Automatic cleaning and draining production line for henry steudnera tubers

Abstract

The invention relates to the technical field of henry steudnera tuber cleaning and draining, in particular to an automatic henry steudnera tuber cleaning and draining production line which comprises a high-pressure spraying plate, an equipment base and a liquid collecting box, the equipment base is installed on the upper surface of the liquid collecting box, the high-pressure spraying plate is located above the equipment base, and two conveying belts are arranged above the equipment base; transmission rollers are installed at the four corners of the inner ring side of each conveying belt and rotationally connected with the equipment base, the two conveying belts are connected through a plurality of storage structures, and the high-pressure spraying plate is located above the conveying belts and the storage structures. An annular structure can be formed in the space between the front end disc and the rear end disc through the multiple material blocking rods, henry steudnera tubers to be cleaned are blocked between the front end disc and the rear end disc, and then the henry steudnera tubers between the front end disc and the rear end disc can be stably driven to pass through the position below a high-pressure spraying plate to be cleaned when the conveying belt rotates; taro of different individuals and shapes can be stably conveyed and cleaned.

Description

Technical Field

[0001] The present invention relates to the technical field of taro cleaning and draining, and in particular to an automatic taro cleaning and draining production line. Background Art

[0002] With the research and development of dragon taro, it has been found that it also has high dietetic and medicinal values. Therefore, people carry out value-added production and processing of dragon taro, such as dragon taro dietary nutrition fine powder, dragon taro juice compound protein beverage, dragon taro leisure food, dragon taro biscuits, dragon taro raw pulp wine, dragon taro eight-treasure porridge, and dragon taro fluoride-containing toothpaste, etc. Taro needs to be cleaned and drained during processing.

[0003] Chinese Patent CN209825153U discloses a cleaning machine for taro processing, which relates to the field of cleaning machines. Aiming at the problems of time-consuming, laborious and inefficient cleaning of existing taro, the following scheme is proposed. It includes a machine case, a waste water collection box, a feed inlet, and a discharge outlet. A horizontal plate is provided inside the machine case. Side plates are provided on the front and rear sides of the horizontal plate. A large roller and a small roller are provided between the two side plates, and both ends are movably connected to the side plates through bearings, and the first gear and the second gear are respectively provided at the rear ends thereof. A slider is provided on the horizontal plate. Slide ways are provided on the left and right inner walls of the machine case. A first motor is provided on the top surface of the horizontal plate, and the output end of the first motor is fixedly connected with a third gear. The rear surface of the side plate is movably connected to a rotating rod through a bearing. The rotating rod is respectively provided with a first gear and a fourth gear. A threaded rod is fixedly connected to the center of the top surface of the horizontal plate. A threaded cylinder is provided above the threaded rod. This cleaning machine of the utility model has the characteristics of high efficiency and easy use. The above related technologies have the following defects: In the prior art, when the production line cleans taro, the taro is directly placed above the conveying production line. However, due to the different shapes and individuals of taro, during the transportation of taro, the transportation performance of the conveying production line for different taro is different, and there will be a lag in some taro, resulting in different cleaning effects for different taro. Therefore, an automatic taro cleaning and draining production line is proposed. Summary of the Invention

[0004] In order to ensure the stable transportation, cleaning and processing of taro with different individuals and shapes, the present invention provides an automatic taro cleaning and draining production line.

[0005] An automated taro cleaning and draining production line provided by the present invention adopts the following technical solutions: It includes a high-pressure spray plate, an equipment base, and a liquid collection box. The equipment base is installed on the upper surface of the liquid collection box, and the high-pressure spray plate is located above the equipment base. There are two conveyor belts above the equipment base. At the four corners of the inner ring side of each conveyor belt, a driving roller is installed, and the driving roller is rotatably connected to the equipment base. The two conveyor belts are connected by a plurality of storage structures. The high-pressure spray plate is located above the conveyor belt and the storage structure. The upper end of the liquid collection box is connected and installed with a bent water receiving box. The bent water receiving box is located on the inner ring side of the two conveyor belts. The upper surface of the bent water receiving box is open. Two material control structures are installed on the upper end of the equipment base, and the two material control structures are respectively located above the left of the conveyor belt and below the right of the conveyor belt. The high-pressure spray plate is located between the two material control structures.

[0006] The storage structure includes two end plates. One end of the two end plates away from each other respectively rotates through the adjacent sides of the two conveyor belts. A plurality of material blocking rods are arranged between the two end plates. At both ends of each material blocking rod, an arc-shaped insertion block is fixed, and the arc-shaped insertion block is slidably inserted into the adjacent end plate. Among the plurality of arc-shaped insertion blocks located inside the same end plate, every two adjacent arc-shaped insertion blocks are connected by a spring. An external gear is coaxially fixed to the front end plate among the two end plates.

[0007] An upper toothed plate is fixed to the upper end of the bent water receiving box. The two conveyor belts are located behind the upper toothed plate. The upper toothed plate and the external gear are in the same plane.

[0008] Optionally, an internal gear is arranged in front of the external gear. The internal gear is coaxially fixed with an inner shaft. The inner shaft rotates through the two adjacent end plates at the rear. A plurality of elastic material pushing rods are fixed to the circumferential side surface of the inner shaft between the two end plates it connects. A lower toothed plate is fixed to the upper end of the bent water receiving box. The two conveyor belts are located behind the lower toothed plate.

[0009] Optionally, the lower toothed plate and the internal gear are in the same plane. The plurality of elastic material pushing rods connected to the same inner shaft are evenly distributed in a spiral on the outer surface of the inner shaft.

[0010] Optionally, the material control structure includes a material passing box and two blocking plates. A rectangular frame is arranged on one side of the material passing box away from the two conveyor belts. The rectangular frame is elastically connected to the material passing box. Bent power expansion rods are fixed to the front and back of the rectangular frame. The other end of the bent power expansion rod is slidably connected to a cross bar, and the cross bar is fixed to the equipment base. A horizontal elastic expansion rod is fixed to the end of the bent power expansion rod away from the rectangular frame. The other end of the horizontal elastic expansion rod is slidably sleeved on the outer surface of the adjacent cross bar. One end of the two blocking plates away from each other respectively slides through the left and right inner walls of the material passing box. Side rods are arranged on the front and back sides of the material passing box. The upper end of the side rod is fixed to the rectangular frame. Two articulated push rods are rotatably connected to one end of the side rod close to the conveyor belt. The two articulated push rods connected to the same side rod are respectively rotatably connected to the two blocking plates.

[0011] Optionally, a toothed groove wheel is fixed to the rear end of the end plate connected to the rear conveyor belt among the two conveyor belts. An elastic damping plate is engaged with the circumferential side surface of the toothed groove wheel, and the elastic damping plate is fixed to the rear conveyor belt among the two conveyor belts.

[0012] Optionally, a ring is arranged inside each end plate, and the arc-shaped insert block and the spring are slidably sleeved inside the adjacent ring.

[0013] Optionally, the two articulated push rods connected to the same side rod are distributed in a V-shaped pattern. The end of the blocking plate located inside the material passing box is bent towards the conveyor belt side. An inclined angle is formed at the bent end of the blocking plate, and the end of the blocking plate close to the conveyor belt extends out of the material passing box.

[0014] Optionally, an inclined plane block is attached to the side of the blocking plate away from the conveyor belt. The inclined plane block is fixedly installed inside the material passing box, and the upper surfaces of the two inclined plane blocks located inside the same material passing box are in an inverted V-shaped pattern.

[0015] Optionally, multiple material blocking rods connected to the same end plate are arranged in parallel at equal distances, and a sleeve is rotatably sleeved on the outer surface of the material blocking rod.

[0016] In summary, the present invention includes the following beneficial technical effects: The present invention provides components such as end plates, material blocking rods, arc-shaped plug blocks and springs. When taro to be cleaned is placed between a plurality of material blocking rods between two front and rear end plates, the springs push the arc-shaped plug blocks so that the plurality of material blocking rods form an annular structure with respect to the space between the two front and rear end plates, thereby sealing the taro to be cleaned between the two front and rear end plates. Then, when the conveyor belt rotates, the taro between the two front and rear end plates can be stably driven to pass under the high-pressure spray plate for cleaning. Thus, taro of different individuals and shapes can be stably conveyed and cleaned. The present invention provides components such as an upper tooth plate, a lower tooth plate, an outer gear and an inner gear. When a conveyor belt drives the end plate to move below the high-pressure spray plate, the outer gear and the inner gear connected to the corresponding end plate and the inner shaft respectively mesh with the bottom surface of the upper tooth plate and the upper surface of the lower tooth plate, driving the inner shaft and the corresponding end plate to rotate relatively. When the inner shaft rotates, it drives the elastic material-moving rod to move the taro between the two end plates. When the end plate rotates, it drives the taro to change its position space, so that the taro can fully contact with the water flow sprayed from the high-pressure spray plate. Then, when the taro moves to one side of the high-pressure spray plate, the end plate and the elastic material-moving rod that continue to rotate drive the taro to rotate around the corresponding end plate axis, so that moisture on the surface of the taro is separated from the taro. The present invention provides a material passing box, a blocking plate, a rectangular frame and a horizontal elastic telescopic rod and other components. When the end plate rotates to the upper left of the conveyor belt, the bent power telescopic rod pushes the rectangular frame downward, and the rectangular frame drives the material passing box through an elastic connection, driving the lower end of the blocking plate to be inserted between two blocking rods between the two end plates passing below. When the rectangular frame continues to move downward, the material passing box stops moving under the obstruction of the end plate, and the rectangular frame approaches the material passing box relatively. The side rod pushes the hinged push rod to rotate, pushing the two blocking plates in the material passing box away from each other. When the two blocking plates move away from each other, the two blocking rods in contact with each other can be pushed away from each other, and taro can be added between the two end plates through the two blocking plates through the material passing box. When the end plate rotates to the lower right of the conveyor belt, the blocking plate on the lower side opens the two blocking rods in contact, and the taro cleaned between the two end plates can be discharged from the material passing box. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the overall structure of an embodiment of the present invention; Figure 2 is a front view structural schematic diagram of an embodiment of the present invention; Figure 3 is a schematic diagram of a top view structure in an embodiment of the present invention; Figure 4 It is a structural schematic diagram of the connection between the liquid collection box and the bent water receiving box in an embodiment of the present invention; Figure 5 2 is a schematic diagram of the structure of the connection between the inclined plane block and the material transfer box in an embodiment of the present invention; Figure 6 2 is a schematic structural diagram of the connection between the tooth groove wheel and the elastic damping plate in an embodiment of the present invention; Figure 7 It is a schematic structural diagram of the connection between the elastic material pushing rod and the inner shaft in the embodiment of the present invention; Figure 8 It is a schematic diagram of the test of part of the structure in the embodiment of the present invention.

[0018] Reference numerals: 1, high-pressure spray plate; 2, equipment base; 3, liquid collection tank; 4, conveyor belt; 5, driving roller; 6, bent water receiving tank; 7, storage structure; 71, end plate; 711, toothed groove wheel; 712, elastic damping plate; 713, circular ring; 714, sleeve; 72, material blocking rod; 73, arc-shaped insert block; 74, spring; 75, external gear; 76, internal gear; 77, inner shaft; 78, elastic material pushing rod; 79, lower toothed plate; 8, material control structure; 81, material passing box; 82, blocking plate; 821, inclined plane block; 83, rectangular frame; 84, bent power telescopic rod; 85, cross bar; 86, horizontal elastic telescopic rod; 87, side rod; 88, articulated push rod; 9, upper toothed plate. Detailed implementation manners

[0019] The following will Figures 1-8 further describe the present invention in detail with reference to the accompanying

[0020] The embodiment of the present invention discloses an automated taro cleaning and draining production line. As Figures 1-8 shown, it includes a high-pressure spray plate 1, an equipment base 2 and a liquid collection tank 3. The high-pressure spray plate 1 is connected to an external water supply structure, so that the bottom surface of the high-pressure spray plate 1 can spray high-pressure water downward. The equipment base 2 is installed on the upper surface of the liquid collection tank 3. The high-pressure spray plate 1 is located above the equipment base 2. There are two conveyor belts 4 above the equipment base 2. Each conveyor belt 4 is provided with driving rollers 5 at the four corners of the inner ring side. The driving rollers 5 are rotatably connected to the equipment base 2. The two conveyor belts 4 are connected by a plurality of storage structures 7. The high-pressure spray plate 1 is located above the conveyor belts 4 and the storage structures 7. The upper end of the liquid collection tank 3 is connected and installed with a bent water receiving tank 6. The bent water receiving tank 6 is located on the inner ring side of the two conveyor belts 4. The upper surface of the bent water receiving tank 6 is open. The water falling from above can flow into the open interior of the bent water receiving tank 6, and then flow into the liquid collection tank 3 through both ends of the bent water receiving tank 6. Two material control structures 8 are installed at the upper end of the equipment base 2. The two material control structures 8 are respectively located above the left of the conveyor belt 4 and below the right of the conveyor belt 4. The high-pressure spray plate 1 is located between the two material control structures 8.

[0021] The material control structure 8 includes a material passing box 81 and two blocking plates 82. On one side of the material passing box 81 away from the two conveyor belts 4, there is a rectangular frame 83. The rectangular frame 83 is elastically connected to the material passing box 81. On the front and back of the rectangular frame 83, there are bending power telescopic rods 84 fixed. The other end of the bending power telescopic rod 84 is slidably connected to a cross bar 85. The cross bar 85 is fixed to the equipment base 2. The bending power telescopic rod 84 has a tendency to drive the rectangular frame 83 to move up and down. At the end of the bending power telescopic rod 84 away from the rectangular frame 83, there is a horizontal elastic telescopic rod 86 fixed. The other end of the horizontal elastic telescopic rod 86 is slidably sleeved on the outer surface of the adjacent cross bar 85. The two ends of the two blocking plates 82 away from each other respectively slide through the left and right inner walls of the material passing box 81. On the front and back sides of the material passing box 81, there are side rods 87. The upper ends of the side rods 87 are fixed to the rectangular frame 83. At one end of the side rod 87 close to the conveyor belt 4, there are two articulated push rods 88 rotatably connected. The two articulated push rods 88 connected to the same side rod 87 are respectively rotatably connected to the two blocking plates 82. The two articulated push rods 88 connected to the same side rod 87 are distributed in a V shape. The end of the blocking plate 82 located inside the material passing box 81 bends towards the conveyor belt 4 side. The bent end of the blocking plate 82 has an oblique angle. The end of the blocking plate 82 close to the conveyor belt 4 extends out of the material passing box 81. On the side of the blocking plate 82 away from the conveyor belt 4, there is an inclined plane block 821 attached. The inclined plane block 821 is fixedly installed inside the material passing box 81. The upper surfaces of the two inclined plane blocks 821 located inside the same material passing box 81 are in an inverted V shape.

[0022] The storage structure 7 includes two end plates 71. The two ends of the two end plates 71 away from each other respectively rotatably penetrate the two sides of the two conveyor belts 4 close to each other. Between the two end plates 71, there are multiple material blocking rods 72. The multiple material blocking rods 72 connected to the same end plate 71 are arranged in parallel and at equal distances. A sleeve 714 is rotatably sleeved on the outer surface of the material blocking rod 72. When the bent end of the blocking plate 82 is inserted between the two material blocking rods 72, the bent end of the blocking plate 82 contacts the sleeve 714, driving the sleeve 714 to rotate, facilitating the blocking plate 82 to push the material blocking rod 72 to move. At both ends of each material blocking rod 72, there are arc-shaped insertion blocks 73 fixed. The arc-shaped insertion blocks 73 are slidably inserted into the adjacent end plate 71. Among the multiple arc-shaped insertion blocks 73 located inside the same end plate 71, every two adjacent arc-shaped insertion blocks 73 are connected by a spring 74. The spring 74 has a tendency to push the two connected arc-shaped insertion blocks 73 away from each other, making the multiple material blocking rods 72 connected to the same end plate 71 form an annular structure. Inside each end plate 71, there is a ring 713. The arc-shaped insertion blocks 73 and the spring 74 are slidably sleeved inside the adjacent ring 713. The ring 713 limits the compression path of the spring 74. On the front end plate 71 of the two end plates 71, there is an external gear 75 coaxially fixed.

[0023] At the upper end of the bent connection water tank 6, an upper toothed plate 9 is fixed. Two conveyor belts 4 are located behind the upper toothed plate 9. The upper toothed plate 9 and the external gear 75 are in the same plane. When the end plate 71 drives the connected external gear 75 to move under the high-pressure spray plate 1, the end plate 71 drives the external gear 75 to engage with the upper toothed plate 9. When the external gear 75 moves along with the conveyor belt 4, it can drive the connected end plate 71 to rotate. The end plate 71 drives the taro between them to rotate through the baffle rod 72. In front of the external gear 75, an internal gear 76 is arranged. The internal gear 76 is coaxially fixed with an internal shaft 77. The internal shaft 77 rotates through two adjacent rear end plates 71. A plurality of elastic material pushing rods 78 are fixed on the circumferential side surface of the internal shaft 77 between the two connected end plates 71. When the external gear 75 engages with the upper toothed plate 9, the internal gear 76 engages with the upper surface of the lower toothed plate 79. The internal gear 76 rotates in the opposite direction to the external gear 75. The elastic material pushing rods 78 are driven by the internal shaft 77 to rotate relative to the end plate 71, so that the taro can fully contact the water flow sprayed by the high-pressure spray plate 1. Then when the taro moves to one side of the high-pressure spray plate 1, the continuously rotating end plate 71 and the elastic material pushing rods 78 drive the taro to rotate around the axis of the corresponding end plate 71, facilitating the separation of the water on the surface of the taro from the taro. At the upper end of the bent connection water tank 6, a lower toothed plate 79 is fixed. Two conveyor belts 4 are located behind the lower toothed plate 79. The lower toothed plate 79 and the internal gear 76 are in the same plane. A plurality of elastic material pushing rods 78 connected to the same internal shaft 77 are evenly distributed in a spiral on the outer surface of the internal shaft 77. At the rear end of the end plate 71 connected to the rear conveyor belt 4 among the two conveyor belts 4, a toothed groove wheel 711 is fixed. An elastic damping plate 712 is engaged with the circumferential side surface of the toothed groove wheel 711. The elastic damping plate 712 is fixed to the rear conveyor belt 4 among the two conveyor belts 4. Before the upper toothed plate 9 engages with the external gear 75, the elastic damping plate 712 prevents the end plate 71 from rotating by engaging with the toothed groove wheel 711. When the blocking plate 82 is inserted between the two baffle rods 72, the end plate 71 will not rotate. When the end plate 71 rotates to the upper left of the conveyor belt 4, the bending power telescopic rod 84 pushes the rectangular frame 83 downward. The rectangular frame 83 drives the material passing box 81 through elastic connection, and drives the lower end of the blocking plate 82 to insert between two of the baffle rods 72 between the two lower passing end plates 71. During the continuous downward movement of the rectangular frame 83, the material passing box 81 stops moving under the block of the end plate 71, and the rectangular frame 83 moves relatively closer to the material passing box 81. The side rod 87 is used to push the articulated push rod 88 to rotate, and push the two blocking plates 82 in the material passing box 81 away from each other. When the two blocking plates 82 move away from each other, they can push the two contacted baffle rods 72 away from each other, and the taro can be added between the two end plates 71 through the material passing box 81 by the two blocking plates 82. When the conveyor belt 4 continues to move with the blocking plate 82 inserted between the two baffle rods 72, the conveyor belt 4 drives the bending power telescopic rod 84 to slide on the cross bar 85 and gradually compress the horizontal elastic telescopic rod 86, so that the taro can be added between the baffle rods 72 without stopping the conveyor belt 4.When the end plate 71 rotates to the lower right of the conveyor belt 4, the lower blocking plate 82 spreads apart the two material blocking rods 72 in contact. The washed taro between the two end plates 71 can be discharged from the material passing box 81. When the control rectangular frame 83 moves away from the conveyor belt 4, it can drive the blocking plate 82 to disengage from the material blocking rod 72, and the horizontal elastic telescopic rod 86 pushes the material passing box 81 to reset.

[0024] The working principle is as follows: The conveyor belt 4 drives the end plate 71 to rotate synchronously. When the end plate 71 drives the material blocking rod 72 to rotate to the lower part of the material passing box 81 on the upper left side, the material passing box 81 is controlled to move downward to add taro between the corresponding two end plates 71. After driving the blocking plate 82 to be pulled out from between the two end plates 71, the spring 74 pushes the arc-shaped insert block 73, so that the multiple material blocking rods 72 form an annular structure for the space between the front and rear two end plates 71, blocking the taro to be cleaned between the front and rear two end plates 71. Then, the conveyor belt 4 drives the taro between the two end plates 71 to move under the high-pressure spray plate 1, and the high-pressure spray plate 1 sprays high-pressure water flow on the taro below for washing. At the same time, the outer gear 75 connected to the corresponding end plate 71 and the inner shaft 77 and the inner gear 76 are respectively engaged with the bottom surface of the upper tooth plate 9 and the upper surface of the lower tooth plate 79, driving the inner shaft 77 and the corresponding end plate 71 to rotate relatively. When the inner shaft 77 rotates, it drives the elastic material pushing rod 78 to stir the taro between the two end plates 71. When the end plate 71 rotates, it drives the taro to change the position space, so that the taro can fully contact the water flow sprayed by the high-pressure spray plate 1. Then, when the taro moves to one side of the high-pressure spray plate 1, the continuously rotating end plate 71 and the elastic material pushing rod 78 drive the taro to rotate around the axis of the corresponding end plate 71, facilitating the separation of the water on the surface of the taro from the taro and completing the water drainage of the taro. When the end plate 71 rotates to the lower right of the conveyor belt 4, the lower blocking plate 82 spreads apart the two material blocking rods 72 in contact. The washed taro between the two end plates 71 can be discharged from the material passing box 81.

[0025] The above are all the preferred embodiments of the present invention, and the protection scope of the present invention is not limited thereby. Therefore, all equivalent changes made according to the structure, shape, and principle of the present invention should be covered within the protection scope of the present invention.

Claims

1. An automated cleaning and draining production line for taro, comprising a high-pressure spray plate (1), an equipment base (2) and a liquid collection box (3), characterized in that: The device base (2) is installed on the upper surface of the liquid collection tank (3). The high-pressure spray plate (1) is located above the device base (2). There are two conveyor belts (4) arranged above the device base (2). At the four corners of the inner ring side of each conveyor belt (4), a driving roller (5) is installed. The driving roller (5) is rotatably connected to the device base (2). The two conveyor belts (4) are connected by a plurality of storage structures (7). The high-pressure spray plate (1) is located above the conveyor belts (4) and the storage structures (7). The upper end of the liquid collection tank (3) is connected and installed with a bent water receiving tank (6). The bent water receiving tank (6) is located on the inner ring side of the two conveyor belts (4). The upper surface of the bent water receiving tank (6) is open. Two material control structures (8) are installed on the upper end of the device base (2). The two material control structures (8) are respectively located above the left of the conveyor belt (4) and below the right of the conveyor belt (4). The high-pressure spray plate (1) is located between the two material control structures (8). The storage structure (7) includes two end plates (71). One end of the two end plates (71) away from each other respectively rotates through the adjacent sides of the two conveyor belts (4). A plurality of material blocking rods (72) are arranged between the two end plates (71). At both ends of each material blocking rod (72), an arc-shaped insertion block (73) is fixed. The arc-shaped insertion block (73) is slidably inserted into the adjacent end plate (71). Among the plurality of arc-shaped insertion blocks (73) located inside the same end plate (71), every two adjacent arc-shaped insertion blocks (73) are connected by a spring (74). The front end plate (71) of the two end plates (71) is coaxially fixed with an external gear (75). An upper toothed plate (9) is fixed to the upper end of the bent water receiving tank (6). The two conveyor belts (4) are located behind the upper toothed plate (9). The upper toothed plate (9) and the external gear (75) are in the same plane.

2. The automated taro cleaning and draining production line according to claim 1, characterized in that: An internal gear (76) is arranged in front of the external gear (75). The internal gear (76) is coaxially fixed with an internal shaft (77). The internal shaft (77) rotates through the two adjacent rear end plates (71). A plurality of elastic material pushing rods (78) are fixed to the circumferential side of the internal shaft (77) between the two connected end plates (71). A lower toothed plate (79) is fixed to the upper end of the bent water receiving tank (6). The two conveyor belts (4) are located behind the lower toothed plate (79).

3. The automated taro cleaning and draining production line according to claim 2, characterized in that: The lower toothed plate (79) and the internal gear (76) are in the same plane. The plurality of elastic material pushing rods (78) connected to the same internal shaft (77) are evenly distributed in a spiral on the outer surface of the internal shaft (77).

4. An automated cleaning and draining production line for taro according to claim 1, characterized in that: The material control structure (8) includes a material passing box (81) and two blocking plates (82). On one side of the material passing box (81) away from the two conveyor belts (4), a rectangular frame (83) is provided. The rectangular frame (83) is elastically connected to the material passing box (81). Bent power telescopic rods (84) are fixed on both the front and back of the rectangular frame (83). The other end of the bent power telescopic rod (84) is slidably connected to a cross bar (85). The cross bar (85) is fixed to the equipment base (2). One end of the bent power telescopic rod (84) away from the rectangular frame (83) is fixed with a horizontal elastic telescopic rod (86). The other end of the horizontal elastic telescopic rod (86) is slidably sleeved on the outer surface of the adjacent cross bar (85). The two blocking plates (82) slide through the left and right inner walls of the material passing box (81) respectively at the ends away from each other. Side rods (87) are provided on both the front and back sides of the material passing box (81). The upper end of the side rod (87) is fixed to the rectangular frame (83). Two articulated push rods (88) are rotatably connected to one end of the side rod (87) close to the conveyor belt (4). The two articulated push rods (88) connected to the same side rod (87) are respectively rotatably connected to the two blocking plates (82).

5. An automated cleaning and draining production line for taro according to claim 1, characterized in that: At the rear end of the end plate (71) connected to the rear conveyor belt (4) among the two conveyor belts (4), a toothed groove wheel (711) is fixed. An elastic damping plate (712) is engaged with the circumferential side of the toothed groove wheel (711). The elastic damping plate (712) is fixed to the rear conveyor belt (4) among the two conveyor belts (4).

6. The automated taro cleaning and draining production line according to claim 1, wherein: A circular ring (713) is provided inside each end plate (71). The arc-shaped insert block (73) and the spring (74) are slidably sleeved inside the adjacent circular ring (713).

7. An automated cleaning and draining production line for taro according to claim 4, characterized in that: The two articulated push rods (88) connected to the same side rod (87) are distributed in a V shape. The end of the blocking plate (82) located inside the material passing box (81) is bent towards the conveyor belt (4). The bent end of the blocking plate (82) has an inclined angle. One end of the blocking plate (82) close to the conveyor belt (4) extends out of the material passing box (81).

8. An automated taro cleaning and draining production line according to claim 7, characterized in that: A slope block (821) is attached to the side of the blocking plate (82) away from the conveyor belt (4). The slope block (821) is fixedly installed inside the material passing box (81). The upper surfaces of the two slope blocks (821) located inside the same material passing box (81) are in an inverted V shape.

9. An automated cleaning and draining production line for taro according to claim 1, characterized in that: The multiple material blocking rods (72) connected to the same end plate (71) are arranged in parallel at equal distances. A sleeve (714) is rotatably sleeved on the outer surface of the material blocking rod (72).

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