo motor, which is fixedly connected between the bottoms of the two supporting feet. A rotating shaft is fixedly connected to the output shaft of the servo motor. The rotating shaft is rotatably connected to the bottom of the drying bin. A drying rack is slidably connected to the rotating shaft. The drying rack is located inside the drying bin. A space cam is fixedly connected to the bottom of the drying rack. A guide groove is provided on the space cam. A guide arm is fixedly connected to the bottom of the drying bin. The top of the guide arm is slidably connected to the guide groove of the space cam. Four steel meshes are evenly and fixedly connected to the drying rack, and the four steel meshes form a container with the drying rack.

[0008] As an improvement of the above-mentioned scheme, the cleaning mechanism includes a support beam, which is fixedly connected to the top of the drying bin, and guide rods are fixedly connected to both ends of the support beam. Lifting brushes are slidably connected to the two guide rods. The two lifting brushes are symmetrically arranged, and bristles are provided on the two lifting brushes. The bristles of the two lifting brushes are in contact with the wire mesh respectively. A guide ring is fixedly connected to the inner side of the top of the drying rack, and a slide groove is opened in the guide ring. The tops of the two lifting brushes that are away from each other are slidably connected to the slide groove of the guide ring.

[0009] As an improvement of the above solution, the sliding groove of the guide ring is arranged in a wave shape.

[0010] As an improvement of the above scheme, it also includes a dispersion mechanism, which is arranged on the drying rack and is used to disperse the agaricus. The dispersion mechanism includes a rotating rack, which is rotatably connected to the middle part of the drying rack, and eight guide grooves are opened on the top of the rotating rack. Every two guide grooves in the same direction on the rotating rack form a group. A lifting frame is slidably connected to the middle part of the support beam, and four dispersion arms are evenly rotatably connected to the bottom of the lifting frame. The bottom of the dispersion arm away from the lifting frame is a T-shaped structure, and the T-shaped structures of the four dispersion arms are respectively slidably connected to the four groups of guide grooves of the rotating frame, a pressure spring is connected between the top of the lifting frame and the support beam, and a shielding cover is fixedly connected to the rotating frame.

[0011] As an improvement of the above solution, four columnar protrusions are provided on a side of the dispersion arm away from the lifting frame.

[0012] As an improvement of the above scheme, it also includes a telescopic mechanism, which is arranged on the guide arm, and is used to resist the agaricus, and the telescopic mechanism includes a guide sleeve, and the two guide sleeves are respectively fixedly connected to the two sides of the guide arm, and the two guide sleeves are symmetrically arranged, and a contact frame is slidably connected between the two guide sleeves, and the two ends of the bottom of the contact frame are respectively connected to the two guide sleeves with a first tension spring, four guide columns are evenly fixedly connected to the bottom of the drying rack, and the four guide columns are slidably connected to a dispersion rack, and the top of the dispersion rack is evenly provided with four columnar structures, and the columnar structures of the four dispersion racks are all slidably connected to the bottom of the drying rack, and the bottoms of the four dispersion racks are in contact with the top of the contact rack, and a second tension spring is connected between the bottom of the dispersion rack and the guide columns.

[0013] As an improvement of the above solution, it also includes a deflector, and two deflectors are fixedly connected in the two first hot air bins respectively, and the two deflectors are centrally symmetrically arranged.

[0014] As an improvement of the above solution, a baffle is further included, which is fixedly connected to the groove at the bottom of the drying bin, the bottom of the baffle is a tubular structure, and a drain valve is connected to the tubular structure of the baffle.

[0015] Compared with the prior art, the present invention has the following advantages: 1. The present invention can reciprocate up and down through the space cam and the guide arm while the drying rack rotates, which is conducive to shaking off the moisture attached to the surface of the agaricus, making the agaricus easier to dry, thereby improving the drying efficiency of the agaricus; the reciprocating up and down movement of the drying rack can drive the two lifting brushes to move together through the slide groove of the guide ring, and at the same time, the rotation of the drying rack with the guide ring can drive the two lifting brushes to move up and down quickly through the slide groove of the guide ring. In this way, when the drying rack rotates, the two lifting brushes are driven by the guide ring to repeatedly brush off the agaricus attached to the inner side of the wire mesh, thereby making the inner side wall of the wire mesh less likely to be blocked by the agaricus, which is conducive to the hot air passing through the wire mesh from the side to dry the agaricus, thereby further improving the drying efficiency of the agaricus.

[0016] 2. In this way, while the agaricus is being dried, the four dispersion arms intermittently press down to disperse the rotating agaricus, so that the agaricus is not easily piled up during the drying process, and the agaricus is dried more evenly, thereby enhancing the drying effect of the agaricus.

[0017] 3. In this way, the dispersion rack intermittently and the dispersion arm disperse the tangled agaricus through staggered pulling, thereby dispersing the tangled agaricus more thoroughly, and drying the tangled agaricus more evenly, thereby further enhancing the drying effect of the agaricus. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention.

[0019] Figure 2 It is a schematic diagram of the cross-sectional three-dimensional structure of the present invention.

[0020] Figure 3 It is a partial cross-sectional three-dimensional structural schematic diagram of the present invention.

[0021] Figure 4 It is a three-dimensional structural schematic diagram of the drying mechanism of the present invention.

[0022] Figure 5 It is a schematic diagram of the cross-sectional three-dimensional structure of the drying mechanism of the present invention.

[0023] Figure 6 It is a schematic diagram of the three-dimensional structure of the cleaning mechanism of the present invention.

[0024] Figure 7 It is a schematic diagram of the cross-sectional three-dimensional structure of the cleaning mechanism of the present invention.

[0025] Figure 8 It is a schematic diagram of the three-dimensional structure of the dispersion mechanism of the present invention.

[0026] Fig. 9 It is a partially cutaway three-dimensional structural schematic diagram of the dispersion mechanism of the present invention.

[0027] Fig.10 It is a partial three-dimensional structural schematic diagram of the dispersion mechanism of the present invention.

[0028] Fig.11 It is a three-dimensional structural schematic diagram of the telescopic mechanism of the present invention.

[0029] Fig.12 It is a partial three-dimensional structural schematic diagram of the telescopic mechanism of the present invention.

[0030] Fig.13 It is a partial three-dimensional structural schematic diagram of the present invention.

[0031] The meanings of the reference numerals in the figure are as follows: 1: supporting foot, 2: drying chamber, 3: top cover, 4: hot air blower, 5: diverter, 6: first hot air chamber, 7: second hot air chamber, 81: servo motor, 82: rotating shaft, 83: drying rack, 84: space cam, 85: guide arm, 86: wire mesh, 91: supporting beam, 92: guide rod, 93: lifting brush, 94: guide ring, 101: rotating rack, 102: lifting rack, 103: dispersion arm, 104: pressure spring, 105: shielding cover, 111: guide sleeve, 112: contact rack, 113: first tension spring, 114: guide column, 115: dispersion rack, 116: second tension spring, 12: deflector, 13: baffle, 14: drain valve. DETAILED DESCRIPTION

[0032] In order to make the purpose, technical solution and advantages of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings. It is hereby stated that the directional terms such as up, down, left, right, front, back, inside, outside, etc. that appear or will appear in the text of the present invention are only based on the accompanying drawings of the present invention, and are not specific limitations of the present invention.

[0033] Embodiment 1: A processing device for abalone feed, such as Figure 1-Figure 13 As shown, it includes a supporting foot 1, and the two supporting feet 1 are symmetrically arranged. A drying bin 2 is connected between the tops of the two supporting feet 1 by bolts. The bottom of the drying bin 2 is provided with a groove, and the groove of the drying bin 2 is used to accumulate water droplets. A top cover 3 is rotatably connected to the top of the drying bin 2, and the top cover 3 is used to isolate external air. The top cover 3 is provided with an exhaust hole, and the exhaust hole of the top cover 3 is used to discharge water vapor. A hot air blower 4 is connected between one side of the two supporting feet 1 by bolts. The hot air blower 4 is used to generate hot air for drying the asparagus, and the air outlet of the hot air blower 4 is provided with a hot air outlet. It is connected with a shunt pipe 5, and both ends of the top of the shunt pipe 5 are connected with a first hot air bin 6. The two first hot air bins 6 are symmetrically arranged. The two first hot air bins 6 are respectively connected with the two sides of the drying bin 2. Both sides of the bottom of the drying bin 2 are connected with a second hot air bin 7. The two second hot air bins 7 are respectively connected with the shunt pipe 5. The shunt pipe 5 is used to divert the hot air into the two second hot air bins 7 and the two first hot air bins 6. A drying mechanism for drying the asparagus is provided between the two supporting legs 1, and a cleaning mechanism for cleaning the asparagus is provided in the drying bin 2.

[0034] The bottom of the drying bin 2 is a conical structure, and the conical bottom of the drying bin 2 is used to gather water droplets.

[0035] The drying mechanism includes a servo motor 81, which is connected between the bottoms of the two supporting legs 1 by bolts, and a rotating shaft 82 is connected to the output shaft of the servo motor 81 through a keyway, and the rotating shaft 82 is rotatably connected to the bottom of the drying bin 2, and a drying rack 83 is slidably connected to the rotating shaft 82, and the drying rack 83 is located inside the drying bin 2, and a space cam 84 is connected to the bottom of the drying rack 83 by bolts, and a guide groove is opened on the space cam 84, and a guide arm 85 is connected to the bottom of the drying bin 2 by bolts, and the top of the guide arm 85 is slidably connected to the guide groove of the space cam 84, and the space cam 84 is used to drive the drying rack to reciprocate up and down through the guide arm 85, and four steel meshes 86 are evenly and fixedly connected to the drying rack 83, and the four steel meshes 86 and the drying rack 83 form a container, and the container formed by the four steel meshes 86 and the drying rack 83 is used to hold the agaricus.

[0036] The cleaning mechanism includes a support beam 91, which is connected to the top of the drying bin 2 by bolts. Guide rods 92 are connected to both ends of the support beam 91 by bolts. Lifting brushes 93 are slidably connected to the two guide rods 92. The two lifting brushes 93 are symmetrically arranged. Brushes are provided on the two lifting brushes 93. The bristles of the two lifting brushes 93 are in contact with the wire mesh 86 respectively. The bristles of the two lifting brushes 93 are used to brush off the asparagus attached to the inner side of the wire mesh. A guide ring 94 is connected to the inner side of the top of the drying rack 83 by bolts. A slide groove is opened in the guide ring 94. The tops of the two lifting brushes 93 that are away from each other are slidably connected to the slide groove of the guide ring 94.

[0037] The slide groove of the guide ring 94 is arranged in a wave shape, and the slide groove of the guide ring 94 arranged in a wave shape is used to drive the lifting brush to move up and down.

[0038] It also includes a deflector 12. The two deflectors 12 are respectively connected to the two first hot air bins 6 by bolts. The two deflectors 12 are centrally symmetrically arranged. The two deflectors 12 are used to guide the hot air.

[0039] It also includes a baffle 13, which is connected to the groove at the bottom of the drying chamber 2 by bolts. The bottom of the baffle 13 is a tubular structure. The baffle 13 is used to block water droplets and hot air. A drain valve 14 is connected to the tubular structure of the baffle 13. The drain valve 14 is used to discharge the water droplets accumulated on the baffle 13.

[0040] Initially, the guide arm 85 is pressed against the drying rack 83 through the space cam 84, so that the drying rack 83 is in the highest position. When it is necessary to dry the asparagus, first, the operator opens the top cover 3 and puts the asparagus to be dried into the container formed by the drying rack 83 and the wire mesh 86. Then the operator closes the top cover 3 and starts the hot air blower 4. The hot air blown out by the hot air blower 4 is diverted to the two first hot air bins 6 and the two second hot air bins 7 through the diversion pipe 5. The two second hot air bins 7 blow the hot air upward from the bottom of the drying bin 2. The hot air from the two first hot air bins 6 is blown out through the two deflectors 12 respectively, which is conducive to improving the hot air During the fluidity inside the drying bin 2, the hot air will pass through the wire mesh 86 from the bottom and side of the drying rack 83, and then dry the agaricus stacked on the wire mesh 86 and the drying rack 83. Then the operator starts the servo motor 81, and the rotation of the output shaft of the servo motor 81 will drive the rotating shaft 82 to rotate, and the rotation of the rotating shaft 82 will drive the drying rack 83 to rotate, and the rotation of the drying rack 83 will drive the space cam 84 to rotate. The space cam 84 rotates half a circle and drives the drying rack 83 to move downward a certain distance through the guide arm 85. The space cam 84 continues to rotate half a circle and drives the drying bin 2 to move upward through the guide arm 85 and return to the initial state. When the drying rack 83 rotates, it will reciprocate up and down through the space cam 84 and the guide arm 85, which is conducive to shaking off the moisture attached to the surface of the agaricus, making the agaricus easier to dry, thereby improving the drying efficiency of the agaricus; the fallen water droplets will flow down along the inner wall of the drying bin 2, and then gather into the groove at the bottom of the drying bin 2 through the conical setting at the bottom of the drying bin 2. The reciprocating up and down movement of the drying rack 83 will drive the two lifting brushes 93 to move together through the slide groove of the guide ring 94. At the same time, the rotation of the drying rack 83 with the guide ring 94 will drive the two lifting brushes 93 to move up and down quickly through the slide groove of the guide ring 94. In this way, the drying rack While 83 rotates, the guide ring 94 drives the two lifting brushes 93 to repeatedly brush off the agaricus attached to the inner side of the wire mesh 86, so that the inner wall of the wire mesh 86 is not easily blocked by the agaricus, which is conducive to the hot air passing through the wire mesh 86 from the side to dry the agaricus, thereby further improving the drying efficiency of the agaricus; after the agaricus is dried, the operator turns off the servo motor 81 and the hot air blower 4, and opens the top cover 3 at the same time, and then the operator opens the drain valve 14 at the bottom of the baffle 13 to discharge the moisture accumulated in the bottom groove of the drying bin 2, and finally collects the agaricus from the container formed by the drying rack 83 and the wire mesh 86.

[0041] Embodiment 2: Based on embodiment 1, Figure 1-Figure 10As shown, it also includes a dispersion mechanism, which is arranged on the drying rack 83 and is used to disperse the agaricus. The dispersion mechanism includes a rotating rack 101, which is rotatably connected to the middle of the drying rack 83, and eight guide grooves are opened on the top of the rotating rack 101. Every two guide grooves in the same direction on the rotating rack 101 form a group. The middle of the support beam 91 is slidably connected to a lifting rack 102, and the bottom of the lifting rack 102 is evenly rotatably connected to four dispersion arms 103. The bottom of the dispersion arm 103 on one side away from the lifting frame 102 is a T-shaped structure. The lifting frame 102 is used to rotate the four dispersion arms 103 through the rotating frame 101. The T-shaped structures of the four dispersion arms 103 are respectively slidably connected to the four groups of guide grooves of the rotating frame 101. A pressure spring 104 is connected between the top of the lifting frame 102 and the support beam 91. A shielding cover 105 is connected to the rotating frame 101 by bolts. The shielding cover 105 is used to prevent the agaricus from entering the interior.

[0042] Four columnar protrusions are disposed on one side of the dispersion arm 103 away from the lifting frame 102 , and the columnar protrusions of the dispersion arm 103 are used to resist the Agaricus lemaneiformis.

[0043] At first, the support beam 91 respectively presses against the bottom of the four dispersion arms 103 through the lifting frame 102, and the rotating frame 101 presses against the T-shaped structures of the four dispersion arms 103 through the four sets of guide grooves of the rotating arms, so that the four dispersion arms 103 are in a vertical state. When the drying frame 83 moves downward, it will drive the rotating frame 101 to move downward together, and the support beam 91 will no longer press against the four dispersion arms 103 through the lifting frame 102. At the same time, the pressure spring 104 presses against the lifting frame 102, so that the rotating frame 101 can pull the T-shaped structure of the four dispersion arms 103 to rotate the four dispersion arms 103 outward by ninety degrees and unfold them. After the four dispersion arms 103 are unfolded, they will respectively press against the agaricus through the columnar protrusions of the dispersion arms 103. The drying frame 83 and the wire mesh 86 drive the agaricus to rotate, which will cause the columnar protrusions of the dispersion arms 103 to disperse the accumulated agaricus. The drying frame 83 drives the rotating frame 101 to continue to move downward, which will drive the lifting frame 102 to move downward through the dispersion arms 103. The spring 104 is compressed, and the pressure spring 104 resets and continuously applies an upward force to the lifting frame 102, so that the dispersion arms 103 of the drying frame 83 will continue to remain in the expanded state to press against the agaricus within a certain height. After the drying frame 83 drives the rotating frame 101 to drive the lifting frame 102 to move upward for a certain distance through the dispersion arms 103, the support beam 91 again presses against the bottom of the four dispersion arms 103 through the lifting frame 102, so that the four dispersion arms 103 rotate upward and reset. In this way, while drying the agaricus, the four dispersion arms 103 intermittently press down to disperse the rotating agaricus, thereby making it difficult for the agaricus to accumulate during the drying process, thereby making the agaricus dry more evenly, thereby enhancing the drying effect of the agaricus; at the same time, the shielding cover 105 continuously blocks the bottom of the lifting frame 102, the bottom of the dispersion arms 103 and the rotating frame 101, thereby making it difficult for the agaricus to be entangled on the bottom of the lifting frame 102, the bottom of the dispersion arms 103 and the rotating frame 101.

[0044] Embodiment 3: Based on embodiment 2, Figure 1-Figure 12As shown, it also includes a telescopic mechanism, which is arranged on the guide arm 85, and is used to resist the agaricus. The telescopic mechanism includes a guide sleeve 111, and the two guide sleeves 111 are respectively connected to the two sides of the guide arm 85 by bolts. The two guide sleeves 111 are symmetrically arranged, and a contact frame 112 is slidably connected between the two guide sleeves 111. The bottom ends of the contact frame 112 are respectively connected to the two guide sleeves 111 with a first tension spring 113. The bottom of the drying rack 83 is evenly connected to four guide columns 114 by bolts, and the four The guide columns 114 are all slidably connected with dispersion racks 115, the contact rack 112 is used to squeeze the four dispersion racks 115 to move on the drying rack 83, four columnar structures are evenly arranged on the top of the dispersion rack 115, the columnar structures of the dispersion rack 115 are used to resist the agaricus, the columnar structures of the four dispersion racks 115 are all slidably connected to the bottom of the drying rack 83, the bottoms of the four dispersion racks 115 are all in contact with the top of the contact rack 112, and a second tension spring 116 is connected between the bottom of the dispersion rack 115 and the guide columns 114.

[0045] When the drying rack 83 moves downward, it will drive the four dispersion racks 115 to move downward. When the four dispersion racks 115 move downward for a certain distance, they will be squeezed by the contact rack 112, so that the four dispersion racks 115 move upward on the drying rack 83 to press against the agaricus on the drying rack 83, and the second tension spring 116 is stretched. Then the drying rack 83 continues to drive the four dispersion racks 115 to move downward, so that the contact rack 112 moves downward, and the first tension spring 113 is stretched. The reset of the first tension spring 113 will continue to apply upward pressure to the dispersion rack 115 through the contact rack 112, so that the dispersion rack 115 of the drying rack 83 will continue to top and press against the agaricus within a certain height. At the same time, the rotation of the drying rack 83 will drive the four dispersion racks 115 to rotate, and the four columnar structures of the dispersion rack 115 and The columnar protrusions of the dispersion arm 103 are staggered, so that the entangled and clumped asparagus can be dispersed by the pulling of the dispersion rack 115 and the dispersion arm 103. When the drying rack 83 drives the four dispersion racks 115 to reset upward, the first pressure spring 104 is reset and no longer squeezes the four dispersion racks 115 through the contact rack 112. Then, the reset of the four second tension springs 116 will respectively drive the four dispersion racks 115 to move downward and reset on the drying rack 83, so that the dispersion rack 115 no longer resists the asparagus on the drying rack 83. In this way, the dispersion rack 115 intermittently disperses the entangled and clumped asparagus through staggered pulling with the dispersion arm 103, thereby dispersing the entangled and clumped asparagus more thoroughly, and drying the entangled and clumped asparagus more evenly, thereby further enhancing the drying effect of the asparagus.

[0046] The above is only a specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art can easily think of changes or substitutions within the technical scope disclosed by the present invention, which should be included in the protection scope of the present invention. Therefore, the protection scope of the present invention should be based on the protection scope of the claims.

Claims

1. A processing device for abalone feed, characterized in that: The invention comprises a supporting foot (1), wherein the two supporting feet (1) are symmetrically arranged, a drying bin (2) is fixedly connected between the tops of the two supporting feet (1), a groove is provided at the bottom of the drying bin (2), a top cover (3) is rotatably connected to the top of the drying bin (2), an exhaust hole is provided on the top cover (3), a hot air blower (4) is fixedly connected between one side of the two supporting feet (1), a shunt pipe (5) is connected to the air outlet of the hot air blower (4), both ends of the top of the shunt pipe (5) are connected to a first hot air bin (6), the two first hot air bins (6) are symmetrically arranged, the two first hot air bins (6) are respectively connected to the two sides of the drying bin (2), the two sides of the bottom of the drying bin (2) are connected to the second hot air bin (7), the two second hot air bins (7) are respectively connected to the shunt pipe (5), a drying mechanism for drying the asparagus is provided between the two supporting feet (1), and a cleaning mechanism for cleaning the asparagus is provided in the drying bin (2); The bottom of the drying bin (2) is a conical structure; The drying mechanism comprises a servo motor (81), the servo motor (81) being fixedly connected between the bottoms of the two supporting legs (1), a rotating shaft (82) being fixedly connected to the output shaft of the servo motor (81), the rotating shaft (82) being rotatably connected to the bottom of the drying bin (2), a drying rack (83) being slidably connected to the rotating shaft (82), the drying rack (83) being located inside the drying bin (2), a space cam (84) being fixedly connected to the bottom of the drying bin (83), a guide groove being formed on the space cam (84), a guide arm (85) being fixedly connected to the bottom of the drying bin (2), the top of the guide arm (85) being slidably connected to the guide groove of the space cam (84), four steel meshes (86) being evenly fixedly connected to the drying rack (83), the four steel meshes (86) and the drying rack (83) forming a container; The cleaning mechanism comprises a support beam (91), the support beam (91) being fixedly connected to the top of the drying chamber (2), the two ends of the support beam (91) being fixedly connected to guide rods (92), the two guide rods (92) being slidably connected to lift brushes (93), the two lift brushes (93) being symmetrically arranged, the two lift brushes (93) being provided with bristles, the bristles of the two lift brushes (93) being in contact with the steel wire mesh (86), the inner side of the top of the drying rack (83) being fixedly connected to a guide ring (94), the guide ring (94) being provided with a slide groove, the tops of the two lift brushes (93) being away from each other being slidably connected to the slide groove of the guide ring (94); The slide groove of the guide ring (94) is arranged in a wave shape; The invention also comprises a dispersion mechanism, which is arranged on the drying rack (83) and is used to disperse the asparagus, and comprises a rotating rack (101), the rotating rack (101) being rotatably connected to the middle of the drying rack (83), the top of the rotating rack (101) being provided with eight guide slots, and every two guide slots in the same direction on the rotating rack (101) forming a group, a lifting rack (102) being slidably connected to the middle of the support beam (91), the bottom of the lifting rack (102) being evenly rotatably connected to four dispersion arms (103), the bottom of the dispersion arm (103) being away from the lifting rack (102) being a T-shaped structure, the T-shaped structures of the four dispersion arms (103) being respectively slidably connected to the four groups of guide slots of the rotating rack (101), a pressure spring (104) being connected between the top of the lifting rack (102) and the support beam (91), and a shielding cover (105) being fixedly connected to the rotating rack (101).

2. A processing equipment for abalone feed as claimed in claim 1, characterized in that: Four columnar protrusions are provided on a side of the dispersion arm (103) away from the lifting frame (102).

3. A processing equipment for abalone feed as claimed in claim 1, characterized in that: The drying device further comprises a telescopic mechanism, wherein the telescopic mechanism is arranged on the guide arm (85), and the telescopic mechanism is used to resist the agaricus, and the telescopic mechanism comprises a guide sleeve (111), wherein two guide sleeves (111) are respectively fixedly connected to two sides of the guide arm (85), and the two guide sleeves (111) are symmetrically arranged, and a contact frame (112) is slidably connected between the two guide sleeves (111), and the bottom ends of the contact frame (112) are respectively connected to the two guide sleeves (111) with a first tension spring (113), and the drying device Four guide pillars (114) are evenly and fixedly connected to the bottom of the drying rack (83); a dispersion rack (115) is slidably connected to the four guide pillars (114); four columnar structures are evenly arranged on the top of the dispersion rack (115); the columnar structures of the four dispersion racks (115) are slidably connected to the bottom of the drying rack (83); the bottoms of the four dispersion racks (115) are in contact with the top of the contact rack (112); and a second tension spring (116) is connected between the bottom of the dispersion rack (115) and the guide pillars (114).

4. A processing equipment for abalone feed as claimed in claim 3, characterized in that: It also comprises a flow guide (12), wherein two flow guides (12) are respectively fixedly connected in the two first hot air bins (6), and the two flow guides (12) are arranged in a centrally symmetrical manner.

5. A processing equipment for abalone feed as claimed in claim 4, characterized in that: It also includes a baffle (13), the baffle (13) being fixedly connected to a groove at the bottom of the drying bin (2), the bottom of the baffle (13) being a tubular structure, and a drain valve (14) being connected to the tubular structure of the baffle (13).

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