Kernel removing mechanism and half-peach kernel removing system

Abstract

The invention provides the half-peach kernel-removing system comprising the kernel-removing mechanism, and the half-peach kernel-removing system can synchronously remove kernels of a plurality of half peaches with kernel pulp and ensure smooth and efficient kernel-removing at the same time. The kernel removing mechanism comprises a chain plate conveying belt, the chain plate conveying belt comprises a plurality of transmission chain plates which are sequentially connected, each transmission chain plate is provided with a plurality of supporting holes in the length direction, each transmission chain plate is further fixedly connected with a plurality of first brackets located below the supporting holes respectively, and each first bracket is further elastically connected with a supporting bowl. The supporting bowls can be downwards accommodated in the corresponding supporting holes or upwards withdrawn from the corresponding supporting holes in the vertical direction; the second bracket is fixedly arranged above one end of the chain plate conveying belt, the first telescopic drivers are fixedly arranged below the second bracket, and the first telescopic drivers are connected with top heads capable of upwards abutting into the corresponding first brackets to drive supporting bowls; and the second bracket is also provided with a plurality of pairs of first kernel removing knives and second kernel removing knives which are in one-to-one correspondence with the plurality of first brackets on each transmission chain plate.

Description

Technical Field

[0001] The invention relates to the technical field of peach pitting processing equipment, in particular to a pitting mechanism and a half-peach pitting system. Background Art

[0002] Peaches can be processed into canned fruits. During the processing, the whole peaches need to be cut in half and the cores removed, and the resulting pulp is used for subsequent processing. When removing the cores, you can use a fruit automatic core removal machine provided by the Chinese patent with announcement number CN215124133U, which includes: a machine body, one side of the machine body is movably connected to the equipment driving wheel, driving sprocket, and driven sprocket, and the equipment driving wheel, driving sprocket, and driven sprocket are connected by a transmission chain plate, and the outer side of the transmission chain plate is provided with a placement groove, and the interior of the placement groove is provided with upper and lower movable peach holding bowls; the side of the machine body is movably connected to the main shaft body and slidably connected to the lower box body, and the main shaft body and the lower box body are respectively located on the transmission chain. The upper and lower parts of the plate are connected by a gear toothed belt structure. The U-shaped pit digging knife is set to simulate manual pit digging. After pitting peaches with a maturity of less than 70%, the pit nest is smooth, complete, without burrs or cracks. In addition, the lower box structure at the bottom cooperates with the upper and lower movable peach supporting bowls to play a supporting role when digging the pit, which can ensure the quality of the product. However, in actual operation, the pit digging knife may move with the flesh when inserted, so that the pit and the flesh are connected to the pit digging knife and cannot be smoothly removed, resulting in obstruction of the pit digging process. Summary of the invention

[0003] In view of the deficiencies in the prior art, the present invention provides a core-digging mechanism, which solves the problem in the prior art that the fruit pulp with the core may move together with the core-digging knife, resulting in failure to disengage smoothly and affecting the core-digging process.

[0004] According to an embodiment of the present invention, a core digging mechanism includes a chain plate conveyor belt, the chain plate conveyor belt includes a plurality of transmission chain plates connected in sequence, each transmission chain plate is provided with a plurality of supporting holes along the length direction, each transmission chain plate is also fixedly connected with a plurality of first brackets respectively located below the supporting holes, each first bracket is also elastically connected with a supporting bowl, and the supporting bowl can be downwardly accommodated in or upwardly withdrawn from the corresponding supporting hole in the vertical direction; it also includes a second bracket fixedly arranged above one end of the chain plate conveyor belt, and a plurality of first telescopic drivers fixedly arranged below the second bracket and corresponding one-to-one to the plurality of first brackets on each transmission chain plate, the first telescopic driver is connected with a head that can be pushed upward into the corresponding first bracket to drive the supporting bowl; the second bracket is also provided with a plurality of pairs of first core digging knives and second core digging knives corresponding one-to-one to the plurality of first brackets on each transmission chain plate, as well as a first rotating driver and a second rotating driver that respectively drive all the first core digging knives and all the second core digging knives, and each pair of first core digging knives and second core digging knives rotate downward in an opposing and encircling manner. The method for conveying the pitted fruit pulp and the separated pulp and pit in the present solution and the subsequent separation method are similar to those in the prior art. In the specific operation, the peaches are first cut in half, and then the pitted fruit pulp is placed in each supporting bowl with the pit facing upward, and then moved with the supporting bowl to the bottom of the second bracket, and the first telescopic drive drives the top supporting bowl and the pitted fruit pulp to move upward, and the first rotating drive and the second rotating drive respectively drive the first pit digging knife and the second pit digging knife to insert downward into the fruit pulp around the pit to dig out the pit, and then the first telescopic drive moves downward, the fruit pulp and the pit are separated, and the first pit digging knife and the second pit digging knife are reset to release the pit, thereby realizing pit digging. During the process, the pitted fruit pulp cannot move with the first pit digging knife and / or the second pit digging knife, and the pit and the flesh are separated smoothly, thereby solving the problem in the prior art that the pitted fruit pulp may move together with the pit digging knife, resulting in failure to disengage smoothly and affecting the pit digging.

[0005] Furthermore, the second bracket includes a first base plate and a plurality of first through frames arranged on the first base plate and corresponding one by one to the plurality of first brackets on each transmission chain plate, respectively. Each pair of first core-digging knives and second core-digging knives can rotate at a corresponding first through frame, respectively. The first rotation driver and the second rotation driver are respectively connected to a first mounting shaft and a second mounting shaft located above the first base plate, respectively. The first mounting shaft and the second mounting shaft are respectively provided with a plurality of first tooth rings and a plurality of second tooth rings, respectively. Both the first core-digging knife and the second core-digging knife are arc-shaped and a first tooth belt and a second tooth belt are respectively provided on the outer arc wall, the first tooth belt is meshed with one of the first tooth rings, and the second tooth belt is meshed with one of the second tooth rings.

[0006] Furthermore, the curvature of the first core-digging knife is smaller than that of the second core-digging knife, and initially the second core-digging knife is located obliquely above the first core-digging knife.

[0007] Furthermore, a plurality of pairs of second telescopic actuators are installed on the first bottom plate and arranged on both sides of each first through frame. Each pair of second telescopic actuators has an output end that telescopes downward and the ends are fixedly connected to a top ring that surrounds the corresponding first through frame and is located below the first through frame.

[0008] Furthermore, the outer diameter of the top ring is larger than the inner diameter of the circle where the opening of the upper end surface of the tray bowl is located.

[0009] Furthermore, the first core digging knife includes a first insertion section and a first meshing section, the first toothed belt is arranged on the first meshing section, and the second core digging knife includes a second insertion section and a second meshing section, the second toothed belt is arranged on the second meshing section.

[0010] Furthermore, the first bracket includes a second bottom plate, a second through frame is arranged on the second bottom plate, the first telescopic driver is connected to an output end which telescopes upward and is fixedly connected to the plug, and the plug can pass through the second through frame.

[0011] Furthermore, the bottom of the support bowl is fixedly connected to a top tube, and the upper end of the top tube is also connected to the inside of the support bowl, a ring platform is arranged outside the top tube, and a spring is connected between the ring platform and the second bottom plate, and the top head includes an outer top segment and an inner top segment fixedly connected to the top surface of the outer top segment, and both the inner top segment and the outer top segment can pass through the spring located directly above them, and the outer top segment can be against the top tube, and the inner top segment can pass through the top tube and extend into the support bowl.

[0012] Furthermore, an elastic block is fixedly connected to one end of the inner top section away from the outer top section, and a groove is recessed on the end surface of the elastic block.

[0013] According to an embodiment, a half-peach pit digging system including the above-mentioned pit digging mechanism is also provided.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] The fruit core is dug out by a first core-digging knife and a second core-digging knife which rotate downward in an opposing and encircling manner. During the process, the fruit flesh with the core cannot move together with the first core-digging knife and / or the second core-digging knife, and the fruit core and the flesh are separated smoothly, thus solving the problem in the prior art that the fruit flesh with the core may move together with the core-digging knife, resulting in failure to smoothly disengage and affecting the core digging process. At the same time, a half-peach core-digging system including a core-digging mechanism is provided, which can simultaneously dig out the cores of multiple half peaches with core flesh, while ensuring that the core digging is carried out smoothly and efficiently. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 The overall structure of the embodiment of the present invention is shown in FIG. Figure 1 (When digging for core);

[0017] Figure 2 The overall structure of the embodiment of the present invention is shown in FIG. Figure 2(When the core is not dug);

[0018] Figure 3 for Figure 1 A magnified diagram of the local structure at point A Figure 1 (When the first core-digging knife and the second core-digging knife are initially used);

[0019] Figure 4 for Figure 1 A magnified diagram of the local structure at point A Figure 1 (After the first and second core-digging knives are inserted into the pulp);

[0020] Figure 5 for Figure 2 A magnified schematic diagram of the local structure at B in the middle;

[0021] Figure 6 for Figure 4 An enlarged schematic diagram of the local structure at C in the middle (when the first rotating knife and the second rotating knife are spoon structures);

[0022] In the above drawings:

[0023] Chain conveyor belt 1, transmission chain plate 2, supporting hole 3, first bracket 4, supporting bowl 5, second bracket 6, first telescopic driver 7, top head 8, first core digging knife 9, second core digging knife 10, first rotating driver 11, second rotating driver 12, fruit pulp with core 13, fruit core 14, first bottom plate 15, first through frame 16, first mounting shaft 17, second mounting shaft 18, first toothed ring 19, second toothed ring 20, first toothed belt 21, second toothed belt 22, spring 23, second telescopic driver 24, top ring 25, second bottom plate 26, second through frame 27, top cylinder 28, outer top section 29, inner top section 30, elastic block 31, groove 32. DETAILED DESCRIPTION

[0024] The technical solution of the present invention is further described below in conjunction with the accompanying drawings and embodiments.

[0025] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise", "axial", "radial", "circumferential" and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as limiting the present invention.

[0026] In an exemplary embodiment, Figure 1-6As shown, the present embodiment provides a half-peach pit digging system including a pit digging mechanism, and the conveying of the pit-carrying pulp and the separated pulp and pit and the subsequent separation method are similar to those in the prior art, wherein the pit digging mechanism includes a chain plate conveyor belt 1, and the chain plate conveyor belt 1 includes a plurality of transmission chain plates 2 connected in sequence, and each transmission chain plate 2 is provided with a plurality of supporting holes 3 along the length direction, and each transmission chain plate 2 is also fixedly connected to a plurality of first brackets 4 respectively located below the supporting holes 3, and each first bracket 4 is also elastically connected to a supporting bowl 5, and the supporting bowl 5 can be downwardly accommodated in or upwardly withdrawn from the corresponding supporting hole 3 in the vertical direction; the pit digging mechanism also includes a second bracket 6 fixedly arranged above one end of the chain plate conveyor belt 1, and a fixed A plurality of first telescopic drivers 7 are arranged below the second bracket 6 and correspond one-to-one to the plurality of first brackets 4 on each transmission chain plate 2. The first telescopic drivers 7 are connected to a head 8 that can be pushed upward into the corresponding first bracket 4 to drive the tray bowl 5; the second bracket 6 is also provided with a plurality of pairs of first core-digging knives 9 and second core-digging knives 10 that correspond one-to-one to the plurality of first brackets 4 on each transmission chain plate 2, as well as a first rotation driver 11 and a second rotation driver 12 that respectively drive all the first core-digging knives 9 and all the second core-digging knives 10, and each pair of the first core-digging knives 9 and the second core-digging knives 10 rotate downward in an opposing and encircling manner. In particular, the first core-digging knives 9 and the second core-digging knives 10 that are arranged can both be arc-shaped. , and the curvature of the first pitting knife 9 is smaller than that of the second pitting knife 10, and initially the second pitting knife 10 is located obliquely above the first pitting knife 9. During operation, the peach is first cut in half, and then the pitted flesh 13 is placed in each supporting bowl 5 with the pit 14 facing upward, and then moved with the supporting bowl 5 to the bottom of the second bracket 6, the first telescopic driver 7 drives the top head 8 to push the supporting bowl 5 and the pitted flesh 13 upward, and then the first rotating driver 11 first drives the first pitting knife 9 to rotate, and after the first pitting knife 9 and the second pitting knife 10 are completely staggered, the second rotating driver 12 drives the second pitting knife 10 to rotate, and both (the first pitting knife 9 and the second pitting knife 10) are inserted into the flesh from both sides of the pit 14 at the same time, The core 14 is embraced, and then the first telescopic drive 7 moves downward, the flesh and the core 14 are separated, and the first core-digging knife 9 and the second core-digging knife 10 are reset to release the core 14, thereby realizing core digging. During the process, the fruit flesh 13 with the core cannot move with the first core-digging knife 9 and / or the second core-digging knife 10, and the fruit core 14 and the flesh are separated smoothly, thereby solving the problem in the prior art that the fruit flesh 13 with the core may move with the core-digging knife, resulting in failure to disengage smoothly and affecting the core digging process; in a further solution, the first core-digging knife 9 and the second core-digging knife 10 can also be a spoon structure similar to the soup spoon in the prior art, and the downward moving end is a pointed end, so that the embrace of the fruit core 14 is more complete and the core digging effect is better.

[0027] like Figure 1 , 3, 4 and 6, the second bracket 6 includes a first base plate 15 and a plurality of first through frames 16 arranged on the first base plate 15 and corresponding to the plurality of first brackets 4 on each transmission chain plate 2, each pair of first core digging knives 9 and second core digging knives 10 can rotate at a corresponding first through frame 16, the first rotation driver 11 and the second rotation driver 12 are respectively connected to a first mounting shaft 17 and a second mounting shaft 18 located above the first base plate 15, and the first mounting shaft 17 and the second mounting shaft 18 are respectively sleeved with a plurality of first gear rings 19 and a plurality of second gear rings 19. The first toothed belt 21 and the second toothed belt 22 are respectively arranged on the outer arc wall of the toothed ring 20, the first core digging knife 9 and the second core digging knife 10, the first toothed belt 21 is meshed with one of the first toothed rings 19, and the second toothed belt 22 is meshed with one of the second toothed rings 20. In more detail, the first core digging knife 9 includes a first insertion section and a first meshing section, the first toothed belt 21 is arranged on the first meshing section, the second core digging knife 10 includes a second insertion section and a second meshing section, and the second toothed belt 22 is arranged on the second meshing section, so that the first rotation drive 11 and the second rotation drive 12 are The first core-digging knife 9 and the second core-digging knife 10 can be driven to operate by meshing; in particular, when the first core-digging knife 9 and the second core-digging knife 10 are spoon structures, the first toothed belt 21 and the second toothed belt 22 can be arranged in the upper section in the middle of the outer wall of the spoon structure, similar to the first meshing section and the second meshing section. In the core-digging process, the first toothed belt 21 and the second toothed belt 22 arranged in two ways are both arc-shaped strip structures and do not need to enter the pulp, so they will not be adversely affected by the pulp (if the pulp is stuck on the first toothed belt 21 and the second toothed belt 22), ensuring smooth core-digging; The first through frame 16 is provided to provide operating space for the first core-digging knife 9 and the second core-digging knife 10. The first mounting shaft 17 and the second mounting shaft 18 are both located above the first through frame 16, and rotate under the drive of the first rotating driver 11 and the second rotating driver 12 (both can be driving motors), respectively, and then drive the first gear ring 19 and the second gear ring 20 to rotate, so that the multiple first core-digging knives 9 and the multiple second core-digging knives 10 are rotated through the meshing relationship, and the cores of the fruit pulp 13 with cores in the multiple supporting bowls 5 on a transmission chain plate 2 are simultaneously dug, and the efficiency is improved.

[0028] In a further solution, Figure 1-6As shown, a plurality of pairs of second telescopic drivers 24 are also installed on the first bottom plate 15 and are arranged on both sides of each first through frame 16. Each pair of second telescopic drivers 24 has an output end that telescopes downward and the ends are fixedly connected to a top ring 25 that surrounds the corresponding first through frame 16 and is located below the first through frame 16. When the pitted fruit pulp 13 and the supporting bowl 5 are driven upward to the highest point by the first telescopic driver 7, the provided top ring 25 moves downward under the drive of the two second telescopic drivers 24 (which can be a telescopic cylinder like the first telescopic driver 7) and abuts against the cut surface of the pitted fruit pulp 13 (at the same time, the outer ring diameter of the top ring 25 is larger than the inner diameter of the circle where the opening of the upper end face of the supporting bowl 5 is located, so that the top ring 25 can be prevented from accidentally abutting against the supporting bowl 5). In this way, the flesh part of the pitted fruit pulp 13 can be limited up and down respectively, ensuring that The fruit pulp 13 with the core 14 is ensured to remain stable during the operation of the first core-digging knife 9 and the second core-digging knife 10, thereby further ensuring that the core digging is carried out stably; in more detail, after the first core-digging knife 9 and the second core-digging knife 10 run to the lowest position and stop, the second telescopic drive 24 and the first telescopic drive 7 can synchronously run downward for a distance, pull the fruit pulp downward so that the fruit pulp is completely separated from the fruit core 14, and then the first core-digging knife 9 and the second core-digging knife 10 and the second telescopic drive 24 are reset, so that the core digging can be carried out completely smoothly; in particular, when the first core-digging knife 9 and the second core-digging knife 10 move to the lowest position, their lower ends can be close to each other, and the distance between the two is smaller than the diameter of the fruit core 14, ensuring that the fruit core 14 does not fall before resetting, which also ensures that the core digging is successfully carried out.

[0029] like Figure 1-6As shown, in a further scheme, the first bracket 4 includes a second bottom plate 26, and a second through frame 27 is arranged on the second bottom plate 26. The first telescopic driver 7 is connected to an output end that is telescopic upward and fixedly connected to the top head 8, and the top head 8 can pass through the second through frame 27. The bottom of the supporting bowl 5 is fixedly connected to a top cylinder 28, and the upper end of the top cylinder 28 is also connected to the inside of the supporting bowl 5. A ring platform is arranged outside the top cylinder 28, and a spring 23 is connected between the ring platform and the second bottom plate 26. The ring platform provides a mounting base for the upper end of the spring 23, and the spring 23 plays a role in elastically connecting the supporting bowl 5 and the first bracket 4. The top head 8 includes The outer top section 29 and the inner top section 30 fixedly connected to the top surface of the outer top section 29, the inner top section 30 and the outer top section 29 can both pass through the spring 23 located directly above them, and the outer top section 29 can abut against the top tube 28 (in a more detailed solution, a ring groove can be recessed on the end surface of the top tube 28, and a ring that can abut into the ring groove is fixedly connected to the end surface of the outer top section 29. During the upward process, the inner top section 30 is in the top tube 28 and cooperates with the spring 23, which can make the up and down movement of the support bowl 5 more stable). The inner top section 30 can pass through the top tube 28 and extend into the support bowl 5. During operation, the set The outer top section 29 and the inner top section 30 can be coaxially arranged cylindrical, and the outer top section 29 has a larger diameter. The outer top section 29 abuts against the lower end surface of the top tube 28 so that the supporting bowl 5 moves upward smoothly. At the same time, the inner top extends into the supporting bowl 5 and fixes the lower end of the stone-carrying flesh 13 upward. The upward movement distance of the stone-carrying flesh 13 relative to the supporting bowl 5 is very small and will not be directly pushed out of the supporting bowl 5. After reaching the highest position, the top ring 25 moves downward to cooperate with the inner top section 30 to make the stone-carrying flesh 13 in a stable state, so that some smaller stone-carrying flesh 13 can also be dug smoothly (that is, the stone-carrying flesh 13 can be The flesh on the upper end surface is smoothly pushed out to the top of the supporting bowl 5, and smoothly contacts with the top ring 25 to achieve tight contact). In a further detailed scheme, the end of the inner top segment 30 facing away from the outer top segment 29 is also fixedly connected to an elastic block 31, and a groove 32 is recessed on the end surface of the elastic block 31. The end surface of the elastic block 31 facing away from the inner top segment 30 can be recessed, so that a larger area can be contacted with the bottom surface of the pitted flesh 13 to prevent damage caused by pushing into the interior of the flesh. At the same time, the elastic block 31 can be made of rubber and have a certain buffer shape, which can reduce the degree of damage to the pitted flesh 13.

[0030] Finally, it should be noted that the above embodiments are only used to illustrate the technical solution of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solution of the present invention can be modified or replaced by equivalents without departing from the purpose and scope of the technical solution of the present invention, which should be included in the scope of the claims of the present invention.

Claims

1. A core digging mechanism, characterized in that: It includes a chain plate conveyor belt, which includes a plurality of transmission chain plates connected in sequence, each of which is provided with a plurality of supporting holes along the length direction, and each of which is also fixedly connected with a plurality of first brackets respectively located below the supporting holes, and each of which is also elastically connected with a supporting bowl, and the supporting bowl can be downwardly accommodated in or upwardly withdrawn from the corresponding supporting hole in the vertical direction; it also includes a second bracket fixedly arranged above one end of the chain plate conveyor belt, and a plurality of first telescopic drivers fixedly arranged below the second bracket and corresponding one-to-one to the plurality of first brackets on each of the transmission chain plates, the first telescopic drivers being connected with a head that can be pushed upward into the corresponding first bracket to drive the supporting bowl; the second bracket is also provided with a plurality of pairs of first core digging knives and second core digging knives corresponding one-to-one to the plurality of first brackets on each of the transmission chain plates, and a first rotating driver and a second rotating driver respectively driving all of the first core digging knives and all of the second core digging knives, and each pair of the first core digging knives and the second core digging knives rotate downward in an opposing and encircling manner.

2. The core-digging mechanism according to claim 1, characterized in that: The second bracket includes a first base plate and a plurality of first through frames arranged on the first base plate and corresponding to the plurality of first brackets on each of the transmission chain plates respectively. Each pair of the first core-digging knives and the second core-digging knives can rotate at a corresponding first through frame respectively. The first rotation driver and the second rotation driver are respectively connected to a first mounting shaft and a second mounting shaft located above the first base plate. The first mounting shaft and the second mounting shaft are respectively provided with a plurality of first tooth rings and a plurality of second tooth rings. The first core-digging knife and the second core-digging knife are both arc-shaped and the first tooth belt and the second tooth belt are respectively provided on the outer arc wall. The first tooth belt is meshed with one of the first tooth rings, and the second tooth belt is meshed with one of the second tooth rings.

3. The core digging mechanism according to claim 2, characterized in that: The curvature of the first core-digging knife is smaller than that of the second core-digging knife, and initially, the second core-digging knife is located obliquely above the first core-digging knife.

4. The core digging mechanism according to claim 2, characterized in that: A plurality of pairs of second telescopic actuators are also installed on the first bottom plate and are arranged on both sides of each first through frame. Each pair of the second telescopic actuators has an output end that telescopes downward and the ends are fixedly connected to a top ring that surrounds the corresponding first through frame and is located below the first through frame.

5. The core-digging mechanism according to claim 4, characterized in that: The outer ring diameter of the top ring is larger than the inner diameter of the circle where the opening of the upper end surface of the tray bowl is located.

6. The core-digging mechanism according to claim 3, characterized in that: The first core digging knife includes a first insertion section and a first meshing section, the first toothed belt is arranged on the first meshing section, and the second core digging knife includes a second insertion section and a second meshing section, the second toothed belt is arranged on the second meshing section.

7. The core-digging mechanism according to any one of claims 1 to 6, characterized in that: The first bracket includes a second bottom plate, a second through frame is arranged on the second bottom plate, the first telescopic driver is connected with an output end which telescopes upward and is fixedly connected to the plug, and the plug can pass through the second through frame.

8. The core-digging mechanism according to claim 7, characterized in that: The bottom of the support bowl is fixedly connected to a top tube, and the upper end of the top tube is also connected to the inside of the support bowl, a ring platform is arranged outside the top tube, and a spring is connected between the ring platform and the second bottom plate, the top head includes an outer top segment and an inner top segment fixedly connected to the top surface of the outer top segment, the inner top segment and the outer top segment can both pass through the spring located directly above them, and the outer top segment can resist the top tube, and the inner top segment can pass through the top tube and extend into the support bowl.

9. The core-digging mechanism according to claim 8, characterized in that: An elastic block is fixedly connected to one end of the inner top section away from the outer top section, and a groove is recessed on the end surface of the elastic block.

10. A system for removing the core of a half peach, characterized in that: It comprises a core digging mechanism as described in any one of claims 1-9.

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