Ice crusher

Abstract

The invention discloses an ice crusher. The system comprises a host; the shredding assembly comprises an outer fixing barrel shell and an inner rotating barrel, the inner rotating barrel is arranged on the inner side of the outer fixing barrel shell and rotationally connected with the outer fixing barrel shell, a connector is arranged at the barrel bottom of the inner rotating barrel, and the connector is connected with the inner rotating barrel in a clamped mode; the extending opening is formed in the bottom of the inner rotating drum, the connector is installed on the inner side of the extending opening, a plurality of lock catches are fixed to the inner wall of the extending opening, lock catch inserting openings are formed in the outer side wall of the connector and located at the end away from the connecting shaft, the lock catches and the lock catch inserting openings are mutually connected in an inserted mode, a buckling position is arranged on one side of each lock catch inserting opening, and the other side of each lock catch inserting opening is provided with a locking position. The other side of the lock catch inserting opening is provided with a lock catch push-out guide inclined face, and the lock catch and the lock catch push-out guide inclined face are connected in a sliding mode. The device has the beneficial effects that forward rotation locking and reverse rotation unlocking of the shredding assembly can be achieved without additional manual operation, assembly taking and placing are more convenient, and operation convenience is greatly improved.

Description

Technical Field

[0001] This invention relates to the technical field of ice shavers, and in particular to an ice shaver. Background Technology

[0002] Ice shavers, as specialized equipment for cutting ice, are widely used in daily life, catering, and leisure consumption. They can be divided into two categories based on their power source: manual and electric. Manual ice shavers rely on human power to drive the blades to rotate and cut ice; they have a simple structure and low cost, making them suitable for small-scale production and parent-child interactive scenarios. Electric ice shavers, on the other hand, use an electric motor as a power source, driving the cutting components through a transmission mechanism. They offer high efficiency and convenience, meeting large-scale ice-making needs. With consumption upgrades and the expansion of family entertainment scenarios, their market penetration rate is continuously increasing.

[0003] Currently, there is an irreconcilable contradiction between the tightness of connections and the ease of disassembly in the technical design of existing ice shavers. On the one hand, in pursuit of stable connections during operation, some products adopt deep threaded connections, multiple sets of bolts for fastening, or interference fits. While these designs can effectively resist vibration and impact during the cutting process and prevent components from loosening, disassembly requires tools or complex operations, which is time-consuming and laborious. Users find it difficult to disassemble and separate the parts that come into contact with the ice for cleaning, and can only perform a general rinse. However, a general rinse is insufficient to thoroughly clean the parts that come into contact with the ice, leaving cleaning dead spots. Residual water and sugar from the rinse can easily lead to bacterial growth inside the ice shaver. On the other hand, to simplify the disassembly process, some products use simple snap-fit ​​or magnetic quick-connect structures. While this allows for quick loading and unloading of the slicing components, the locking strength of these structures is limited. When the slicing components rotate at high speed to cut ice, centrifugal force and vibration can easily cause the connections to loosen, or even lead to component displacement or detachment, posing safety hazards and failing to meet the requirements for continuous and stable cutting.

[0004] In summary, there is a need for an ice shaver that provides stable connection during operation and is easy to disassemble for cleaning. Summary of the Invention

[0005] The present invention aims to overcome the shortcomings of the prior art and provide an ice shaver that is stable in operation and easy to disassemble for cleaning.

[0006] To achieve the above objectives, the present invention adopts the following technical solution: An ice shaver includes: The host computer is provided with an assembly interface and a rotary drive component, the rotary drive component being located inside the assembly interface; A shredding assembly includes an outer fixed cylinder and an inner rotating cylinder. The outer fixed cylinder is fixed at the assembly interface. The inner rotating cylinder is placed inside the outer fixed cylinder and rotatably connected to it. A connector is provided at the bottom of the inner rotating cylinder. The connector and the inner rotating cylinder are interlocked. A connecting shaft is fixed on the end face of the connector and connected to the rotary drive component. Several shredding blades are fixed on the side wall of the inner rotating cylinder. The shredding blades are circumferentially distributed on the side wall of the inner rotating cylinder. A feeding channel communicating with the interior of the outer fixed cylinder is provided on the side wall of the outer fixed cylinder. An extension port is located at the bottom of the inner rotating cylinder. The connector is installed inside the extension port and rotatably engaged with it. A circumferential baffle is fixed on the outer wall of the connector, located at one end near the connecting shaft. The width of the circumferential baffle is greater than the diameter of the extension port. Several latches are fixed on the inner wall of the extension port, circumferentially distributed on the inner wall of the extension port. The outer wall of the connector is provided with latch slots corresponding to the latches, located at one end away from the connecting shaft. The latches and latch slots are interlocked. One side wall of the latch slot is provided with a matching latch position, and the latches and the latch position are interlocked. The other side wall of the latch slot is provided with a latch ejection guide slope, and the latches and the latch ejection guide slope are slidably connected.

[0007] The assembly interface on the main unit is used to fix the outer fixed cylinder shell of the shredding assembly. The rotating drive component inside precisely aligns with the connecting shaft on the end face of the connector, thereby driving the inner rotating cylinder placed inside the outer fixed cylinder shell to rotate stably. In use, ice material is fed into the equipment through the feeding channel on the side wall of the outer fixed cylinder shell. The shredding blades distributed circumferentially on the side wall of the inner rotating cylinder rotate at high speed with the inner rotating cylinder, cutting the ice material to form uniform ice shreds. The extension port at the bottom of the inner rotating cylinder and the connector adopt a rotating fastening structure. After the circumferential lock on the inner wall of the extension port is inserted into the lock socket of the connector, when the rotating drive component rotates forward, the lock will slide along the inner wall of the socket to the corresponding fastening position and fasten with each other, realizing automatic locking of the shredding assembly and ensuring the connection stability between the inner rotating cylinder and the connector during the cutting process. When the rotating drive component rotates in reverse, the lock will slide along the push-out guide slope on the other side of the lock socket to disengage from the fastening position, completing automatic unlocking and facilitating disassembly and cleaning. The circumferential baffle on the outer wall of the connector, being wider than the extension opening diameter, effectively restricts the axial displacement of the connector, preventing loosening during assembly. This application utilizes a large-angle locking structure design, enabling forward locking and reverse unlocking of the shredding assembly without additional manual operation. This makes component placement and removal more convenient, significantly improving operational ease of use. The detachable design between the connector and the inner rotating cylinder allows for easy replacement of the connector, facilitating maintenance. This locking structure also ensures stable fixation of the shredding assembly during operation, preventing the inner rotating cylinder from rotating out. This eliminates the need for additional cup lid fasteners and accessories, simplifying the equipment assembly process and effectively saving manufacturing costs.

[0008] Preferably, a pusher rod is provided on the inner side of the feeding channel. The pusher rod is adapted to and movably connected to the feeding channel. A weight-reducing groove is provided on the end face of the pusher rod away from the inner rotating cylinder, and several protrusions are fixed on the end face of the pusher rod facing the inner rotating cylinder. Through the design of the pusher rod, ice material can be actively pushed towards the inner slicing disc, improving shaved ice efficiency. The weight-reducing groove on the pusher rod can reduce its own weight and operating force while ensuring the structural strength of the pusher rod. The protrusions on the pusher rod can enhance the contact friction with the ice material, prevent the ice material from slipping, and thus achieve a smooth and precise push of the ice material towards the slicing disc.

[0009] Preferably, the slicing disc has several slicing holes, and slicing blades are installed at the slicing holes, with the slicing blades fixed to the outer surface of the slicing disc. When the inner rotating cylinder rotates at high speed with the rotating drive, the slicing disc on its side wall rotates synchronously. After the ice material to be processed is pushed to the slicing disc, the slicing blades fixed to the outer surface of the slicing disc cut the ice material, so that the ice material is sliced ​​into ice shreds of uniform size through the slicing holes.

[0010] Preferably, a discharge rib is fixed on the inner wall of the inner rotating cylinder, and an auxiliary discharge slope is provided on the side of the discharge rib facing the central axis of the inner rotating cylinder. The auxiliary discharge slope is inclined towards the central axis of the inner rotating cylinder from the end near the cylinder opening to the end away from the cylinder opening. The thickness of the discharge rib gradually increases from the end near the cylinder opening to the end away from the cylinder opening. When the inner drum rotates at high speed, the discharge bone on its inner wall rotates synchronously. The ice material cut by the shaving disc comes into contact with the auxiliary discharge slope on the side of the discharge bone facing the central axis under the action of centrifugal force. The slope is inclined from the opening of the inner drum towards the bottom of the drum towards the central axis, and the thickness of the discharge bone gradually increases from the opening to the bottom of the drum. This can form a continuous rotational pushing force to guide the ice material along the slope to the outside of the inner drum and push it towards the discharge port. The inclined slope and the gradually thickening structure improve the pushing and guiding effect of the ice material, effectively avoiding the accumulation and blockage of ice material in the drum, realizing smooth discharge of ice shavings, and ensuring the discharge efficiency and the continuity of cutting operation.

[0011] Preferably, the inner rotating cylinder has a slicing blade mounting port on its side wall, and two opposite side walls of the slicing blade are provided with rib grooves. A rib matching the rib groove is fixed at the edge of the slicing blade mounting port, and the rib and the rib groove are interlocked. A clip head and a card are fixed on the other two opposite side walls of the slicing blade, and a clip head positioning groove matching the clip head and a card positioning groove matching the card are provided at the edge of the slicing blade mounting port. The clip head and the clip head positioning groove are interlocked, and the card and the card positioning groove are interlocked. When assembling the shredder disc, align and engage the two sides with the retaining rib grooves with the retaining ribs on the edge of the shredder disc mounting opening on the inner rotating drum side wall. Then, align and engage the other two sides with the retaining heads and cards with the corresponding retaining head positioning grooves and card positioning grooves on the edge of the mounting opening. This four-fold engagement positioning assembly method securely fixes the shredder disc to the inner rotating drum, achieving both rapid and precise assembly of the shredder disc and ensuring connection stability during high-speed rotation and cutting through the multi-directional engagement structure. This effectively prevents the disc from shifting or loosening. Furthermore, this engagement structure facilitates disassembly, cleaning, and replacement of the shredder disc later, improving the convenience of equipment maintenance.

[0012] Preferably, a plurality of fasteners are fixed on the outer wall of the outer fixed shell. These fasteners are circumferentially distributed on the outer wall of the outer fixed shell, and are located at one end of the outer fixed shell. The inner side of the assembly interface has a fastener slot that matches the fastener. The outer fixed shell is installed at the assembly interface and locked in place by the cooperation of the fasteners and the fastener slot. A discharge guide plate is fixed at the other end of the outer fixed shell. During assembly, the end of the outer fixed shell with the fasteners is aligned with the assembly interface of the main unit, so that the plurality of fasteners circumferentially distributed at the port of the outer fixed shell precisely align with the fastener slot on the inner side of the assembly interface and are locked in place. This achieves rapid assembly and stable connection between the outer fixed shell and the main unit, ensuring that the outer fixed shell does not loosen or shift during ice shaving operations. Quick assembly and disassembly can be completed without additional fasteners, simplifying the assembly process and improving assembly efficiency. The discharge guide plate at the other end of the outer fixed shell guides and diverts the cut ice during the ice shaving operation, allowing the cut ice to be discharged smoothly in a preset direction, preventing the ice from scattering and improving the convenience and cleanliness of use.

[0013] Preferably, the rotary drive component includes a PCBA control board and a motor. The PCBA control board and the motor are electrically connected. The motor has a motor shaft, and one end of the connecting shaft has a motor shaft slot. The motor shaft and the motor shaft slot are interlocked. The end face of the connector has a connecting shaft slot that matches the other end of the connecting shaft. The other end of the connecting shaft and the connecting shaft slot are interlocked with each other and have an interference fit. One end of the connecting shaft is precisely interlocked with the connecting shaft slot on the end face of the connector, forming an interference fit, so that the two are assembled into a single structure. While the outer fixed shell is being assembled with the assembly interface, the other end of the connecting shaft is also precisely interlocked with the motor shaft through the motor shaft slot. During operation, the PCBA control board, which is electrically connected to the motor, regulates the motor. The motor's operation drives the motor shaft to rotate, which in turn drives the inner rotating cylinder to rotate synchronously through the transmission action of the integrated connecting shaft and connector.

[0014] Preferably, a limiting plate is fixed on the inner wall of the outer fixed shell. The limiting plate is located near one end of the outer fixed shell. The limiting plate has a bearing mounting hole, and a bearing is installed in the bearing mounting hole. The bearing is sleeved on the connecting shaft. The side wall of the connecting shaft has a bearing retaining ring limiting groove, and a bearing retaining ring is sleeved in the bearing retaining ring limiting groove. The bearing is located between the bearing retaining ring and the connecting head. During assembly, the bearing is sleeved on the connecting shaft and placed in the bearing mounting hole. Then, the bearing retaining ring is sleeved in the bearing retaining ring limiting groove on the side wall of the connecting shaft, so that the bearing is axially limited between the bearing retaining ring and the connecting head. During operation, the bearing rotates smoothly with the connecting shaft and provides radial support and positioning for the connecting shaft.

[0015] Preferably, the limiting plate is provided with a bearing outer ring limiting groove, which is located on one side of the port of one end of the fixed cylindrical shell facing outwards. The bearing outer ring limiting groove is located at the edge of the port of the bearing mounting hole, and the outer ring of the bearing is placed in the bearing outer ring limiting groove. The inner ring of the bearing is located inside the bearing mounting hole. A positioning pin is fixed in the bearing outer ring limiting groove, and the outer ring of the bearing is provided with a positioning hole that matches the positioning pin. The positioning pin and the positioning hole are interlocked. During assembly, the bearing is sleeved on the connecting shaft and placed in the bearing mounting hole of the limiting plate, so that the outer ring of the bearing is engaged in the bearing outer ring limiting groove. At the same time, the positioning pin in the limiting groove is precisely inserted into the positioning hole on the outer ring of the bearing. The inner ring of the bearing is placed inside the bearing mounting hole. During operation, the inner ring of the bearing rotates synchronously with the connecting shaft, while the outer ring is fixed and kept stationary by the bearing outer ring limiting groove and the positioning pin.

[0016] Preferably, the connector is positioned on one side of the port at the other end of the fixed cylinder shell, directly opposite the limiting plate. A wear-resistant sealing gasket limiting step is provided on the end face of the connector facing the limiting plate. A wear-resistant sealing gasket is fitted onto the limiting step, and the bearing mounting hole is located inside the wear-resistant sealing gasket. During assembly, the wear-resistant sealing gasket is fitted onto the limiting step, and the connector is positioned on one side of the port at the other end of the fixed cylinder shell, with the wear-resistant sealing gasket sandwiched between the two. Simultaneously, the bearing mounting hole is located inside the wear-resistant sealing gasket. The wear-resistant sealing gasket reduces rotational friction loss between the connector and the limiting plate, and effectively prevents ice and moisture from entering the bearing mounting hole through the gap between them, thus improving the wear resistance of the components and the overall sealing performance of the equipment, extending the service life of the equipment.

[0017] The beneficial effects of this invention are: ensuring the connection stability between the inner rotating cylinder and the connector during the cutting process; facilitating disassembly and cleaning; enabling forward rotation locking and reverse rotation unlocking of the shaving assembly without additional manual operation, making component placement and removal more convenient and significantly improving operational ease of use; allowing easy replacement of the connector, thus facilitating maintenance; ensuring the inner rotating cylinder remains fixed during operation, eliminating the need for additional cup lid fasteners and accessories, simplifying the equipment assembly process and effectively saving production costs; achieving stable and precise pushing of ice material to the shaving disc; effectively preventing ice material from accumulating and blocking inside the cylinder, achieving smooth material discharge in shaved ice operations, while ensuring material output efficiency and the continuity of cutting operations; and providing precise support and positioning for the connecting shaft on the connector. Attached Figure Description

[0018] Figure 1 This is the front view of the present invention; Figure 2 This is the left view of the present invention; Figure 3 yes Figure 2Sectional view at point AA; Figure 4 yes Figure 3 A schematic diagram of the structure of the shredder assembly; Figure 5 This is an assembly diagram of the connector and the inner rotating cylinder; Figure 6 This is an exploded view of the shredding assembly; Figure 7 This is an exploded view of the inner rotating cylinder.

[0019] In the diagram: 1. Main unit, 2. Assembly interface, 3. Outer fixed shell, 4. Inner rotating cylinder, 5. Connector, 6. Connecting shaft, 7. Shredder disc, 8. Feed channel, 9. Extension port, 10. Circumferential baffle, 11. Lock, 12. Lock insertion port, 13. Lock position, 14. Lock ejection guide slope, 15. Push rod, 16. Weight reduction groove, 17. Protrusion, 18. Shredder hole, 19. Shredder cutter, 20. Discharge rib, 21. Auxiliary discharge slope, 22. Shredder disc mounting port, 23. Buckle groove, 24. Buckle, 25. Clamp head, 26. Card, 27. Clamp head positioning groove, 28. Card positioning groove, 29. Clamp body, 30. Clamp body groove, 31. 32. Discharge guide plate; 33. PCBA control board; 34. Motor; 35. Motor shaft; 36. Motor shaft slot; 37. Connecting shaft slot; 38. Limiting plate; 39. Bearing mounting hole; 40. Bearing retaining ring limiting groove; 41. Bearing retaining ring; 42. Bearing outer ring limiting groove; 43. Locating pin; 44. Locating hole; 45. Wear-resistant sealing gasket. Detailed Implementation

[0020] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. The following description of at least one exemplary embodiment is merely illustrative and is in no way intended to limit this application or its application or use. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the scope of protection of this application.

[0021] It should be noted that the terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the exemplary embodiments according to this application. As used herein, the singular form is intended to include the plural form as well, unless the context clearly indicates otherwise. Furthermore, it should be understood that when the terms "comprising" and / or "including" are used in this specification, they indicate the presence of features, steps, operations, devices, components, and / or combinations thereof.

[0022] Unless otherwise specifically stated, the relative arrangement, numerical expressions, and values ​​of components illustrated in these embodiments do not limit the scope of this application. For ease of illustration, spatial relative terms such as “upper,” “lower,” “left,” and “right” are used in the embodiments to describe the relationship of one element or feature shown in the figures relative to another element or feature. It should be understood that, in addition to the orientations shown in the figures, spatial terms are intended to include different orientations of the device in use or operation. For example, if the device in the figures is inverted, an element described as being “below” other elements or features would be fixed “upper” to other elements or features. Thus, the exemplary term “lower” can include both upper and lower orientations. The device may be fixed in other ways (rotated 90 degrees or located in other orientations), and the spatial relative descriptions used herein can be interpreted accordingly. It should also be understood that, for ease of description, the dimensions of the various parts shown in the figures are not drawn to actual scale. Techniques, processes, and equipment known to those skilled in the art may not be discussed in detail, but where appropriate, such techniques, processes, and equipment should be considered part of the specification. In all examples shown and discussed herein, any specific values ​​should be interpreted as merely exemplary and not as limiting. Therefore, other examples of exemplary embodiments may have different values. It should be noted that similar reference numerals and letters in the following figures denote similar items; therefore, once an item is defined in one figure, it need not be discussed further in subsequent figures.

[0023] Furthermore, it should be noted that the use of terms such as "first" and "second" to define components is merely for the purpose of distinguishing the corresponding components. Unless otherwise stated, the above terms have no special meaning and therefore cannot be construed as limiting the scope of protection of this application.

[0024] like Figures 1-7 In the embodiments described above, an ice shaver includes: The host 1 is equipped with an assembly interface 2 and a rotary drive component, with the rotary drive component located inside the assembly interface 2. The shredding assembly includes an outer fixed cylinder shell 3 and an inner rotating cylinder 4. The outer fixed cylinder shell 3 is installed and fixed at the assembly interface 2. The inner rotating cylinder 4 is placed inside the outer fixed cylinder shell 3 and is rotatably connected to it. A connector 5 is provided at the bottom of the inner rotating cylinder 4. The connector 5 and the inner rotating cylinder 4 are engaged with each other. A connecting shaft 6 is installed and fixed on the end face of the connector 5. The connecting shaft 6 is connected to the rotary drive component. Several shredding blades 7 are installed and fixed on the side wall of the inner rotating cylinder 4. The shredding blades 7 are circumferentially distributed on the side wall of the inner rotating cylinder 4. A feeding channel 8 communicating with the interior is provided on the side wall of the outer fixed cylinder shell 3. An extension port 9 is located at the bottom of the inner rotating cylinder 4. A connector 5 is installed inside the extension port 9 and rotatably engaged with it. A circumferential baffle 10 is fixed on the outer wall of the connector 5, located near the end of the connecting shaft 6. The width of the circumferential baffle 10 is greater than the diameter of the extension port 9. Several latches 11 are fixed on the inner wall of the extension port 9, circumferentially distributed. The outer wall of the connector 5 is provided with latch insertion slots 12 corresponding to the latches 11. The opening 12 is located at the end away from the connecting shaft 6. The latch 11 and the latch socket 12 are inserted into each other. A latching position 13 matching the latch 11 is provided on one side wall of the latch socket 12. The latch 11 and the latching position 13 are interlocked. A latch ejection guide slope 14 is provided on the other side wall of the latch socket 12. The latch 11 and the latch ejection guide slope 14 are slidably connected. The latch ejection guide slope 14 is inclined from the opening of the latch socket 12 to the bottom of the latch socket 12 towards the latching position 13.

[0025] A push rod 15 is provided on the inner side of the feeding channel 8. The push rod 15 and the feeding channel 8 are adapted to each other and are movably connected. A weight reduction groove 16 is provided on the end face of the push rod 15 away from the inner rotating cylinder 4. Several protrusions 17 are fixed on the end face of the push rod 15 facing the inner rotating cylinder 4.

[0026] The shredding disc 7 has several shredding holes 18, and a shredding blade 19 is provided at each of the shredding holes 18. The shredding blade 19 is fixed on the outer surface of the shredding disc 7.

[0027] A discharge rib 20 is fixed on the inner wall of the inner rotating cylinder 4. An auxiliary discharge slope 21 is provided on the side of the discharge rib 20 facing the central axis of the inner rotating cylinder 4. The auxiliary discharge slope 21 is inclined towards the central axis of the inner rotating cylinder 4 from the end near the cylinder opening of the inner rotating cylinder 4 to the end away from the cylinder opening of the inner rotating cylinder 4. The thickness of the discharge rib 20 gradually increases from the end near the cylinder opening of the inner rotating cylinder 4 to the end away from the cylinder opening of the inner rotating cylinder 4.

[0028] The inner rotating cylinder 4 has a slicing blade mounting port 22 on its side wall. Two opposite side walls of the slicing blade 7 are provided with rib grooves 23. A rib 24 matching the rib groove 23 is fixed at the edge of the slicing blade mounting port 22. The rib 24 and the rib groove 23 are interlocked. A clip head 25 and a card 26 are fixed on the other two opposite side walls of the slicing blade 7. A clip head positioning groove 27 matching the clip head 25 and a card positioning groove 28 matching the card 26 are provided at the edge of the slicing blade mounting port 22. The clip head 25 and the clip head positioning groove 27 are interlocked, and the card 26 and the card positioning groove 28 are interlocked.

[0029] Several fasteners 29 are fixed on the outer side wall of the outer fixed shell 3. The fasteners 29 are circumferentially distributed on the outer side wall of the outer fixed shell 3. The fasteners 29 are located at one end of the outer fixed shell 3. The inner side of the assembly interface 2 is provided with a fastener slot 30 that matches the fastener 29. The outer fixed shell 3 is installed at the assembly interface 2 and locked in place by the cooperation of the fasteners 29 and the fastener slot 30. A discharge guide plate 31 is fixed at the other end of the outer fixed shell 3.

[0030] The rotary drive includes a PCBA control board 32 and a motor 33. The PCBA control board 32 and the motor 33 are electrically connected. The motor 33 is provided with a motor shaft 34. One end of the connecting shaft 6 is provided with a motor shaft slot 35. The motor shaft 34 and the motor shaft slot 35 are inserted into each other. The end face of the connector 5 is provided with a connecting shaft slot 36 that matches the other end of the connecting shaft 6. The other end of the connecting shaft 6 and the connecting shaft slot 36 are inserted into each other and are interference-fitted.

[0031] A limiting plate 37 is fixed on the inner side wall of the outer fixed cylinder shell 3. The limiting plate 37 is located at one end of the outer fixed cylinder shell 3. The limiting plate 37 is provided with a bearing mounting hole 38. A bearing 39 is installed at the bearing mounting hole 38. The bearing 39 is sleeved on the connecting shaft 6. A bearing retaining ring limiting groove 40 is provided on the side wall of the connecting shaft 6. A bearing retaining ring 41 is sleeved at the bearing retaining ring limiting groove 40. The bearing 39 is located between the bearing retaining ring 41 and the connecting head 5.

[0032] The limiting plate 37 is provided with a bearing outer ring limiting groove 42. The bearing outer ring limiting groove 42 is located on one side of the port of one end of the fixed cylindrical shell 3 facing outward from the limiting plate 37. The bearing outer ring limiting groove 42 is located at the port edge of the bearing mounting hole 38. The outer ring of the bearing 39 is placed in the bearing outer ring limiting groove 42. The inner ring of the bearing 39 is located inside the bearing mounting hole 38. A positioning pin 43 is fixed in the bearing outer ring limiting groove 42. The outer ring of the bearing 39 is provided with a positioning hole 44 that matches the positioning pin 43. The positioning pin 43 and the positioning hole 44 are interlocked.

[0033] The connector 5 is positioned on one side of the port at the other end of the fixed cylinder shell 3, directly opposite the limiting plate 37. A wear-resistant sealing gasket 45 is provided between the connector 5 and the limiting plate 37, and the bearing mounting hole 38 is located inside the wear-resistant sealing gasket 45.

[0034] Assembly principle: I. Assembly of Inner Rotating Cylinder 4 First, align the slicing blade disc 7 with the mounting opening on the side wall of the inner rotating cylinder 4. Align and engage the ribs 24 on the edge of the mounting opening 22 using the snap-fit ​​grooves 23 on both sides of the slicing blade disc 7. Then, precisely engage the snap-fit ​​heads 25 and clips 26 on the other two sides of the slicing blade disc 7 with the corresponding snap-fit ​​head positioning grooves 27 and clip positioning grooves 28 on the mounting opening 22. This quadruple engagement structure securely fixes the slicing blade disc 7. Next, insert the connector 5 into the extension opening 9 at the bottom of the inner rotating cylinder 4. Align the circumferentially distributed locking buckles 11 on the inner wall of the extension opening 9 with the locking buckle insertion slots 12 on the side wall of the connector 5. Rotate the connector 5 to engage the locking buckles 11 with the locking positions 13. Use the circumferential baffle 10, whose width is greater than the diameter of the extension opening 9, to restrict axial displacement, thus achieving a rotational engagement and fixation between the inner rotating cylinder 4 and the connector 5. Finally, fit the wear-resistant sealing gasket 45 onto the wear-resistant sealing gasket limiting step on the connector 5.

[0035] II. Assembly of the outer fixed shell The bearing 39 is placed into the bearing mounting hole 38 of the limiting plate 37 inside the outer fixed shell 3, so that the outer ring of the bearing 39 is engaged in the bearing outer ring limiting groove 40 of the limiting plate 37. At the same time, the positioning pin 43 in the bearing outer ring limiting groove 40 is precisely inserted into the positioning hole 44 of the outer ring of the bearing 39, thus completing the fixation of the outer ring of the bearing 39 on the outer fixed shell 3 and placing the inner ring of the bearing 39 inside the bearing mounting hole 38.

[0036] III. The inner rotating cylinder 4 and the outer fixed cylinder shell 3 are assembled together to form a shredding assembly. The inner rotating cylinder 4, with the shredder disc 7 and connector 5 assembled, is inserted into the inner side of the outer fixed cylinder shell 3 from the port, so that the connecting shaft 6 at the end face of the connector 5 is precisely inserted into the inner ring of the bearing 39. Then, the bearing retaining ring 41 is fitted into the bearing retaining ring limiting groove 40 of the connecting shaft 6 to form an axial limit on the bearing 39.

[0037] IV. Assembly between the shredding assembly and the main unit 1 The outer fixed shell 3 is engaged with the buckle slot 30 inside the assembly interface 2 of the main unit 1 through the buckle 29 distributed circumferentially at its port. At the same time, the connecting shaft 6 is also engaged with the motor shaft 34 on the motor 33 through the motor shaft slot 35, thus completing the overall assembly.

[0038] Working principle: During operation, the motor shaft 34 drives the connecting head 5 to rotate synchronously at high speed with the inner rotating drum 4 via the connecting shaft 6. After the user puts the ice material into the feeding channel 8, they push the push rod 15. The protrusions 17 on the push rod 15 enhance the friction with the ice material, smoothly and accurately pushing the ice material towards the inner rotating drum 4. The rotation of the inner rotating drum 4 drives the shredding disc 7 to rotate synchronously. The shredding blades 19 on the outer surface of the shredding disc 7 cut the ice material, so that the ice material is formed into ice shreds of uniform size through the shredding holes 18. At the same time, the discharge bone 20 on the inner side wall of the inner rotating drum 4 rotates with it. With the help of the auxiliary discharge slope 21 and the gradually thickening structure, a rotational pushing force is formed. Under the cooperation of centrifugal force, the ice shreds are guided to the outside of the inner rotating drum 4 and smoothly discharged through the discharge guide plate 31 at the port of the outer fixed cylinder shell 3, avoiding material blockage.

[0039] During the entire working process, when the rotating drive component rotates forward, the locking structure of the extension port 9 and the connector 5 automatically locks to ensure a stable connection. After the work is completed, the motor reverses to allow the locking buckle 11 to slide out of the locking buckle guide slope 14 along the locking buckle, thereby achieving automatic unlocking. This facilitates the disassembly and assembly of components and greatly improves the ease of operation and the practicality of the equipment.

[0040] The above embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to limit them. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. An ice shaver, characterized in that it comprises: The host (1) is provided with an assembly interface (2) and a rotary drive component, the rotary drive component being located inside the assembly interface (2); The shredding assembly includes an outer fixed cylinder shell (3) and an inner rotating cylinder (4). The outer fixed cylinder shell (3) is installed and fixed at the assembly interface (2). The inner rotating cylinder (4) is placed inside the outer fixed cylinder shell (3) and rotatably connected to it. A connector (5) is provided at the bottom of the inner rotating cylinder (4). The connector (5) and the inner rotating cylinder (4) are engaged with each other. A connecting shaft (6) is installed and fixed on the end face of the connector (5). The connecting shaft (6) is connected to the rotary drive component. Several shredding blades (7) are installed and fixed on the side wall of the inner rotating cylinder (4). The shredding blades (7) are circumferentially distributed on the side wall of the inner rotating cylinder (4). A feeding channel (8) communicating with the interior of the outer fixed cylinder shell (3) is provided on the side wall of the outer fixed cylinder shell (3). An extension port (9) is located at the bottom of the inner rotating cylinder (4). A connector (5) is installed inside the extension port (9) and rotated to engage with it. A circumferential baffle (10) is fixed on the outer wall of the connector (5). The circumferential baffle (10) is located at one end near the connecting shaft (6). The width of the circumferential baffle (10) is greater than the diameter of the extension port (9). Several latches (11) are fixed on the inner wall of the extension port (9). The latches (11) are circumferentially distributed on the inner wall of the extension port (9). The outer side of the connector (5) The wall is provided with a latching slot (12) corresponding to the latch (11). The latching slot (12) is located at the end away from the connecting shaft (6). The latch (11) and the latching slot (12) are inserted into each other. On one side of the latching slot (12), there is a buckle (13) that matches the latch (11). The latch (11) and the buckle (13) are fastened to each other. On the other side of the latching slot (12), there is a latching push-out guide slope (14). The latch (11) and the latching push-out guide slope (14) are slidably connected.

2. The ice shaver according to claim 1, characterized in that, A push rod (15) is provided on the inner side of the feeding channel (8). The push rod (15) and the feeding channel (8) are adapted to each other and are movably connected. A weight reduction groove (16) is provided on the end face of the push rod (15) away from the inner rotating cylinder (4). Several protrusions (17) are fixed on the end face of the push rod (15) facing the inner rotating cylinder (4).

3. The ice shaver according to claim 1, characterized in that, The shredding disc (7) has several shredding holes (18), and a shredding cutter (19) is provided at each of the shredding holes (18). The shredding cutter (19) is fixed on the outer surface of the shredding disc (7).

4. The ice shaver according to claim 1, characterized in that, A discharge rib (20) is fixed on the inner side wall of the inner rotating cylinder (4). An auxiliary discharge slope (21) is provided on the side of the discharge rib (20) facing the central axis of the inner rotating cylinder (4). The auxiliary discharge slope (21) is inclined towards the central axis of the inner rotating cylinder (4) from the end near the cylinder opening of the inner rotating cylinder (4) to the end away from the cylinder opening of the inner rotating cylinder (4). The thickness of the discharge rib (20) gradually increases from the end near the cylinder opening of the inner rotating cylinder (4) to the end away from the cylinder opening of the inner rotating cylinder (4).

5. The ice shaver according to claim 3, characterized in that, The inner rotating cylinder (4) has a slicing blade mounting port (22) on its side wall. The slicing blade (7) has two opposite side walls with rib grooves (23). The edge of the slicing blade mounting port (22) is fixed with a rib (24) that matches the rib groove (23). The rib (24) and the rib groove (23) are interlocked. The other two opposite side walls of the slicing blade (7) are fixed with a head (25) and a card (26). The edge of the slicing blade mounting port (22) has a head positioning groove (27) that matches the head (25) and a card positioning groove (28) that matches the card (26). The head (25) and the head positioning groove (27) are interlocked. The card (26) and the card positioning groove (28) are interlocked.

6. An ice shaver according to any one of claims 1-5, characterized in that, A number of fasteners (29) are fixed on the outer side wall of the outer fixed shell (3). The fasteners (29) are distributed circumferentially on the outer side wall of the outer fixed shell (3). The fasteners (29) are located at one end of the outer fixed shell (3). The inner side of the assembly interface (2) is provided with a fastener slot (30) that matches the fastener (29). The outer fixed shell (3) is installed at the assembly interface (2) and locked in place by the cooperation of the fasteners (29) and the fastener slot (30). A discharge guide plate (31) is fixed at the other end of the outer fixed shell (3).

7. An ice shaver according to any one of claims 1-5, characterized in that, The rotary drive includes a PCBA control board (32) and a motor (33). The PCBA control board (32) and the motor (33) are electrically connected. The motor (33) is provided with a motor shaft (34). One end of the connecting shaft (6) is provided with a motor shaft slot (35). The motor shaft (34) and the motor shaft slot (35) are inserted into each other. The end face of the connector (5) is provided with a connecting shaft slot (36) that matches the other end of the connecting shaft (6). The other end of the connecting shaft (6) and the connecting shaft slot (36) are inserted into each other and are interference-fitted.

8. An ice shaver according to any one of claims 1-5, characterized in that, A limiting plate (37) is fixed on the inner side wall of the outer fixed cylinder shell (3). The limiting plate (37) is located at one end of the outer fixed cylinder shell (3). The limiting plate (37) is provided with a bearing mounting hole (38). A bearing (39) is installed in the bearing mounting hole (38). The bearing (39) is sleeved on the connecting shaft (6). The side wall of the connecting shaft (6) is provided with a bearing retaining ring limiting groove (40). A bearing retaining ring (41) is sleeved in the bearing retaining ring limiting groove (40). The bearing (39) is located between the bearing retaining ring (41) and the connecting head (5).

9. An ice shaver according to claim 8, characterized in that, The limiting plate (37) is provided with a bearing outer ring limiting groove (42). The bearing outer ring limiting groove (42) is located on one side of the port of one end of the fixed cylindrical shell (3) facing outward from the limiting plate (37). The bearing outer ring limiting groove (42) is located at the port edge of the bearing mounting hole (38). The outer ring of the bearing (39) is located at the bearing outer ring limiting groove (42). The inner ring of the bearing (39) is located inside the bearing mounting hole (38). A positioning pin (43) is fixed in the bearing outer ring limiting groove (42). The outer ring of the bearing (39) is provided with a positioning hole (44) that matches the positioning pin (43). The positioning pin (43) and the positioning hole (44) are inserted into each other.

10. An ice shaver according to claim 9, characterized in that, The connector (5) is placed on one side of the port of the other end of the fixed cylinder (3) facing outward from the limiting plate (37). A wear-resistant sealing gasket (45) is provided between the connector (5) and the limiting plate (37). The bearing mounting hole (38) is located inside the wear-resistant sealing gasket (45).

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