Transportation device for plum processing

Abstract

The invention discloses a transport device for plum processing, and belongs to the technical field of fruit processing. A conveying device for plum processing comprises a device body, the upper end of the device body is connected with a first conveying belt, the upper side surface of one end of the first conveying belt is connected with a plurality of guide channels, and a circular cavity is formed through cooperation of a storage groove and a circular groove, so that independent fixation of single plums is achieved; friction and collision caused by jolting during transportation are avoided, so that the breakage rate during long-distance transportation is reduced, the requirement of subsequent processing on fruit integrity is effectively guaranteed, fruit percolate can be quickly guided out through the leakage holes of the storage cavity, juice is directionally guided into the collection cavity through the inclined flowing grooves, and the situation that the juice is retained to breed molds is avoided; meanwhile, an air convection channel is formed by penetrating through the ventilation cavity of the storage frame body, and is matched with an interlayer gap during stacking, so that the internal humidity of the cavity is remarkably reduced, heat accumulation generated by fruit respiration is inhibited, and the mildew rate of plums is further reduced.

Description

Technical Field

[0001] This invention relates to the field of fruit processing technology, and more specifically, to a transport device for plum processing. Background Technology

[0002] In the fruit processing industry, plums, due to their thin skin, juiciness, and soft flesh, have extremely high requirements for the transportation process before processing. If plums are damaged on the skin, bruised, or moldy during transportation after harvesting, it will not only lead to an increase in the loss rate of raw materials (usually up to 15%-20%), but also cause cross-contamination due to juice leakage, which will seriously affect the quality stability of subsequent processed products such as canned goods, dried fruit, and juice.

[0003] During transportation, plums are easily damaged by mutual squeezing and collision, and the juice of overripe fruits can contaminate other fruits, accelerating overall spoilage. In addition, in order to improve transportation efficiency, the storage components need to be stacked in multiple layers, but the existing devices lack a standardized stacking structure, and relative sliding can easily occur between layers, causing plums to be crushed and damaged. At the same time, poor ventilation after stacking causes heat and moisture generated by the fruit's respiration to accumulate, accelerating the softening and rotting of the fruit. Especially in long-distance transportation, the loss rate can be as high as 25% or more. Summary of the Invention

[0004] The purpose of this invention is to provide a transportation device for plum processing to solve the problems mentioned in the background art.

[0005] A transport device for plum processing includes a main body. A first conveyor belt is connected to the upper end of the main body. A plurality of guide channels are connected to the upper surface of one end of the first conveyor belt. A feeding component is connected to the end of the guide channel away from the first conveyor belt. A second conveyor belt is installed below the first conveyor component. A plurality of storage components are placed on the upper surface of the second conveyor belt. An operating table is connected to the end of the second conveyor belt facing the feeding component. First gears are installed on both sides of the operating table facing the second conveyor belt. A first drive motor is connected to the end of each first gear away from the second conveyor belt. A drive mechanism is connected to one end of both the first and second conveyor belts. Rotating rods are sleeved in the inner cavities of both ends of the first and second conveyor belts. The rotating rods installed at the end away from the feeding component are connected to the drive mechanism. An inclined conveyor plate is connected to the lower end of the guide channel. The feeding assembly includes a first rectangular connecting block. The upper inner cavity of the first rectangular connecting block is provided with a plurality of circular feeding holes. Each circular feeding hole is connected to a conveying assembly in its inner cavity. The lower end of each circular feeding hole is connected to a spiral feeding pipe. The two ends of the first rectangular connecting block away from the conveying assembly are provided with first grooves. The number of circular feeding holes is the same as the number of guide channels. The storage component includes a frame component, with handles connected to both sides of the frame component, and first toothed racks connected to the lower ends of both sides of the frame component. Several storage mechanisms are connected to the upper surface of the frame component, and the lower surface of the first toothed racks is at the same level as the lower surface of the frame component.

[0006] Preferably, the conveying assembly includes a first electric telescopic rod, the lower end of which is connected to a circular conveying pipe. The circular conveying pipe has an inlet at one end facing the guide channel, and semi-circular grooves are provided on both sides of the lower end of the circular conveying pipe. The upper end of the first electric telescopic rod is connected to the lower surface of one end of the device body.

[0007] Preferably, a semi-circular sealing plate is connected to the inner cavity of each semi-circular groove, and a second rectangular connecting block is connected to the end of each semi-circular sealing plate away from the circular feed pipe. An annular connecting block is installed at the lower end of each second rectangular connecting block, and a second electric telescopic rod is connected to the end of each annular connecting block away from the circular feed pipe. When two semi-circular sealing plates are connected, a circular sealing plate is formed, which seals the circular feed pipe and prevents plums from falling. The second electric telescopic rod and the annular connecting block are installed in the inner cavity of the first slide groove. A second slide groove is opened below the second rectangular connecting block, and a connecting groove is opened on the lower surface of the rectangular connecting block. The second rectangular connecting block is installed in the inner cavity of the second slide groove. When the second rectangular connecting block moves to the lower end of the second slide groove, the connecting groove opened at the lower end of the second rectangular connecting block coincides with one end of the annular connecting block, and the feed inlet moves downward into the inner cavity of the circular feed hole.

[0008] Preferably, the frame assembly includes a storage frame, with several first connecting rods connected to both sides of the upper end of the storage frame, and several storage grooves formed on the upper surface of the storage frame. A flow channel is formed below each storage groove, and a collection cavity is connected to the front surface of the storage frame. A discharge port is formed at one end of each flow channel facing the collection cavity, and the flow channel is inclined and communicates with a row of storage grooves formed on the upper end of the storage frame.

[0009] Preferably, the bottom two sides of the storage frame are provided with a number of circular connecting grooves, and the lower end surface of the storage frame is provided with a number of circular grooves. Each horizontally opened circular groove at the lower end of the storage frame is provided with a ventilation cavity that penetrates the storage frame. The first connecting rod fits into the circular groove. When the first connecting rod coincides with the circular groove, the storage groove and the circular groove form a circular cavity, which can fix the plum in place and allow it to move. The ventilation cavity can dissipate heat from the plum.

[0010] Preferably, the storage mechanism includes a storage cavity, the lower surface of which has a plurality of drainage holes, and both ends of the storage cavity are connected to a fourth rectangular connecting block. A circular guide rod passes through the middle part of each fourth rectangular connecting block, and a reset spring is sleeved on the outer side of each circular guide rod. The number of storage mechanisms is equal to the number of storage grooves.

[0011] Preferably, a control box is connected to the outer surface of the main body of the device, a first infrared sensor is connected to the inner cavity of the main body of the device, a second infrared sensor is connected to the inner cavity of the feeding assembly, a third infrared sensor is connected to the inner cavity of the operating table, a processing and transportation unit is mounted in the control box, a conveying module, a feeding module and a storage module are connected to the input end of the processing and transportation unit, and a first control module, a second control module and a third control module are connected to the output end of the processing and transportation unit.

[0012] Preferably, the input end of the conveying module is signal-connected to the data input end of the first infrared sensor, the output end of the first control module is signal-connected to the data output end of the drive mechanism, the input end of the feeding module is signal-connected to the data input end of the second infrared sensor, and the output end of the second control module is signal-connected to the data output end of the electric telescopic rod.

[0013] Preferably, the input terminal of the storage module is connected to the data input terminal of the third infrared sensor, and the output terminal of the third control module is connected to the data output terminal of the first drive motor.

[0014] Compared with the prior art, the advantages of this invention are: 1. In this invention, a circular cavity is formed by the combination of a storage groove and a circular groove, which enables the independent fixing of individual plums, avoiding friction and collision caused by transportation bumps, thereby reducing the damage rate during long-distance transportation and effectively ensuring the integrity of the fruit during subsequent processing. The drainage holes of the storage cavity can quickly drain the fruit exudate, and the inclined flow channel directs the juice to the collection cavity, preventing the juice from stagnating and growing mold. At the same time, the ventilation cavity that runs through the storage frame forms an air convection channel. Combined with the gaps between layers when stacking, it significantly reduces the humidity inside the cavity, inhibits the accumulation of heat generated by the fruit's respiration, and thus reduces the mold rate of the plums.

[0015] 2. In this invention, the spiral conveying pipe in the feeding assembly slows down the falling speed of the plums through the spiral channel, and the precise opening and closing control of the semi-arc sealing plate avoids the impact of the fruit falling freely; the reset spring of the storage mechanism absorbs the instantaneous pressure when the plums fall through deformation, thereby reducing the bruising rate on the surface of the plums; and the precise fit between the first connecting rod and the circular connecting groove ensures no relative slippage when multiple layers are stacked, improving stacking stability. In addition, individual components can be quickly installed and removed through the handle, reducing labor intensity. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a side view of the structure of the present invention; Figure 3 This is a schematic diagram of the internal structure of the present invention; Figure 4 This is a partial structural schematic diagram of the present invention; Figure 5 This is a schematic diagram of the feeding assembly structure of the present invention; Figure 6 This is a schematic diagram of the internal structure of the feeding assembly of the present invention; Figure 7 This is a schematic diagram of the conveying component structure of the present invention; Figure 8 This is a schematic diagram of the storage component structure of the present invention; Figure 9 This is a schematic diagram of the internal structure of the storage component of the present invention; Figure 10 This is a schematic diagram of the frame component structure of the present invention; Figure 11 This is a schematic diagram of the storage mechanism structure of the present invention; Figure 12 This is a schematic diagram of the system flow structure of the present invention.

[0017] Explanation of the numbers in the diagram: 1. Main body of the device; 2. First conveyor belt; 3. Guide channel; 4. Feeding assembly; 401. First rectangular connecting block; 402. Circular feeding hole; 403. Conveying assembly; 404. Spiral feeding pipe; 405. First chute; 406. First electric telescopic rod; 407. Circular feeding pipe; 408. Feed inlet; 409. Semi-arc groove; 410. Semi-arc sealing plate; 411. Second rectangular connecting block; 412. Annular connecting block; 413. Second electric telescopic rod; 5. Second conveyor belt; 6. Collection assembly. Components; 601, frame assembly; 602, handle; 603, first rack; 604, storage mechanism; 605, first connecting rod; 606, storage groove; 607, flow channel; 608, discharge port; 609, collection chamber; 610, circular groove; 611, ventilation chamber; 612, storage cavity; 613, leakage hole; 614, fourth rectangular connecting block; 615, circular guide rod; 616, return spring; 617, storage frame; 618, circular connecting groove; 7, operating table; 8, first gear; 9, first drive motor. Detailed Implementation

[0018] Example: Please refer to Figure 1 , Figure 2 , Figure 3and Figure 4 A transport device for plum processing includes a main body 1. A first conveyor belt 2 is connected to the upper end of the main body 1. A plurality of guide channels 3 are connected to the upper surface of one end of the first conveyor belt 2. A feeding component 4 is connected to the end of the guide channel 3 away from the first conveyor belt 2. A second conveyor belt 5 is installed below the first conveyor belt 2. A plurality of storage components 6 are placed on the upper surface of the second conveyor belt 5. An operating table 7 is connected to the end of the second conveyor belt 5 facing the feeding component 4. First gears 8 are installed on both sides of the operating table 7 facing the second conveyor belt 5. A first drive motor 9 is connected to the end of each first gear 8 away from the second conveyor belt 5. A drive mechanism is connected to one end of both the first conveyor belt 2 and the second conveyor belt 5. Rotating rods are sleeved in the inner cavities of both ends of the first conveyor belt 2 and the second conveyor belt 5. The rotating rods installed at the end away from the feeding component 4 are connected to the drive mechanism. An inclined conveyor plate is connected to the lower end of the guide channel 3. Please see Figure 5 and Figure 6 The feeding component 4 includes a first rectangular connecting block 401. The upper inner cavity of the first rectangular connecting block 401 is provided with a plurality of circular feeding holes 402. The inner cavity of each circular feeding hole 402 is connected to a conveying component 403, and the lower end of each circular feeding hole 402 is connected to a spiral feeding pipe 404. The two ends of the first rectangular connecting block 401 away from the conveying component 403 are provided with first grooves 405, and the number of circular feeding holes 402 is the same as the number of guide channels 3. Please see Figure 8 and Figure 9 The storage component 6 includes a frame component 601, with handles 602 connected to both sides of the frame component 601, and first racks 603 connected to the lower ends of both sides of the frame component 601. Several storage mechanisms 604 are connected to the upper surface of the frame component 601, and the lower surface of the first racks 603 is at the same level as the lower surface of the frame component 601.

[0019] Please refer to 7. The conveying assembly 403 includes a first electric telescopic rod 406. The lower end of the first electric telescopic rod 406 is connected to a circular conveying pipe 407. The circular conveying pipe 407 has an inlet 408 at one end facing the guide channel 3. The lower end of the circular conveying pipe 407 has semi-arc grooves 409 on both sides. The upper end of the first electric telescopic rod 406 is connected to the lower surface of one end of the device body 1.

[0020] Please see Figure 7Each semi-circular groove 409 has a semi-circular sealing plate 410 connected to its inner cavity. A second rectangular connecting block 411 is connected to the end of each semi-circular sealing plate 410 away from the circular conveying pipe 407. An annular connecting block 412 is installed at the lower end of each second rectangular connecting block 411. A second electric telescopic rod 413 is connected to the end of each annular connecting block 412 away from the circular conveying pipe 407. When two semi-circular sealing plates 410 are connected, they form a circular sealing plate, which seals the circular conveying pipe 407 and prevents plums from falling. Both the electric telescopic rod 413 and the annular connecting block 412 are installed in the inner cavity of the first slide groove 405. The second rectangular connecting block 411 has a second slide groove below it, and a connecting groove is provided on the lower surface of the second rectangular connecting block 411. The second rectangular connecting block 411 is installed in the inner cavity of the second slide groove. When the second rectangular connecting block 411 moves to the lower end of the second slide groove, the connecting groove at the lower end of the second rectangular connecting block 411 will coincide with one end of the annular connecting block 412, and the feed port 408 will move downward into the inner cavity of the circular feed hole 402.

[0021] Please see Figure 10 The frame assembly 601 includes a storage frame 617. Several first connecting rods 605 are connected to both sides of the upper end of the storage frame 617. Several storage grooves 606 are formed on the upper end surface of the storage frame 617. A flow channel 607 is formed below each storage groove 606. A collection cavity 609 is connected to the front end surface of the storage frame 617. A discharge port 608 is formed at one end of each flow channel 607 facing the collection cavity 609. The flow channel 607 is inclined and communicates with a row of storage grooves 606 formed on the upper end of the storage frame 617.

[0022] Specifically, the circular cavity is formed by the combination of the storage groove 606 and the circular groove 610, which allows for the independent fixing of individual plums, avoiding friction and collision caused by transportation bumps, thereby reducing the damage rate during long-distance transportation and effectively ensuring the integrity of the fruit during subsequent processing. The drainage hole 613 of the storage cavity 612 can quickly drain the fruit exudate, and the inclined flow channel 607 directs the juice to the collection cavity 609 to prevent the juice from stagnating and growing mold. At the same time, the ventilation cavity 611 that runs through the storage frame 617 forms an air convection channel. Combined with the gaps between layers when stacking, it significantly reduces the humidity inside the cavity, inhibits the accumulation of heat generated by the respiration of the fruit, and thus reduces the mold rate of the plums.

[0023] Please see Figure 10The storage frame 617 has several circular connecting grooves 618 on both sides of its bottom end, and several circular grooves 610 on its lower end surface. Each horizontally opened circular groove 610 at the lower end of the storage frame 617 has a ventilation cavity 611 that extends through the storage frame 617. The first connecting rod 605 fits into the circular groove 610. When the first connecting rod 605 overlaps with the circular groove 610, the storage groove 606 and the circular groove 610 form a circular cavity, which fixes the plum for movement. The ventilation cavity 611 dissipates heat from the plum.

[0024] Please see Figure 11 The storage mechanism 604 includes a storage cavity 612. The lower end surface of the storage cavity 612 is provided with a plurality of drainage holes 613. Both ends of the storage cavity 612 are connected to a fourth rectangular connecting block 614. A circular guide rod 615 passes through the middle part of each fourth rectangular connecting block 614. A reset spring 616 is sleeved on the outside of each circular guide rod 615. The number of storage mechanisms 604 is equal to the number of storage grooves 606.

[0025] Specifically, in the feeding component 4, the spiral conveying pipe 404 slows down the falling speed of the plums through the spiral channel, and with the precise opening and closing control of the semi-arc sealing plate 410, the impact of the fruit falling freely is avoided; the return spring 616 of the storage mechanism 604 absorbs the instantaneous pressure when the plums fall through deformation, thereby reducing the bruising rate on the surface of the plums; and the precise fit between the first connecting rod 605 and the circular connecting groove 618 ensures that there is no relative slippage when multiple layers are stacked, improving the stacking stability. In addition, individual components can be quickly installed and removed through the handle 602, reducing labor intensity.

[0026] Please see Figure 12 A control box is connected to the outer surface of the main body 1. A first infrared sensor is connected to the inner cavity of the main body 1. A second infrared sensor is connected to the inner cavity of the feeding assembly 4. A third infrared sensor is connected to the inner cavity of the operating table 7. A processing and transportation unit is mounted in the control box. A conveying module, a feeding module, and a storage module are connected to the input end of the processing and transportation unit. A first control module, a second control module, and a third control module are connected to the output end of the processing and transportation unit.

[0027] The input end of the conveying module is connected to the data input end of the first infrared sensor, the output end of the first control module is connected to the data output end of the drive mechanism, the input end of the feeding module is connected to the data input end of the second infrared sensor, and the output end of the second control module is connected to the data output end of the electric telescopic rod.

[0028] The input terminal of the storage module is connected to the data input terminal of the third infrared sensor, and the output terminal of the third control module is connected to the data output terminal of the first drive motor 9.

[0029] Working principle: The first infrared sensor monitors the amount of plums in the guide channel 3, the second infrared sensor detects the state of the fruit in the feeding component 4, and the third infrared sensor senses the filling status of the storage component 6. The data is transmitted to the conveying module, the feeding module, and the storage module respectively, and finally summarized to the processing unit. The processing unit, according to the preset program, such as "stop when full" or "start when empty", controls the start and stop of the conveyor belt through the first control module, the second control module operates the electric telescopic rod to perform the action of the feeding component, and the third control module drives the first drive motor to move the storage component 6, forming a closed-loop control of "sensing-judgment-execution". The sorted plums are manually placed on the first conveyor belt 2, while the empty storage component 6 is placed on the second conveyor belt 5. The control box starts the drive mechanism, and the upper first conveyor belt 2 and the lower second conveyor belt 5 rotate synchronously. The plums move with the first conveyor belt 2 to the guide channel 3, and the storage component 6 moves with the second conveyor belt 5 to the bottom of the feeding component 4. If the first infrared sensor detects that the guide channel 3 is full of plums (reaching the preset capacity), the signal is transmitted to the processing unit through the conveying module. The processing unit pauses the first conveyor belt 2 through the first control module to prevent fruit overflow. When the number of plums in the channel decreases (unsaturated state), the sensor triggers a restart command, and the conveyor belt resumes operation. If the first rack 603 at the front end of the storage component 6 meshes with the first gear 8 of the operating table 7, the first infrared sensor detects that the storage component 6 is in place, and the processing unit pauses the second conveyor belt 5 to ensure that the feeding component 4 and the storage component 6 are accurately aligned. If the storage component 6 is filled and removed, the sensor detects an "empty space," and the second conveyor belt 5 restarts. The plums in the guide channel 3 slide into the feed inlet 408 of the feeding assembly 4 via the inclined conveyor plate. At this time, the conveying assembly 403 is in the initial state: the first electric telescopic rod 406 retracts, the feed inlet 408 is located above the circular feed hole 402, the semi-arc sealing plate 410 blocks the lower end of the circular feed pipe 407, and the fruit is temporarily stored in the circular feed pipe 407. At this time, after the second infrared sensor detects that there is fruit in the circular feed pipe 407, the processing unit starts the first electric telescopic rod 406 to extend through the second control module, which drives the circular feed pipe 407 to move downward along the circular feed hole 402 until the second rectangular connecting block 411 slides to the bottom along the second slide groove. At this time, the feed inlet 408 completely enters the circular feed hole 402, and the connecting groove of the second rectangular connecting block 411 is aligned with the annular connecting block 412. After the sensor confirms the alignment, the second electric telescopic rod 413 retracts, driving the annular connecting block 412, the second rectangular connecting block 411, and the semi-arc sealing plate 410 to move along the first sliding groove 405. The semi-arc sealing plate 410 is pulled out from the semi-arc groove 409, and the lower end of the circular conveying pipe 407 opens. Under the guidance of gravity and the spiral conveying pipe 404, the plums fall steadily into the storage cavity 612 of the lower storage component 6. When a plum falls into the storage cavity 612, its gravity exerts instantaneous pressure on the cavity, pushing it downwards. The fourth rectangular connecting blocks 614 at both ends compress the return spring 616 along the circular guide rod 615, absorbing the impact force through spring deformation and reducing surface damage. After filling, the return spring 616 rebounds, and the storage cavity 612 returns to its initial height. When the third infrared sensor detects that the storage cavity 612 is full, the signal is transmitted to the processing unit via the storage module. The processing unit, through the third control module, starts the first drive motor 9, driving the first gear 8 to rotate. The gear interacts with the first rack 603 of the storage assembly 6. The meshing mechanism moves the frame assembly 601 laterally by one station, aligning the next empty storage cavity 612 with the discharge hole of the spiral conveyor pipe 404. Simultaneously, the processing unit controls the second electric telescopic rod 413 to extend, closing the sealing plate, and then retracts the first electric telescopic rod 406 to reset the circular conveyor pipe 407. The feeding action is repeated until all the storage cavities 612 of the storage assembly 6 are filled. Once a storage assembly 6 is filled, it is manually removed and placed into a transport box. The second conveyor belt 5 transports the new empty storage assembly 6 to the alignment position, repeating the "feeding-filling-shifting" cycle until all plums are transported and filled. The filled storage assembly 6 is moved to the operating table 7 via handle 602. The circular connecting groove 618 of the upper storage assembly 6 is aligned with the first connecting rod 605 of the lower storage assembly 6, so that the first connecting rod 605 is inserted into the circular connecting groove 618. At this time, the upper storage groove 606 and the lower circular groove 610 form a closed circular cavity, which physically fixes the plums. The storage assemblies 6 are then stacked. Finally, the stacked storage assemblies 6 are transported to the processing point by a transport vehicle. During the transportation, the juice that seeps out of the plums due to compression flows into the flow channel 607 of the frame assembly 601 through the drain hole 613 at the bottom of the storage cavity 612, and finally collects in the collection cavity 609, preventing the juice from contaminating the fruit. At the same time, the ventilation cavity 611 at the lower end of the frame assembly 601 runs through the entire storage frame 617, realizing air circulation and reducing the internal temperature of the cavity. This completes all operations.

[0030] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely preferred examples and are not intended to limit the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A transport device for plum processing, comprising a main body (1), characterized in that: The upper end of the main body (1) of the device is connected to a first conveyor belt (2). A plurality of guide channels (3) are connected to the upper surface of one end of the first conveyor belt (2). A feeding component (4) is connected to the end of the guide channel (3) away from the first conveyor belt (2). A second conveyor belt (5) is installed below the first conveyor belt (2). A plurality of storage components (6) are placed on the upper surface of the second conveyor belt (5). An operating table (7) is connected to the end of the second conveyor belt (5) facing the feeding component (4). First gears (8) are installed on both sides of the end of the operating table (7) facing the second conveyor belt (5). A first drive motor (9) is connected to the end of each first gear (8) away from the second conveyor belt (5). A drive mechanism is connected to one end of both the first conveyor belt (2) and the second conveyor belt (5). The feeding component (4) includes a first rectangular connecting block (401). The upper end of the first rectangular connecting block (401) has a plurality of circular feeding holes (402). Each circular feeding hole (402) is connected to a conveying component (403) in its inner cavity. The lower end of each circular feeding hole (402) is connected to a spiral feeding pipe (404). The two ends of the first rectangular connecting block (401) away from the conveying component (403) are provided with first sliding grooves (405). The storage component (6) includes a frame component (601), with handles (602) connected to both sides of the frame component (601), and first racks (603) connected to the lower ends of both sides of the frame component (601). Several storage mechanisms (604) are connected to the upper surface of the frame component (601).

2. The transport device for plum processing according to claim 1, characterized in that: The conveying assembly (403) includes a first electric telescopic rod (406), the lower end of which is connected to a circular conveying pipe (407). The circular conveying pipe (407) has an inlet (408) at one end facing the guide channel (3), and semi-arc grooves (409) are provided on both sides of the lower end of the circular conveying pipe (407).

3. A transport device for plum processing according to claim 2, characterized in that: Each of the semi-circular grooves (409) has a semi-circular sealing plate (410) connected to its inner cavity. Each semi-circular sealing plate (410) has a second rectangular connecting block (411) connected to one end away from the circular conveying pipe (407). Each second rectangular connecting block (411) has an annular connecting block (412) installed at its lower end. Each annular connecting block (412) has a second electric telescopic rod (413) connected to one end away from the circular conveying pipe (407).

4. A transport device for plum processing according to claim 3, characterized in that: The frame assembly (601) includes a storage frame (617), on both sides of the upper end of the storage frame (617) are connected to a plurality of first connecting rods (605), and the upper end surface of the storage frame (617) is provided with a plurality of storage grooves (606), each storage groove (606) is provided with a flow channel (607) below it, and the front end surface of the storage frame (617) is connected to a collection cavity (609), and each flow channel (607) is provided with a discharge port (608) at one end facing the collection cavity (609).

5. A transport device for plum processing according to claim 4, characterized in that: The bottom two sides of the storage frame (617) are provided with a number of circular connecting grooves (618), and the lower surface of the storage frame (617) is provided with a number of circular grooves (610). Each horizontally opened circular groove (610) at the lower end of the storage frame (617) is provided with a ventilation cavity (611) and penetrates the storage frame (617).

6. A transport device for plum processing according to claim 5, characterized in that: The storage mechanism (604) includes a storage cavity (612), the lower end surface of which is provided with a plurality of drainage holes (613), and both ends of the storage cavity (612) are connected to a fourth rectangular connecting block (614). A circular guide rod (615) passes through the middle part of each fourth rectangular connecting block (614), and a return spring (616) is sleeved on the outer side of each circular guide rod (615).

7. A transport device for plum processing according to claim 6, characterized in that: A control box is connected to the outer surface of the main body (1) of the device. A first infrared sensor is connected to the inner cavity of the main body (1). A second infrared sensor is connected to the inner cavity of the feeding assembly (4). A third infrared sensor is connected to the inner cavity of the operating table (7). A processing and transportation unit is mounted in the control box. A conveying module, a feeding module and a storage module are connected to the input end of the processing and transportation unit. A first control module, a second control module and a third control module are connected to the output end of the processing and transportation unit.

8. A transport device for plum processing according to claim 7, characterized in that: The input end of the conveying module is connected to the data input end of the first infrared sensor, the output end of the first control module is connected to the data output end of the drive mechanism, the input end of the feeding module is connected to the data input end of the second infrared sensor, and the output end of the second control module is connected to the data output end of the electric telescopic rod.

9. A transport device for plum processing according to claim 8, characterized in that: The input terminal of the storage module is connected to the data input terminal of the third infrared sensor, and the output terminal of the third control module is connected to the data output terminal of the first drive motor (9).

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