Equipment for continuously and centrifugally dewatering vegetables

Abstract

The invention relates to equipment for continuously centrifugally dewatering vegetables, which comprises a first support frame body and a first conveying mechanism arranged on the surface of the first support frame body, a buffer mechanism is arranged in the first support frame body, and a second support frame body is arranged on the surface of the buffer mechanism. A dewatering mechanism used for dewatering vegetables is arranged in the second supporting frame body, the dewatering mechanism is covered with a discharging guide mechanism, a second conveying mechanism is arranged in the discharging guide mechanism, and a driving mechanism used for driving the dewatering mechanism to rotate is further arranged on the surface of the second supporting frame body. The shredded and moist leaf mustard is continuously conveyed into the dewatering mechanism by the first conveying mechanism, and the dewatering mechanism can realize rapid dewatering, conveying and discharging, so that the production efficiency is greatly improved.

Description

Technical Field

[0001] The invention relates to the technical field of food processing, and in particular to a device for continuously centrifugally dehydrating vegetables. Background Art

[0002] In the process of processing mustard greens into pickled mustard greens, it is necessary to wash and chop the mustard greens. In the processing and production process of the processing enterprise, fresh mustard greens have residual moisture on the surface after being washed and cut, which is not conducive to subsequent processing. Therefore, dehydration of mustard greens becomes a very important link in the processing process. The dehydrator can quickly dehydrate fresh vegetables and quickly reduce the water content on the surface of vegetables. As a new product equipment for vegetable processing, it has broad development prospects in the domestic and foreign food markets.

[0003] The authorization announcement number is CN221980002U, which discloses a rapid dehydration device. Combined with its specification and drawings, its scheme is to set a first electric push rod to drive the pressure plate to move downward to squeeze the pickled mustard greens, and squeeze the moisture on the pickled mustard greens out and drop it on the bottom inner side of the box body, and to set a blower to transport hot air to the air outlet box through a duct and blow and dry the pickled mustard greens in the centrifugal tank, and further the motor drives the centrifugal tank to slide on the annular slide rail using an annular slide and rotate at high speed, thereby centrifugally dehydrating the pickled mustard greens in the centrifugal tank, however, this scheme can only dehydrate the vegetables loaded on the placement plate in the box body at a time, and after dehydration is completed, it is necessary to open the box door and take out the vegetables inside, and then put new vegetables into the box body again to restart the dehydration process, in such a process, the material discharge and material retrieval process requires manual participation, which not only increases the production cost, but also reduces the production rate. Summary of the invention

[0004] The present invention mainly aims at the problems existing in the dehydration of mustard greens and invents a device for continuously centrifugally dehydrating vegetables. The first conveying mechanism continuously conveys the chopped and moistened mustard greens to the interior of the dehydration mechanism. The high-speed rotation of the drum dehydration component can achieve rapid dehydration. In conjunction with the spiral rotation feeding method of the spiral feeding component, the mustard greens can be dehydrated while being conveyed. The rotation directions of the first drum and the spiral boss are different. There is a gap of several centimeters between the first drum and the spiral boss. The rotation speed of the first drum is much greater than the rotation speed of the spiral boss, thereby ensuring the dehydration effect of the first drum.

[0005] The inventive objective of the present invention is achieved through the following technical solutions: A device for continuously centrifugally dehydrating vegetables, comprising a first supporting frame, a first conveying mechanism arranged on the surface of the first supporting frame, a buffer mechanism is provided in the first supporting frame, a second supporting frame is provided on the surface of the buffer mechanism, a dehydration mechanism for dehydrating vegetables is provided in the second supporting frame, an external cover of the dehydration mechanism is provided with a material discharge guide mechanism, a second conveying mechanism is provided inside the material discharge guide mechanism, and a driving mechanism for driving the dehydration mechanism to rotate is also provided on the surface of the second supporting frame.

[0006] Preferably, the dehydration mechanism includes a drum dehydration assembly and a spiral feeding assembly arranged inside the drum dehydration assembly, and the driving mechanism includes a first driving assembly for driving the drum dehydration assembly to rotate and a second driving assembly for driving the spiral feeding assembly to rotate, and the direction of rotation of the drum dehydration assembly is opposite to the direction of rotation of the spiral feeding assembly.

[0007] Preferably, the first conveying mechanism includes a first conveying support frame, a first driving roller, a first conveyor belt, a first driving motor and a loading guide plate, the first conveying support frame is arranged on the surface of the first support frame body, the first conveying support frame is hingedly provided with first driving rollers at both ends, the surface of the first driving roller is provided with a first conveyor belt, one end of at least one first driving roller is connected to the rotating shaft of the first driving motor, and the surface of the first conveying support frame is also provided with a loading guide plate.

[0008] Preferably, the buffer mechanism includes rubber support columns and buffer support blocks, a plurality of buffer support blocks are fixedly connected to the interior of the first support frame, a plurality of buffer support blocks are also fixedly connected to both sides of the second support frame, and each of the rubber support columns is arranged inside between adjacent buffer support blocks.

[0009] Preferably, the material discharge guide mechanism includes a first columnar shell, a second columnar shell and a shell support plate, both sides of the first columnar shell are connected to the surface of the second support frame through the shell support plate, a plurality of first rotating shaft support blocks are provided on one side of the first columnar shell and the second columnar shell, adjacent first rotating shaft support blocks do not interfere with each other, the interior of the first rotating shaft support block is connected to the first supporting rotating shaft, the dehydration mechanism is arranged inside the first columnar shell and the second columnar shell, a material discharge channel is extended outward on one side of the first columnar shell, the interior of the material discharge channel is hollow and close to the discharge port of the dehydration mechanism.

[0010] Preferably, the drum dehydration assembly includes a first drum, a drum drive shaft and a first driven wheel. A drum drive shaft is provided on one side of the first drum. The drum drive shaft passes through the first columnar shell and the second columnar shell and is provided with a first driven wheel at the end. The first driven wheel is connected to an external first drive assembly. A plurality of water filtering holes are provided on the surface of the first drum. This arrangement is intended to enable the first drum to dehydrate mustard.

[0011] Preferably, the spiral feeding assembly includes a circular support plate, a spiral boss, a metal bearing and a second driven wheel. The surface of the circular support plate is connected to the spiral boss. The interior of the drum drive shaft is hollow and provided with a plurality of metal bearings. A support plate drive shaft is provided on one side of the circular support plate. The support plate drive shaft passes through a plurality of metal bearings and a second driven wheel is connected to the end thereof. The second driven wheel is connected to an external second drive assembly. This arrangement is intended to realize the conveying and feeding of mustard in the first drum.

[0012] Preferably, the first driving assembly includes a first motor support shell, a second driving motor, a second shaft support block, a third shaft support block and a first driving wheel, the second shaft support blocks are provided on the side and top of the first motor support shell, the second support frame extends downwardly to provide a first column, the side of the first column and the surface of the first support frame are provided with a third shaft support block, the through hole of each of the third shaft support blocks is coaxial with the through hole of the second shaft support block and is internally connected to the second supporting shaft, the first motor support shell is internally provided with a second driving motor, the end of the shaft of the second driving motor is provided with a first driving wheel, and the first driving wheel is connected to the first driven wheel by a first transmission belt.

[0013] Preferably, the second driving assembly includes a second motor support shell, a fourth shaft support block, a fifth shaft support block, a third driving motor and a second driving wheel, the fourth shaft support block is provided on the side and top of the second motor support shell, the second support frame is downwardly extended with a second column, the side of the second column and the surface of the first support frame are provided with a fifth shaft support block, the through hole of each of the fifth shaft support blocks is coaxial with the through hole of the fourth shaft support block and is internally connected with the third supporting shaft, the second motor support shell is internally provided with a third driving motor, the end of the shaft of the third driving motor is provided with a second driving wheel, and the second driving wheel is connected to the second driven wheel by a second transmission belt.

[0014] Preferably, the second conveying mechanism includes a second conveying support frame, a second driving roller, a second conveyor belt and a fourth driving motor. The second conveying support frame is arranged inside the unloading channel. Second driving rollers are hingedly provided at both ends of the second conveying support frame. A second conveyor belt is provided on the surface of the second driving roller. One end of at least one second driving roller is connected to the rotating shaft of the fourth driving motor. The modification is for conveying mustard that has been dehydrated by the dehydration mechanism.

[0015] Compared with the prior art, the present invention has the following beneficial effects: 1. The first conveying mechanism continuously conveys the chopped and moist mustard greens to the interior of the dehydration mechanism, and the high-speed rotation of the drum dehydration component can achieve rapid dehydration. In combination with the spiral rotation feeding method of the spiral feeding component, the mustard greens can be dehydrated while being conveyed, which greatly improves the production efficiency; 2. The rotation directions of the first drum and the spiral boss are different, and there is a gap of several centimeters between the first drum and the spiral boss. In addition, the rotation speed of the first drum is much greater than the rotation speed of the spiral boss; the dehydration effect of the first drum is guaranteed; 3. During the rapid rotation of the first roller, the entire second support frame will shake, and the first motor support shell will be affected by the shaking. In order to enable the first driving wheel at the end of the second driving motor shaft to smoothly drive the first driven wheel through the first transmission belt, the second shaft support block will use the second support shaft to rotate a certain angle relative to the third shaft support block during the vibration process, thereby offsetting the shaking and ensuring that the entire transmission process will not be affected; 4. The interior of the first columnar shell and the second columnar shell can uniformly collect and discharge the water generated after the rotation of the first roller, thereby avoiding water accumulation and odor, and ensuring cleanliness and hygiene during the production process. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 A perspective view of the present invention; Figure 2 It is a three-dimensional diagram of the internal structure of the present invention; Figure 3 It is a partial stereogram of the present invention; Figure 4 It is a partial stereogram of the present invention; Figure 5 It is a cross-sectional view of the dehydration mechanism area of ​​the present invention; Figure 6 It is a partial stereogram of the present invention; Figure 7 It is a partial stereogram of the present invention; Figure 8 It is a partial stereogram of the present invention.

[0017] Markings in the figure: 1. first support frame; 2. first conveying mechanism; 21. first conveying support frame; 22. first driving roller; 23. first conveyor belt; 24. first driving motor; 25. feeding guide plate; 3. buffer mechanism; 31. rubber support column; 32. buffer support block; 4. second support frame; 41. first column; 42. second column; 5. dehydration mechanism; 51. drum dehydration assembly; 511. first drum; 512. drum driving shaft; 513. first driven wheel; 514. water filter hole; 52. spiral unloading assembly; 521. circular support plate; 522. spiral boss; 523. metal bearing; 524. second driven wheel; 525. support plate driving shaft; 6. unloading guide mechanism; 61. first columnar shell; 62. second columnar shell; 63 , shell support plate; 64, first shaft support block; 65, first support shaft; 66, unloading channel; 7, second conveying mechanism; 71, second conveying support frame; 72, second drive roller; 73, second conveyor belt; 74, fourth drive motor; 8, drive mechanism; 81, first drive assembly; 811, first motor support shell; 812, second shaft support block; 813, third shaft support block; 814, second support shaft; 815, second drive motor; 816, first drive wheel; 817, first transmission belt; 82, second drive assembly; 821, second motor support shell; 822, fourth shaft support block; 823, fifth shaft support block; 824, third support shaft; 825, third drive motor; 826, second drive wheel; 827, second transmission belt. DETAILED DESCRIPTION

[0018] The present invention will be further described below with reference to the embodiments shown in the accompanying drawings: like Figures 1 to 8As shown, a device for continuously centrifugal dehydrating vegetables comprises a first supporting frame 1, a first conveying mechanism 2 arranged on the surface of the first supporting frame 1, a buffer mechanism 3 is arranged inside the first supporting frame 1, a second supporting frame 4 is arranged on the surface of the buffer mechanism 3, the first supporting frame 1 and the second supporting frame 4 are composed of a plurality of aluminum alloy profiles fixedly connected to each other, the buffer mechanism 3 comprises a rubber support column 31 and a buffer support block 32, a plurality of buffer support blocks 32 are fixedly connected inside the first supporting frame 1, and a plurality of buffer support blocks 32 are also fixedly connected on both sides of the second supporting frame 4, each of the rubber support columns 31 is arranged inside between adjacent buffer support blocks 32, whenever the second supporting frame 4 is subjected to shaking and vibration, since the rubber support column 31 is a non-rigid original component, it will offset a part of the shaking of the second supporting frame 4 and prevent the second supporting frame 4 from separating from the first supporting frame 1, wherein the first conveying mechanism 2 comprises a first conveying support frame 21, a first conveying support frame 22 and a second conveying support frame 4. A driving roller 22, a first conveyor belt 23, a first driving motor 24 and a feeding guide plate 25. The first conveying support frame 21 is arranged on the surface of the first support frame body 1. The first driving rollers 22 are hinged at both ends of the first conveying support frame 21. The surface of the first driving roller 22 is provided with a first conveyor belt 23. One end of at least one first driving roller 22 is connected to the rotating shaft of the first driving motor 24. The surface of the first conveying support frame 21 is also provided with a feeding guide plate 25. After being arranged in this way, the mustard that has been chopped and moistened on the outside will fall onto the surface of the first conveyor belt 23 through other conveying equipment, and the feeding guide plate 25 prevents the mustard from being scattered outside the equipment. When the rotating shaft of the first driving motor 24 rotates, one of the first driving rollers 22 will rotate, and the first driving roller 22 will drive the first conveyor belt 23 during rotation. At this time, the other first driving roller 22 plays a supporting and guiding role, so the first conveyor belt 23 will transport the mustard on its surface to the designated position.

[0019] In this embodiment, a dehydration mechanism 5 for dehydrating vegetables is provided in the second support frame 4, and a material discharge guide mechanism 6 is provided on the outer cover of the dehydration mechanism 5. The driving mechanism 8 includes a first driving component 81 for driving the drum dehydration component 51 to rotate and a second driving component 82 for driving the spiral material discharge component 52 to rotate. The dehydration mechanism 5 includes a drum dehydration component 51 and a spiral material discharge component 52 arranged inside the drum dehydration component 51. The rotation direction of the drum dehydration component 51 is opposite to that of the spiral material discharge component 52. The material discharge guide mechanism 6 includes a first columnar shell 61, a second columnar shell 62 and a shell support plate 63. Both sides of the first columnar shell 61 are connected to the surface of the second support frame 4 through the shell support plate 63. A plurality of first rotating shaft support blocks 64 are provided on one side of the first columnar shell 61 and the second columnar shell 62, and adjacent first rotating shaft support blocks 64 do not interfere with each other. The first rotating shaft support block 64 is internally connected with a first supporting rotating shaft 65. The dehydration mechanism 5 is arranged inside the first columnar shell 61 and the second columnar shell 62. A feeding channel 66 is extended outwardly from one side of the first columnar shell 61. The inside of the feeding channel 66 is hollow and close to the discharge port of the dehydration mechanism 5. The second columnar shell 62 can rotate relative to the first columnar shell 61. During the rotation, the first supporting rotating shaft 65 plays a supporting and guiding role inside the first rotating shaft support block 64. After the rotation is completed, it is convenient for subsequent workers to inspect or clean the dehydration mechanism 5 inside. The drum dewatering assembly 51 includes a first drum 511, a drum drive shaft 512 and a first driven wheel 513. The first drum 511 is provided with a drum drive shaft 512 on one side. The drum drive shaft 512 passes through the first columnar shell 61 and the second columnar shell 62 and is provided with a first driven wheel 513 at the end. The first driven wheel 513 is connected to the external first driving assembly 81. The surface of the first drum 511 is provided with a plurality of water filtering holes 514. The spiral unloading assembly 52 includes a circular support plate 521, a spiral boss 522, a metal bearing 523 and a second driven wheel 524. The surface of the circular support plate 521 is connected with a spiral boss 522. The interior of the drum drive shaft 512 is hollow and provided with a plurality of metal bearings 523. A support plate drive shaft 525 is provided on one side of the circular support plate 521. The support plate drive shaft 525 passes through a plurality of metal bearings 523 and is connected with a second driven wheel 524 at the end. The second driven wheel 524 is connected to the external second driving assembly 82.After such arrangement, the first conveyor belt 23 can convey the mustard to the innermost part of the entire first roller 511, and then the first driving assembly 81 can drive the first driven wheel 513 to rotate. During the rotation of the first driven wheel 513, the driving roller driving shaft 512 drives the entire first roller 511 to rotate rapidly in the clockwise direction, so that the mustard is tightly attached to the inner wall of the first roller 511, and then the moisture on the surface of the mustard is thrown into the first columnar shell 61 and the second columnar shell 62 through the water filtering hole 514 under the action of centrifugal force. At this time, the second driving assembly 82 can drive the second driven wheel 524 to rotate, and the second driven wheel 524 rotates. During the process, the support plate drive shaft 525 drives the entire circular support plate 521 and the spiral boss 522 to rotate counterclockwise. During the rotation, the metal bearing 523 of the support plate drive shaft 525 plays a supporting and guiding role, so that the support plate drive shaft 525 and the roller drive shaft 512 always rotate on the same axis. During the counterclockwise rotation of the spiral boss 522, the mustard greens attached to the inner wall of the first roller 511 will be pushed into the groove of the adjacent spiral boss 522. As the spiral boss 522 rotates, the mustard greens will move along the groove on the side of the spiral boss 522 until they fall into the inside of the discharge channel 66.

[0020] In this embodiment, a second conveying mechanism 7 is provided inside the unloading guide mechanism 6, and the second conveying mechanism 7 includes a second conveying support frame 71, a second driving roller shaft 72, a second conveyor belt 73 and a fourth driving motor 74. The second conveying support frame 71 is arranged inside the unloading channel 66, and second driving roller shafts 72 are hingedly provided at both ends of the second conveying support frame 71. A second conveyor belt 73 is provided on the surface of the second driving roller shaft 72. One end of at least one second driving roller shaft 72 is connected to the rotating shaft of the fourth driving motor 74. When the rotating shaft of the fourth driving motor 74 rotates, it can drive the second driving roller shaft 72 to rotate. When the second driving roller shaft 72 rotates, it can drive the second conveyor belt 73 to move. At this time, the other second driving roller shaft 72 plays a supporting and guiding role, and the second conveyor belt 73 can transport the mustard fallen from the spiral boss 522 to the next process. The surface of the second support frame 4 is also provided with a driving mechanism 8 for driving the dehydration mechanism 5 to rotate, and the first driving assembly 81 includes a first motor support shell 811, a second driving motor 815, a second shaft support block 812, a third shaft support block 813 and a first driving wheel 816. The side and top of the first motor support shell 811 are provided with a second shaft support block 812, and the second support frame 4 extends downward to provide a first column 41, and the side of the first column 41 and the surface of the first support frame 1 are provided with a third shaft support block 813, and the through hole of each third shaft support block 813 is coaxial with the through hole of the second shaft support block 812 and is internally connected with a second supporting shaft 814, and the first motor support shell 811 is provided with a second driving motor 815, and the end of the shaft of the second driving motor 815 is provided with a first driving wheel 816, and the first driving wheel 816 is connected to the first driven wheel 513 by a first transmission belt 817.The second driving assembly 82 includes a second motor support shell 821, a fourth shaft support block 822, a fifth shaft support block 823, a third driving motor 825 and a second driving wheel 826. The fourth shaft support block 822 is provided on the side and top of the second motor support shell 821. The second support frame 4 extends downwardly to provide a second column 42. The side of the second column and the surface of the first support frame 1 are provided with a fifth shaft support block 823. The through hole of each of the fifth shaft support blocks 823 is coaxial with the through hole of the fourth shaft support block 822 and is internally connected with a third supporting shaft 824. The interior of the second motor support shell 821 is provided with a third driving motor 825. The end of the shaft of the third driving motor 825 is provided with a second driving wheel 826. The second driving wheel 826 is connected to the second driven wheel 524. It is connected through the second transmission belt 827. After being set up in this way, the entire second support frame 4 will shake during the rapid rotation of the first roller 511, and the first motor support shell 811 will also be affected by the vibration. In order to enable the first driving wheel 816 at the end of the rotating shaft of the second driving motor 815 to smoothly drive the first driven wheel 513 through the first transmission belt 817, the second rotating shaft support block 812 will use the second supporting rotating shaft 814 to rotate a certain angle relative to the third rotating shaft support block 813 during the vibration process, thereby offsetting the shaking, so that the entire transmission process will not be affected; the second motor support shell 821 is the same. When shaking occurs, the fourth rotating shaft support block 822 will use the second supporting rotating shaft 814 to rotate a certain angle relative to the fifth rotating shaft support block 823, thereby offsetting the shaking, so that the entire transmission process will not be affected.

[0021] Working principle and use method of the present invention: First, the chopped and moistened mustard greens will fall onto the surface of the first conveyor belt 23 through other conveying equipment, and then the rotating shaft of the first driving motor 24 will rotate one of the first driving roller shafts 22, and the first driving roller shaft 22 will drive the first conveyor belt 23 during the rotation process. At this time, the other first driving roller shaft 22 plays a supporting and guiding role, so the first conveyor belt 23 will transport the mustard greens on its surface to the innermost part of the entire first roller 511, and then the first driving wheel 816 at the end of the rotating shaft of the second driving motor 815 can drive the first driven wheel 513 to rotate through the first transmission belt 817. During the rotation of the first driven wheel 513, the driving roller driving shaft 512 drives the entire first roller 511 to rotate rapidly in a clockwise direction, so that the mustard greens are tightly attached to the inner wall of the first roller 511, and then the moisture on the surface of the mustard greens will be thrown into the first columnar shell 61 and the second columnar shell 62 through the water filter hole 514 under the action of centrifugal force. At this time, the second driving wheel 826 at the end of the rotating shaft of the third driving motor 825 is driven by the second transmission belt 817. The belt 827 drives the second driven wheel 524 to rotate. During the rotation of the second driven wheel 524, the support plate driving shaft 525 drives the entire circular support plate 521 and the spiral boss 522 to rotate counterclockwise. During the rotation, the metal bearing 523 of the support plate driving shaft 525 plays a supporting and guiding role, so that the support plate driving shaft 525 and the roller driving shaft 512 always rotate on the same axis. During the counterclockwise rotation of the spiral boss 522, the mustard greens attached to the inner wall of the first roller 511 will be pushed to the adjacent In the groove of the spiral boss 522, as the spiral boss 522 rotates, the mustard will move along the groove on the side of the spiral boss 522 until it falls into the inside of the feeding channel 66, and finally, the rotating shaft of the fourth drive motor 74 drives the second drive roller 72 to rotate when it rotates, and the second drive roller 72 drives the second conveyor belt 73 to move when the second drive roller 72 rotates. At this time, the other second drive roller 72 plays a supporting and guiding role, and the second conveyor belt 73 can transport the mustard that falls off the spiral boss 522 to the next process.

[0022] The specific embodiments described herein are merely examples of the spirit of the present invention. Those skilled in the art may make various modifications or additions to the specific embodiments described or replace them in similar ways, but they will not deviate from the spirit of the present invention or exceed the scope defined by the appended claims.

Claims

1. A device for continuously centrifugally dehydrating vegetables, comprising a first support frame (1), a first conveying mechanism (2) arranged on the surface of the first support frame (1), characterized in that: A buffer mechanism (3) is provided inside the first support frame (1); a second support frame (4) is provided on the surface of the buffer mechanism (3); a dehydration mechanism (5) for dehydrating vegetables is provided inside the second support frame (4); a material discharge guide mechanism (6) is provided on the outer cover of the dehydration mechanism (5); a second conveying mechanism (7) is provided inside the material discharge guide mechanism (6); and a driving mechanism (8) for driving the dehydration mechanism (5) to rotate is also provided on the surface of the second support frame (4).

2. The device for continuous centrifugal dehydration of vegetables according to claim 1, characterized in that: The dehydration mechanism (5) comprises a drum dehydration assembly (51) and a spiral material discharge assembly (52) arranged inside the drum dehydration assembly (51); the driving mechanism (8) comprises a first driving assembly (81) for driving the drum dehydration assembly (51) to rotate and a second driving assembly (82) for driving the spiral material discharge assembly (52) to rotate; the direction of rotation of the drum dehydration assembly (51) is opposite to the direction of rotation of the spiral material discharge assembly (52).

3. The device for continuous centrifugal dehydration of vegetables according to claim 2, characterized in that: The first conveying mechanism (2) comprises a first conveying support frame (21), a first driving roller shaft (22), a first conveyor belt (23), a first driving motor (24) and a loading guide plate (25); the first conveying support frame (21) is arranged on the surface of the first support frame body (1); the first driving roller shaft (22) is hingedly provided at both ends of the first conveying support frame (21); the first conveyor belt (23) is provided on the surface of the first driving roller shaft (22); one end of at least one first driving roller shaft (22) is connected to the rotating shaft of the first driving motor (24); and the loading guide plate (25) is also provided on the surface of the first conveying support frame (21).

4. The device for continuous centrifugal dehydration of vegetables according to claim 2, characterized in that: The buffer mechanism (3) comprises a rubber support column (31) and a buffer support block (32); a plurality of buffer support blocks (32) are fixedly connected inside the first support frame (1); a plurality of buffer support blocks (32) are also fixedly connected on both sides of the second support frame (4); and each of the rubber support columns (31) is arranged inside between adjacent buffer support blocks (32).

5. The device for continuous centrifugal dehydration of vegetables according to claim 2, characterized in that: The material discharge guide mechanism (6) comprises a first columnar shell (61), a second columnar shell (62) and a shell support plate (63); both sides of the first columnar shell (61) are connected to the surface of the second support frame (4) through the shell support plate (63); a plurality of first rotating shaft support blocks (64) are provided on one side of the first columnar shell (61) and the second columnar shell (62); adjacent first rotating shaft support blocks (64) do not interfere with each other; the first rotating shaft support blocks (64) are connected to the inside of a first supporting rotating shaft (65); the dehydration mechanism (5) is arranged inside the first columnar shell (61) and the second columnar shell (62); a material discharge channel (66) is provided on one side of the first columnar shell (61) extending outward; the inside of the material discharge channel (66) is hollow and close to the discharge port of the dehydration mechanism (5).

6. The device for continuous centrifugal dehydration of vegetables according to claim 5, characterized in that: The drum dehydration assembly (51) comprises a first drum (511), a drum drive shaft (512) and a first driven wheel (513); a drum drive shaft (512) is provided on one side of the first drum (511); the drum drive shaft (512) passes through a first columnar outer shell (61) and a second columnar outer shell (62) and a first driven wheel (513) is provided at the end thereof; the first driven wheel (513) is connected to an external first drive assembly (81); and a plurality of water filtering holes (514) are provided on the surface of the first drum (511).

7. The device for continuous centrifugal dehydration of vegetables according to claim 6, characterized in that: The spiral blanking assembly (52) comprises a circular support plate (521), a spiral boss (522), a metal bearing (523) and a second driven wheel (524); the surface of the circular support plate (521) is connected to the spiral boss (522); the interior of the roller drive shaft (512) is hollow and provided with a plurality of metal bearings (523); a support plate drive shaft (525) is provided on one side of the circular support plate (521); the support plate drive shaft (525) passes through the plurality of metal bearings (523) and the end portion is connected to the second driven wheel (524); the second driven wheel (524) is connected to an external second drive assembly (82).

8. The device for continuous centrifugal dehydration of vegetables according to claim 7, characterized in that: The first driving assembly (81) comprises a first motor support shell (811), a second driving motor (815), a second rotating shaft support block (812), a third rotating shaft support block (813) and a first driving wheel (816); the second rotating shaft support block (812) is provided on the side and top of the first motor support shell (811); the second supporting frame (4) is provided with a first column (41) extending downward; the side of the first column (41) and the surface of the first supporting frame (1) are provided with a third rotating shaft support block (813); the through hole of each third rotating shaft support block (813) is coaxial with the through hole of the second rotating shaft support block (812) and is internally connected with a second supporting rotating shaft (814); the first motor support shell (811) is provided with a second driving motor (815); the end of the rotating shaft of the second driving motor (815) is provided with a first driving wheel (816); the first driving wheel (816) and the first driven wheel (513) are connected via a first transmission belt (817).

9. The device for continuous centrifugal dehydration of vegetables according to claim 8, characterized in that: The second driving assembly (82) comprises a second motor support shell (821), a fourth rotating shaft support block (822), a fifth rotating shaft support block (823), a third driving motor (825) and a second driving wheel (826); the fourth rotating shaft support block (822) is provided on the side and top of the second motor support shell (821); the second support frame (4) is provided with a second column (42) extending downward; the side of the second column and the surface of the first support frame (1) are provided with a fifth rotating shaft support block (823); the through hole of each of the fifth rotating shaft support blocks (823) is coaxial with the through hole of the fourth rotating shaft support block (822) and is internally connected with a third supporting rotating shaft (824); the second motor support shell (821) is provided with a third driving motor (825); the end of the rotating shaft of the third driving motor (825) is provided with a second driving wheel (826); the second driving wheel (826) is connected to the second driven wheel (524) via a second transmission belt (827).

10. The device for continuous centrifugal dehydration of vegetables according to claim 7, characterized in that: Said The second conveying mechanism (7) comprises a second conveying support frame (71), a second driving roller shaft (72), a second conveying belt (73) and a fourth driving motor (74); the second conveying support frame (71) is arranged inside the unloading channel (66); the second driving roller shaft (72) is hingedly provided at both ends of the second conveying support frame (71); the second conveying belt (73) is provided on the surface of the second driving roller shaft (72); and one end of at least one second driving roller shaft (72) is connected to the rotating shaft of the fourth driving motor (74).

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