Vegetable cutting device

Abstract

The utility model relates to the technical field of cutting equipment, in particular to a vegetable cutting device which comprises a driving module and a cutting module arranged on one side of the driving module. The driving module is provided with a cutting and matching output shaft used for outputting rotating force and a butt joint part arranged towards the cutting module. A feeding groove is formed in the cutting module, a discharging opening is formed in the side wall of the feeding groove, and a cutter cylinder assembly for cutting food materials is arranged in the feeding groove; the cutting module is further provided with a connecting shaft used for driving the cutter cylinder assembly to operate and an inserting part arranged towards the driving module. The insertion part is detachably inserted into the butt joint part, and the cutting and matching output shaft is detachably connected to the connecting shaft in a transmission manner, so that the cutting module is detachably connected to the driving module; the socket further comprises an anti-falling structure acting on the inserting part. According to the vegetable cutting device, the cutting module can be detached, so that the cutting module can be better cleaned.

Description

TECHNICAL FIELD

[0001] The utility model relates to cutting equipment technical field, more specifically, it relates to cutting device. BACKGROUND

[0002] The cutting device is used for cutting and arranging vegetable food, and is used for cutting and arranging vegetable food. It mainly includes: a cutting module for cutting food, and a driving module for providing power to the cutting module.

[0003] In the actual use process, because the driving module is far away from the food cutting area, the food is mainly cut in the cutting module, which leads to: a lot of food residues are often accumulated in the cutting module, which needs to be cleaned frequently; the driving module does not need to be cleaned frequently.

[0004] And in the existing cutting device, the cutting module connected to the driving module is limited by the connection of the driving module, and often cannot be disassembled and cleaned alone, which is difficult to clean. SUMMARY

[0005] The utility model aims at the deficiency of prior art, provides: the cutting device can disassemble the cutting module, so as to better clean the cutting module.

[0006] The technical solving measures of the utility model are as follows:

[0007] The cutting device comprises:

[0008] The driving module and the cutting module on one side of the driving module;

[0009] The driving module has: a cutting and arranging output shaft for outputting rotating force, and a docking part arranged towards the cutting module;

[0010] The cutting module is provided with an upward opening feeding groove, and the side wall of the feeding groove is provided with a discharge port, and the feeding groove is provided with: a cutter barrel assembly for cutting food;

[0011] The cutter barrel assembly is matched with the discharge port to make the cut food flow out of the discharge port;

[0012] And the cutting module further has: a connecting shaft for driving the cutter barrel assembly to run, and a plug-in part arranged towards the driving module;

[0013] The plug-in part is detachably plugged into the docking part, and the cutting and arranging output shaft is detachably connected to the connecting shaft, so that: the cutting module is detachably connected to the driving module (that is: the cutting module can be connected to the driving module to form a cutting and arranging structure with the driving module; or, the cutting module can be separated from the driving module);

[0014] The anti-disengagement structure is configured to enable the plug-in part to be in a movable state disengaged from the counter part or in a locked state not disengaged from the counter part.

[0015] Further preferably, the plug-in part is a plug post arranged on a side of the cutting module facing the driving module and protruding towards the driving module.

[0016] The counter part is a plug hole arranged on a side of the driving module facing the cutting module and matched with the plug post for insertion of the plug post.

[0017] Further preferably, the anti-disengagement structure comprises:

[0018] a clamping hole arranged on a hole wall of the counter part;

[0019] a clamping block slidably mounted in a mounting groove arranged on an outer surface of the plug-in part and matched with the clamping hole;

[0020] a resilient member arranged in the mounting groove and elastically driving one end of the clamping block to pass out of the mounting groove and be clamped in the clamping hole;

[0021] a switch member for bearing an external force for pressing and slidably mounted in the driving module and configured to, when pressed, slide the clamping block out of the clamping hole towards the counter part;

[0022] The plug-in part is in the movable state disengaged from the counter part or in the locked state not disengaged from the counter part by pressing or not pressing the switch member.

[0023] Further preferably, the one end of the clamping block passing out of the mounting groove further forms a guide inclined surface arranged in an inclined manner and for being pressed by the hole wall of the counter part when the plug-in part is inserted into the counter part.

[0024] Further preferably, the mounting groove further comprises a limiting structure for preventing the clamping block from sliding out of the mounting groove;

[0025] The limiting structure comprises:

[0026] a flange part protrusively arranged on an outer periphery of the clamping block;

[0027] a clamping part protrusively arranged on a groove wall of the mounting groove and located on a side of the flange part facing a groove opening of the mounting groove to prevent the flange part from sliding out of the mounting groove.

[0028] Further preferably, the driving module further comprises a reset member acting on the switch member;

[0029] The reset member is resilient and configured to elastically reset the switch member when no external force is applied to the switch member.

[0030] Further as a preferred solution, the elastic member is a spring arranged between the clamping block and the wall of the mounting groove.

[0031] The clamping block has a protruding portion towards the bottom surface of the mounting groove, and the elastic member of the spring structure is sleeved on the outer periphery of the protruding portion.

[0032] Further as a preferred solution, the outer edge of the end of the plug-in part is formed with an inclined surface arranged in a chamfered manner.

[0033] Further as a preferred solution, among the cutting output shaft and the connecting shaft:

[0034] The end of any one shaft is provided with a spline groove with an opening facing the other shaft;

[0035] The end of the other shaft is provided with an external spline matched with the spline groove;

[0036] The cutting output shaft and the connecting shaft are arranged in a matched manner, so that when the plug-in part is detachably plugged into the counter part, the external spline is adapted to be inserted into the spline groove to achieve that the cutting output shaft is detachably connected to the connecting shaft.

[0037] Further as a preferred solution, the groove of the spline groove is formed with an inclined surface arranged in a chamfered manner.

[0038] The main beneficial effects of the above technical solutions are:

[0039] Compared with the cutting module of the cutting device, the cutting module is detachably connected to the driving module, so that after the cutting device is used to cut the food, the cutting module can be detached for better cleaning.

[0040] At the same time, by arranging the anti-falling structure, the cutting module can be better prevented from falling off after being impacted by external force, and the use safety of the cutting device is improved.

[0041] Further or more detailed beneficial effects will be described in the specific embodiments. BRIEF DESCRIPTION OF DRAWINGS

[0042] The utility model will be further described below in combination with the drawings:

[0043] Figure 1 It is the installation structure schematic diagram of cutting module and driving module.

[0044] Figure 2 It is the cutting output shaft structure schematic diagram.

[0045] Figure 3 It is the driving module structure schematic diagram.

[0046] Figure 4 This is a schematic diagram of the cutting module structure.

[0047] Figure 5 This is a schematic diagram of the docking section in the anti-detachment structure.

[0048] Figure 6 This is a schematic diagram of the plug-in part in the anti-detachment structure.

[0049] Figure 7 This is a schematic diagram of the overall anti-detachment structure. Detailed Implementation

[0050] The present invention will be illustrated with specific examples below: Example

[0051] A vegetable cutting device is used to cut vegetables into slices or strips. It mainly includes: a drive module b and a cutting module a (e.g., attached) positioned horizontally to one side of the drive module b. Figure 1 As shown in the diagram, the cutting module a is positioned to the right of the drive module b. The cutting module a is used to cut the food ingredients, while the drive module b supports the cutting module a and provides the necessary rotational force for cutting the food ingredients.

[0052] For cutting module a:

[0053] As attached Figure 4 As shown, the cutting module a includes a cutting module housing a1 and a blade cylinder assembly a2 disposed within the cutting module housing a1.

[0054] For details, see attached. Figure 4 As shown, the cutting module housing a1 is provided with an upward-facing feeding trough a1.1. The opening at the upper end of the feeding trough a1.1 forms a feeding port a1.11 for feeding food into the feeding trough a1.1. At the same time, the side wall of the feeding trough a1.1 (i.e., the side wall located on one side of the feeding trough a1.1 in the horizontal direction) is provided with a discharging port a1.12 for the food in the feeding trough a1.1 to flow out laterally.

[0055] The feed trough a1.1 is also equipped with a blade cylinder assembly a2 for cutting food. The blade cylinder assembly a2 is matched with the discharge port a1.12 so that the cut food can flow out laterally from the discharge port a1.12.

[0056] For example, attached Figure 4As shown in the figure, the cutter barrel assembly a2 in the embodiment comprises a barrel-shaped cutter barrel body a2.1, which is internally provided with a cavity and has an open material placing groove a2.11 at one end. The cutter barrel body a2.1 is horizontally placed in the feeding groove a1.1, the opening of the material placing groove a2.11 faces the discharging port a1.12 and is arranged opposite to the discharging port a1.12. At this time, the axis of the barrel-shaped cutter barrel body a2.1 extends horizontally, the cutter barrel body a2.1 is rotatably installed in the feeding groove a1.1 and can rotate around the axis, and the side wall of the material placing groove a2.11 is provided with a plurality of cutting holes a2.12 for connecting the feeding port a1.11 and the material placing groove a2.11, and a cutting blade a2.2 is installed in each cutting hole a2.12, one end of the cutting blade a2.2 extends to the outer surface of the cutter barrel body a2.1.

[0057] In operation, the food material is pressed into the feeding groove a1.1 from the feeding port a1.11 and adheres to the outer wall of the cutter barrel body a2.1, and the cutter barrel body a2.1 is driven to rotate, so that the rotating cutter barrel body a2.1 drives the cutting blade a2.2 to rotate synchronously to cut the food material, and the cut food material falls into the material placing groove a2.11 from the cutting hole a2.12 and flows out from the discharging port a1.12.

[0058] The inner wall of the cutter barrel body a2.1 is provided with an inclined surface to guide the food material falling into the material placing groove a2.11 to flow to the discharging port a1.12.

[0059] The cutting module further comprises a connecting shaft a5 rotatably connected to the cutting module housing a1 and used to drive the cutter barrel assembly a2 to operate. In the embodiment, one end of the connecting shaft a5 is directly connected to the cutter barrel body a2.1 (for example, the connecting shaft a5 is fixedly connected to the cutter barrel body a2.1 by welding or the like, or the connecting shaft a5 is detachably connected to the cutter barrel body a2.1, for example, the structure of the cutter barrel assembly of the vegetable cutter disclosed in CN205343282U is adopted to enable the connecting shaft a5 to be detachably buckled to the cutter barrel body a2.1) or is drivingly connected to the cutter barrel body a2.1, and the other end of the connecting shaft a5 is exposed outside the cutting module housing a1 and faces the side wall of the driving module b. For example, in the embodiment, the side wall of the cutting module housing a1 facing the driving module b is provided with a connecting shaft insertion hole a1.13, the connecting shaft a5 is rotatably inserted into the connecting shaft insertion hole a1.13, and the other end of the connecting shaft a5 is exposed outside the cutting module housing a1 through the connecting shaft insertion hole a1.13. By driving the connecting shaft a5 to rotate, the cutter barrel body a2.1 and the cutter barrel assembly a2 are driven to rotate, and the cutting operation of the food material is realized as described above.

[0060] As to the driving module b:

[0061] As shown in FIG. 1, the cutting module a comprises a cutting module housing a1, a cutter barrel assembly a2 arranged in the cutting module housing a1, and a connecting shaft a5 arranged in the cutting module housing a1 and connected to the cutter barrel assembly a2. Figure 3 As shown in FIG. 2, the driving module b comprises a driving module housing b1, and a rotating motor b2 arranged in the driving module housing b1. The driving module housing b1 is provided with a plug-in hole b1.2 on a side wall facing the cutting module a, and a rotatable cutting output shaft b3 is plugged into the plug-in hole b1.2. The cutting output shaft b3 is drivingly connected to a rotating output shaft of the rotating motor b2 through a common transmission structure such as a gear, so that the cutting output shaft b3 serves as an output shaft for connecting to an external device to externally output the rotating force provided by the rotating motor b2.

[0062] When the cutting device is needed, the cutting module a is connected to the driving module b, and the connecting shaft a5 of the cutting module a is drivingly connected to the cutting output shaft b3 of the driving module b, so that the cutting device capable of cutting food materials is formed.

[0063] At this time, the rotating motor b2 is turned on to rotate the cutting output shaft b3, and the cutter barrel assembly a2 with the blade is driven to rotate through the driving connection structure between the cutting output shaft b3 and the connecting shaft a5, so that the food materials can be cut as described above.

[0064] It should be noted that the food materials are mainly cut in the cutting channel of the cutting module a by the cutter barrel assembly a2, and a large amount of food material residues are often accumulated in the cutting module a, which needs to be cleaned frequently. The driving module b does not need to be cleaned frequently. If the cutting module a is directly and non-detachably fixed to the driving module b, the cleaning action of the cutting module a will be limited, and the cutting module a cannot be well detached and cleaned.

[0065] Therefore, in the embodiment, the cutting module a is connected to the driving module b in a structure convenient for installation and detachment.

[0066] Specifically, as shown in FIGS. 3 to 5, the driving module b of the embodiment has a docking portion b1.1 arranged towards the cutting module a, and the cutting module a has a plug-in portion a6 arranged towards the driving module b. The plug-in portion a6 is detachably plugged into the docking portion b1.1, and the cutting output shaft b3 is detachably drivingly connected to the connecting shaft a5, so that the cutting module a is detachably connected to the driving module b. Figure 1 Figure 3 Specifically, the docking portion b1.1 arranged towards the cutting module a of the driving module b means that the driving module b has a first column body protruding towards the cutting module a, or the driving module b has a first groove with an opening facing the cutting module.

[0067] Specifically, the docking portion b1.1 arranged towards the cutting module a of the driving module b means that the driving module b has a first column body protruding towards the cutting module a, or the driving module b has a first groove with an opening facing the cutting module.

[0068] ​Meanwhile, the plug-in part a6 of the cutting module a arranged towards the driving module b means that the cutting module a has a second groove with an opening arranged towards the driving module b and for inserting the first column; or the cutting module a has a second column arranged towards the driving module b and inserted into the first groove.

[0069] In the embodiment, on one hand, if the groove structure is arranged on the cutting module a, it will interfere with the internal food cutting space, which is not conducive to the smooth flow of food; on the other hand, in order to reduce the weight, the inner wall of the existing cutting module shell a1 is generally arranged close to the blade, which causes a large space limitation in the cutting module shell a1, and the groove structure cannot be formed; if the groove is formed inward, in order to avoid interference with the existing blade, the size of the cutting module shell a1 must be increased based on the arrangement of the groove structure, which greatly increases the size and weight of the cutting module shell a1, not only puts forward higher requirements on the strength of the supporting structure, but also makes the whole cutting device more likely to fall over.

[0070] Therefore, in the embodiment, the plug-in part a6 is preferably a plug-in column arranged on the side of the cutting module a facing the driving module b and protruding towards the driving module b; in the embodiment, the plug-in part a6 is a plug-in column arranged on the side of the cutting module shell a1 facing the driving module b and protruding towards the driving module b.

[0071] The plug-in part b1.1 is a plug hole arranged on the side of the driving module b facing the cutting module a and matched with the plug-in column and for inserting the plug-in column; in the embodiment, the plug-in part b1.1 is a plug hole arranged on the side of the driving module shell b1 facing the cutting module a and for inserting the plug-in column.

[0072] Meanwhile, in order to more conveniently disassemble / assemble the cutting module a, the end of any one of the cutting output shaft b3 and the connecting shaft a5 is provided with a spline groove with an opening facing the other shaft, and the end of the other shaft is provided with an external spline matched with the spline groove. The cutting output shaft b3 and the connecting shaft a5 are arranged in alignment (i.e., when the cutting module a is connected to the driving module b, the axis of the cutting output shaft b3 and the axis of the connecting shaft a5 are located on the same straight line), so that when the plug-in part a6 is detachably plugged into the plug-in part b1.1, the external spline is adapted to be inserted into the spline groove to achieve that the cutting output shaft b3 is detachably drivingly connected to the connecting shaft a5.

[0073] Specifically, as shown in FIGS. 1 to 3, the end of the cutting output shaft b3 facing the connecting shaft a5 is provided with a spline groove with an opening facing the connecting shaft a5, and the end of the connecting shaft a5 facing the cutting output shaft b3 is provided with an external spline matched with the spline groove. Figure 1 As shown in FIGS. 1 to 3, the end of the cutting output shaft b3 facing the connecting shaft a5 is provided with a spline groove with an opening facing the connecting shaft a5, and the end of the connecting shaft a5 facing the cutting output shaft b3 is provided with an external spline matched with the spline groove. Figure 4 As shown in FIGS. 1 to 3, the end of the cutting output shaft b3 facing the connecting shaft a5 is provided with a spline groove with an opening facing the connecting shaft a5, and the end of the connecting shaft a5 facing the cutting output shaft b3 is provided with an external spline matched with the spline groove. Figure 2The first spline connection groove b3.1 in the connecting shaft a5; the outer periphery of the end of the cutting output shaft b3 is provided with an external spline matched with the first spline connection groove b3.1.

[0074] In this embodiment, the cutting output shaft b3 and the connecting shaft a5 are both transversely arranged shafts extending in the horizontal direction. The insertion part a6 is also a column body transversely arranged and extending in the horizontal direction.

[0075] During installation, the cutting module a is moved transversely close to the driving module b, and the insertion part a6 of the insertion structure is inserted transversely into the abutting part b1.1 of the insertion hole structure, so that the driving module b can support the cutting module a; at the same time, the end of the connecting shaft a5 is inserted transversely into the first spline connection groove b3.1, and the external spline at the end of the connecting shaft a5 is fitted into the first spline connection groove b3.1, so that the cutting output shaft b3 is drivingly connected to the connecting shaft a5. The installation of the cutting module a is completed. Moreover, the surface of the cutting module a can also be protrusively formed with a boss arranged around the connecting shaft a5, and the insertion hole b1.2 has a portion for inserting the boss; when inserted as described above, the boss is fitted into the insertion hole b1.2 to share the force received by the connecting shaft a5 under the gravity of the cutting module a.

[0076] When the cutting module a needs to be cleaned, the cutting module a is moved transversely away from the driving module b until the insertion part a6 is separated from the abutting part b1.1, and at the same time, the output shaft b3 is separated from the first spline connection groove b3.1, and the cutting module a is disassembled.

[0077] Further, the insertion part a6 can be a polygonal prismatic protrusion, such as a quadrangular prismatic protrusion. In this embodiment, the insertion part a6 is preferably a cylindrical protrusion with a circular cross-section; so as to improve the convenience and smoothness of the insertion of the insertion part a6 and the abutting part b1.1, and reduce the possibility of occurrence of a clamping deviation.

[0078] Still further, the outer edge of the end of the insertion part a6 can be formed with a chamfered surface arranged to guide the insertion of the insertion part a6 into the insertion hole; so that the insertion of the prismatic protrusion of the insertion part a6 into the abutting part b1.1 of the insertion hole structure is more smooth.

[0079] Similarly, the slot of the spline groove (more precisely, the sidewall of the slot) can also be formed with a chamfered surface arranged to guide the insertion of the external spline into the spline groove; so that the insertion transmission between the cutting output shaft b3 and the connecting shaft a5 is more smooth.

[0080] Furthermore, the outer periphery of the insertion portion a6 may also be provided with an elastic sealing layer surrounding the outer periphery of the insertion portion a6; this sealing layer is formed by covering the outer periphery of the insertion portion a6 with an elastic material, such as silicone or rubber. When the insertion portion a6 is inserted into the mating portion b1.1, the sealing layer is compressed and filled between the insertion portion a6 and the mating portion b1.1, thereby improving the stability of the insertion structure between the insertion portion a6 and the mating portion b1.1, and thus improving the stability of the installation of the cutting module a.

[0081] The sealing layer has a portion near the end of the insertion part a6. In the direction of the protrusion of the insertion part a6, the thickness of this portion of the sealing layer gradually decreases to form a guide structure, so that the insertion part a6 with the sealing layer can be inserted into the mating part b1.1 more smoothly.

[0082] Based on any of the above solutions, when the cutting device has higher stability requirements, such as avoiding major impacts that could cause the cutting module a to detach, an additional anti-detachment structure can be provided for the plug-in part a6. This structure is configured to allow the plug-in part a6 to be in an active state that can detach from the docking part b1.1, or in a locked state that cannot detach from the docking part b1.1.

[0083] For example, the anti-detachment structure can be a screw that is detachably screwed to the drive module housing b1. The threaded end of the screw passes through the drive module housing b1 and is detachably screwed to the insertion part a6 inserted into the docking part b1.1 to form an anti-detachment structure. In this case, by removing the screw, the insertion part a6 can be detached from the docking part b1.1, and the cutting module a can be disassembled as described above; while by installing the screw, the insertion part a6 is locked in a state that cannot be detached from the docking part b1.1, and the cutting module a cannot be disassembled.

[0084] Or, as attached Figures 5 to 7 As shown, the anti-detachment structure consists of a snap-fit ​​hole b1.11, a snap-fit ​​block a6.2, an elastic element a6.3, and a switch element b4.

[0085] Specifically, in this embodiment, the snap-fit ​​hole b1.11 is a through hole provided on the hole wall of the mating part b1.1, preferably located on the hole wall of the mating part b1.1 above the insertion part a6. Meanwhile, the outer surface of the insertion part a6 is provided with a mounting groove a6.1 that matches the snap-fit ​​hole b1.11, i.e., as shown in the attached... Figure 7 When the insertion part a6 is inserted into the mating part b1.1, the groove of the mounting groove a6.1 is aligned with the snap-fit ​​hole b1.11. The snap-fit ​​block a6.2 is slidably installed in the mounting groove a6.1, and the mounting groove a6.1 is also provided with a limiting structure to prevent the snap-fit ​​block a6.2 from sliding out of the mounting groove a6.1.

[0086] In this embodiment, the limiting structure includes: a flange portion a6.22 protruding from the outer periphery of the locking block a6.2, and a locking portion a6.11 protruding from the groove wall of the mounting groove a6.1. The locking portion a6.11 is positioned on the side of the flange portion a6.22 facing the opening of the mounting groove a6.1 to prevent the flange portion a6.22 from sliding out of the mounting groove a6.1, thereby preventing the locking block a6.2 from sliding out of the mounting groove a6.1. During installation, the locking block a6.2 is first installed in the mounting groove a6.1, and then the locking portion a6.11 is fixed at the opening of the mounting groove a6.1, forming the aforementioned limiting structure.

[0087] The elastic element a6.3 is elastic and is installed in the mounting groove a6.1. It elastically drives one end of the locking block a6.2 through the mounting groove a6.1 and into the locking hole b1.11. In this embodiment, the elastic element a6.3 is a spring, which is placed in a compressed state between the locking block a6.2 and the groove wall of the mounting groove a6.1. It elastically drives one end of the locking block a6.2 through the mounting groove a6.1 and into the locking hole b1.11. The locking block a6.2 has a portion that protrudes towards the bottom surface of the mounting groove a6.1. This protruding portion is inserted into the elastic element a6.3 of the spring structure, so that the elastic element a6.3 of the spring structure is fitted around the outer periphery of the protruding portion. This improves the stability of the installation of the elastic element a6.3, thereby allowing the elastic element a6.3 to more stably drive the locking block a6.2 to slide elastically.

[0088] At this time, it forms as shown in the attached image. Figure 7 As shown in the structure in D, the card block a6.2 is fitted into the card hole b1.11, and the insertion part a6 is in a locked state that cannot be disengaged from the mating part b1.1.

[0089] Meanwhile, a switch b4 for bearing external force is also provided, which is slidably installed in the drive module b and configured to: when pressed, slide the card block a6.2 out of the card hole b1.11 by sliding towards the docking part b1.1.

[0090] Specifically, in this embodiment, as shown in the appendix Figure 5 As shown, a slidable switch b4 is slidably mounted in the drive module housing b1. When the snap-fit ​​hole b1.11 is the hole wall above the insertion part a6 and is a through hole vertically extending through it, in this embodiment, the switch b4 is preferably positioned above the snap-fit ​​hole b1.11. One end of the switch b4 is exposed on the outer surface of the drive module b, for example, attached to... Figure 5 In the middle, the upper end of the switch component b4 can be slidably mounted on the top of the drive module housing b1 in a vertical direction; the other end of the switch component b4, for example, is attached... Figure 5The lower end of the switch member b4 extends to form a portion that is positioned outside the mating portion b1.1 and opposite to the snap-fit ​​hole b1.11. This portion has a pressing portion b4.1 that protrudes toward the snap-fit ​​hole b1.11 and is close to the snap-fit ​​block a6.2. The size of the pressing portion b4.1 is adapted to the hole depth of the snap-fit ​​hole b1.11 and the size of the snap-fit ​​block a6.2 inserted into the snap-fit ​​hole b1.11. The sliding direction of the switch member b4 in the drive module housing b1 is matched with the alignment direction between the pressing portion b4.1 and the snap-fit ​​hole b1.11, so that by driving the switch member b4 to slide, the pressing portion b4.1 can be inserted and moved in the snap-fit ​​hole b1.11. So that by pressing (referring to pressing the switch b4 from the outside to drive the switch b4 into the drive module housing b1) or not pressing the switch b4, the plug a6 can be in an active state that can be disengaged from the mating part b1.1, or in a locked state that cannot be disengaged from the mating part b1.1.

[0091] Specifically, when it is necessary to disassemble the cutting module a, pressing the switch b4 causes it to move into the drive module housing b1, which in turn causes the pressing part b4.1 to insert into the snap-fit ​​hole b1.11 from the outside. This pushes the snap-fit ​​block a6.2 out of the snap-fit ​​hole b1.11 and slides it into the mounting groove a6.1. Simultaneously, the elastic element a6.3 is elastically contracted, and the snap-fit ​​block a6.2 is no longer locked in the snap-fit ​​hole b1.11. The insertion part a6 is in a movable state that can be detached from the mating part b1.1. The cutting module a can then be disassembled as described above.

[0092] Without pressing the switch b4, the elastic element a6.3 will allow the switch to move as shown in the attached diagram. Figure 7 As shown in Figure A, the card block a6.2 is stably fitted into the card socket b1.11, and the insertion part a6 is in a locked state that cannot be disengaged from the mating part b1.1. The cutting module a is stably connected to the drive module b to perform cutting operations.

[0093] In the above scheme, when the cutting module a needs to be connected to the drive module b as described above, the plug part a6 with the card block a6.2 needs to be manually pressed into the docking part b1.1 to make the card block a6.2 retract into the mounting slot a6.1, which makes the installation difficult.

[0094] Based on this, as attached Figure 6As shown in FIG. 6, the card block a6.2 is formed with a guide inclined surface a6.21 at the end of the insertion slot a6.1, which is inclined and is used to be pressed by the hole wall of the mating portion b1.1 when the plug-in portion a6 is inserted into the mating portion b1.1. Thus, when the plug-in portion a6 with the card block a6.2 is inserted into the mating portion b1.1, the guide inclined surface a6.21 will be contacted with the hole wall at the end of the mating portion b1.1, which can press the card block a6.2 and drive the card block a6.2 to retract into the insertion slot a6.1, so that the plug-in portion a6 can be inserted into the mating portion b1.1. When the plug-in portion a6 is inserted to the position where the card block a6.2 is opposite to the clamping hole b1.11, the card block a6.2 can be automatically clamped into the clamping hole b1.11 under the elastic force of the elastic member a6.3, thereby forming the anti-disengagement structure.

[0095] Further, in order to make the card block a6.2 more smoothly clamped into the clamping hole b1.11 during the above insertion process, in the embodiment, as shown in FIG. 6, the reset member b5 can be arranged in the driving module b and used to act on the switch member b4. Figure 5

[0096] The reset member b5 in the embodiment is a spring with elasticity, one end of which is connected to the switch member b4 and the other end of which is connected to the driving module housing b1, and is configured to elastically reset the switch member b4 when no external force is applied to the switch member b4. That is, the reset member b5 drives the switch member b4 to be reset to the position shown in FIG. 6D, where the clamping hole b1.11 clamps the card block a6.2. Figure 7

[0097] For example, as shown in FIG. 6, the reset member b5 can be arranged between the switch member b4 and the outer wall of the mating portion b1.1, and when the switch member b4 is not pressed as described above, the switch member b4 can be reset under the elastic force of the reset member b5, so that the pressing portion b4.1 is mostly separated from the clamping hole b1.11, leaving sufficient space for the clamping of the card block a6.2. The specific position of the reset member b5 can be set according to actual needs. Figure 5

[0098] ​​​The above merely describes preferred embodiments of the present application, and is not intended to limit the scope of the present application. In addition, the terms "vertical", "horizontal", "front", "back", and the like, as referred to in the embodiments of the present application, indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, or the orientation or positional relationship in which the product is usually placed during use, and are merely intended to facilitate the description of the present application and simplify the description, and therefore should not be construed or implied as indicating or suggesting that the device or element referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore should not be construed as limiting the present application. It should be further noted that, unless otherwise explicitly specified and limited, the terms "mounting", "connection", "connection", "fixing", and the like in the description should be understood broadly, for example, "connection" can be fixed connection, can also be detachable connection, or integral connection; can be directly connected, can also be indirectly connected through an intermediate medium, or the communication between two elements. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances. The present application will be described in detail below with reference to the drawings and in conjunction with the embodiments.

[0099] Although the embodiments of the present application have been shown and described, those skilled in the art can understand that various changes, modifications, replacements and variations can be made to these embodiments without departing from the principles and purposes of the present application, and the scope of the present application is defined by the claims and their equivalents.

Claims

1. A vegetable cutting device, characterized in that, include: The driving module (b) and the cutting module (a) located on one side of the driving module (b); The drive module (b) has: a cutting output shaft (b3) for outputting rotational force, and a docking portion (b1.1) disposed toward the cutting module (a). The cutting module (a) is provided with an upward-facing feed trough (a1.1), and the side wall of the feed trough (a1.1) is provided with a discharge port (a1.12). The feed trough (a1.1) is equipped with a blade cylinder assembly (a2) for cutting food, which is matched with the discharge port (a1.12) so that the cut food can flow out from the discharge port (a1.12). Furthermore, the cutting module (a) also has: a connecting shaft (a5) for driving the blade cylinder assembly (a2) to run, and a plug-in portion (a6) disposed toward the drive module (b); The insertion part (a6) is detachably inserted into the docking part (b1.1), and the cutting output shaft (b3) is detachably driven to the connecting shaft (a5), so that the cutting module (a) is detachably connected to the driving module (b). It also includes an anti-detachment structure, which is configured to allow the insertion part (a6) to be in an active state that can be detached from the docking part (b1.1), or in a locked state that cannot be detached from the docking part (b1.1).

2. The vegetable cutting device according to claim 1, characterized in that: The insertion part (a6) is a post provided on the side of the cutting module (a) facing the driving module (b) and protruding toward the driving module (b); The docking part (b1.1) is a socket that is matched to the plug and disposed on the side of the drive module (b) facing the cutting module (a) for the plug to be inserted.

3. The vegetable cutting device according to claim 2, characterized in that: The anti-detachment structure includes: A snap-fit ​​hole (b1.11) is provided on the wall of the hole in the docking part (b1.1). A locking block (a6.2) is slidably installed in a mounting groove (a6.1), wherein the mounting groove (a6.1) is a groove provided on the outer surface of the insertion part (a6) and matched and aligned with the locking hole (b1.11); The elastic element (a6.3) placed in the mounting groove (a6.1) elastically drives one end of the locking block (a6.2) to pass through the mounting groove (a6.1) and be locked in the locking hole (b1.11); The switch (b4) for bearing external force is slidably mounted in the drive module (b) and is configured to: when pressed, slide the latch (a6.2) out of the latch hole (b1.11) into the docking part (b1.1). By pressing or not pressing the switch (b4), the plug (a6) can be in an active state that can be detached from the mating part (b1.1), or in a locked state that cannot be detached from the mating part (b1.1).

4. The vegetable cutting device according to claim 3, characterized in that: The end of the card block (a6.2) that protrudes from the mounting groove (a6.1) also has a guide slope (a6.21) that extends at an angle and provides pressure to the wall of the hole of the docking part (b1.1) when the insertion part (a6) is inserted into the docking part (b1.1).

5. The vegetable cutting device according to claim 3, characterized in that: The mounting groove (a6.1) is further provided with a limiting structure to prevent the locking block (a6.2) from sliding out of the mounting groove (a6.1); The limiting structure includes: A flange (a6.22) is provided in a raised manner on the outer periphery of the locking block (a6.2); The locking part (a6.11) is provided in a raised manner on the groove wall of the mounting groove (a6.1) and is placed on the side of the flange part (a6.22) facing the groove opening of the mounting groove (a6.1) to prevent the flange part (a6.22) from sliding out of the mounting groove (a6.1).

6. The vegetable cutting device according to claim 3, characterized in that: The drive module (b) is further provided with a reset element (b5) that acts on the switch element (b4); The reset member (b5) is elastic and is configured to cause the switch member (b4) to elastically reset when no external force is applied to the switch member (b4).

7. The vegetable cutting device according to claim 3, characterized in that: The elastic element (a6.3) is a spring placed between the locking block (a6.2) and the groove wall of the mounting groove (a6.1); The locking block (a6.2) has a portion that protrudes towards the bottom surface of the mounting groove (a6.1), and the elastic element (a6.3) of the spring structure is fitted around the outer periphery of the protruding portion.

8. The vegetable cutting device according to claim 2, characterized in that: The outer edge of the end of the plug (a6) is chamfered and has an inclined surface that guides the plug (a6) into the socket.

9. The vegetable cutting device according to any one of claims 2 to 8, characterized in that: In the cutting output shaft (b3) and the connecting shaft (a5): Each shaft has a spline groove at its end with an opening facing the other shaft. The end of another shaft is provided with an external spline that matches the spline groove; Furthermore, the cutting output shaft (b3) and the connecting shaft (a5) are aligned so that when the insertion part (a6) is detachably inserted into the mating part (b1.1), the external spline is adapted to be inserted into the spline groove to achieve the following: the cutting output shaft (b3) is detachably connected to the connecting shaft (a5).

10. The vegetable cutting device according to claim 9, characterized in that: The spline groove is chamfered and has an inclined surface that guides the external spline into the spline groove.

Images