Multifunctional cutting and matching machine

Abstract

A multifunctional cutting and matching machine belongs to the technical field of household appliances. The cutting and matching machine comprises a power platform as well as a dough extruding module, a vegetable cutting module, a meat cutting module and a mincing module which are respectively assembled with the power platform for use, the power platform comprises a transmission structure and an assembly part matched with the transmission structure; the transmission structure comprises a first output part, a second output part and a third output part; the assembling part comprises a clamping boss, a clamping groove and an assembling interval; the dough extruding module is in driving connection with the second output part and the third output part; the vegetable cutting module bottom is in driving connection with the second output part; the meat cutting module is in driving connection with the third output part; and the crushing module is in driving connection with the first output part. According to the utility model, the output parts with three levels of rotating speeds are integrated together, an operation basis is provided for vegetable preparation operations such as mincing, dough kneading-dough extruding, vegetable cutting, meat cutting and the like, and a reasonable assembly integrated arrangement mode is provided.

Description

TECHNICAL FIELD

[0001] The utility model belongs to the technical field of household appliances, specifically relates to a multifunctional cutting and dispensing machine. BACKGROUND

[0002] With the improvement of people's living standards, the busy work is also inevitable, in order to save the operation time of the cooking preparation stage, various preparation equipment is born, however, for Chinese cooking, the preparation link is more various, which puts forward the requirement that various functions are integrated together for the food dispensing equipment, however, various functions require different rotational speeds of power output, such as the requirement of the power output rotational speed for the chopping operation is relatively high, and the extrusion operation of noodles requires relatively low power output rotational speed, therefore, the preparation equipment urgently needs to provide a transmission structure integrating multi-level rotational speed power output.

[0003] At the same time, the reasonable assembly and integrated arrangement is also a technical problem that the technical personnel need to solve. INVENTION CONTENTS

[0004] In order to solve the above technical problems, the transmission related structure of the power platform, the assembly component structure and the assembly mode of each function module are further improved, so as to adapt to the assembly of various function modules at the same time. The utility model aims at providing a multifunctional cutting and dispensing machine.

[0005] The specific technical scheme is described below:

[0006] A multifunctional cutting and dispensing machine, comprising a power platform and a cutting vegetable module, a cutting meat module and a chopping module assembled with the power platform respectively;

[0007] The power platform comprises a transmission structure and an assembly component matched with the transmission structure.

[0008] The transmission structure comprises:

[0009] The double output motor comprises a first output and a shaft coupling output.

[0010] The variable shaft coupling provided with power by the shaft coupling output comprises a second output and a third output.

[0011] The cutting vegetable module is provided with an input port of the second output at the bottom and is internally provided with a cutting vegetable structure connected with the second output.

[0012] The cutting meat module comprises a cutting meat structure, and the cutting meat module is connected with the third output through the gear transmission shaft on the gear box, and then the power input by the third output is transmitted to the cutting meat structure.

[0013] The mashing module comprises a mashing container providing a mashing operation space and a mashing transmission shaft, one end of the mashing transmission shaft being in transmission connection with the first output part.

[0014] Preferably, the assembling part is arranged on the upper shell, and the assembling part comprises:

[0015] The clamping boss is provided with a first through hole for exposing the first output part;

[0016] The clamping groove is provided with a third through hole at the inner end for exposing the third output part;

[0017] The clamping boss is located above the clamping groove;

[0018] An assembling interval is arranged between the clamping boss and the inner end of the clamping groove, and the assembling interval is provided with a second through hole for exposing the second output part.

[0019] Preferably, the corresponding rotating speed of the first output part is greater than the corresponding rotating speed of the second output part, and the corresponding rotating speed of the second output part is greater than the corresponding rotating speed of the third output part.

[0020] The clamping boss has a length direction extending in a first direction, and the clamping groove has a length direction extending in a second direction, and the first direction and the second direction are staggered with each other.

[0021] Preferably, the output direction of the first output part is vertically upward, the output direction of the second output part is vertically upward, and the output direction of the third output part is horizontally arranged.

[0022] The opening direction of the first through hole is vertically upward, the opening direction of the third through hole is horizontally arranged, and the opening direction of the second through hole is vertically upward.

[0023] Preferably, the first through hole is arranged at one end of the clamping boss extending in the length direction, and the third through hole is arranged at the middle region of the inner end.

[0024] The arrangement positions and directions of the first through hole, the second through hole and the third through hole are used to adapt the output positions and directions of the transmission structure.

[0025] Preferably, the shaft coupling output part obtains the output directions of the second output part and the third output part and adjusts the corresponding rotating speeds of the second output part and the third output part through the bevel gear connection structure.

[0026] Preferably, the support structure comprises:

[0027] The upper shell is provided with an assembly structure of a food preparation module on the surface, and a power output transmission structure is covered inside;

[0028] The lower shell is used for bearing the upper shell and a positioning handle, and is provided with a placing space for placing a container, which is located below the upper shell;

[0029] The positioning handle is arranged between the upper shell and the lower shell in an extendable manner, and is positioned in a hidden state and a clamping state through a positioning structure;

[0030] The support structure comprises a support plate arranged at the lower end of the lower shell in an extendable manner, and the support plate is exposed below the placing space when it is extended and is hidden at the lower end surface of the lower shell when it is retracted.

[0031] Preferably, the positioning structure comprises a positioning buckle and a positioning hole group.

[0032] The positioning hole group comprises a plurality of positioning holes, and the plurality of positioning holes are arranged on the side wall of the positioning handle in an interval along the extension direction of the positioning handle, and the positioning buckle is inserted into the corresponding positioning hole to realize positioning.

[0033] Preferably, the positioning hole group is composed of a hidden positioning hole and a clamping positioning hole.

[0034] The hidden positioning hole is arranged at one end close to the positioning handle clamped to the sink.

[0035] The clamping positioning hole is arranged at one end away from the positioning handle clamped to the sink.

[0036] Preferably, the positioning buckle is inserted into the corresponding positioning hole to realize positioning through an adjusting through hole.

[0037] Preferably, the adjusting through hole is partially formed on the upper shell and partially formed on the lower shell, and the upper shell and the lower shell are combined to form the adjusting through hole.

[0038] Preferably, in the clamping state, the width of the power platform in the extension direction of the positioning handle is matched with a span in the sink.

[0039] Preferably, in the hidden state, the inner contour of the positioning handle is matched on the power platform.

[0040] Preferably, the two sides of the support plate are provided with sliding rails extending along the extension direction of the support plate, and the support plate extends and retracts along the sliding rails.

[0041] Preferably, the slide rail is provided with a first stopper, which limits the extension range of the support baffle and makes the support baffle at least partially located at the lower end surface of the lower shell when being limited.

[0042] Further preferably, the support plate is provided with a second stopper on the side where the first stopper is located, and the first stopper limits the extension range of the support baffle by abutting against the second stopper.

[0043] Preferably, when the support plate is extended to the maximum range, the center of gravity of the cutting machine power platform is projected on the support plate in the vertical direction when being placed on the platform.

[0044] Preferably, the dough kneading module assembled with the power platform is further included; the dough kneading module includes a stirring rod, which is drivingly connected with the second output part; the dough kneading module further includes a dough kneading screw provided in a dough kneading channel below a dough container, the dough kneading channel is connected with the clamping groove, and a driving end of the dough kneading screw is drivingly connected with the third output part.

[0045] Further preferably, the dough kneading module includes a water tank, a dough flocculation stirring structure, and a dough flocculation extruding structure; the dough flocculation stirring structure includes a stirring rod, which is one of the constituent parts of the dough flocculation stirring structure.

[0046] Preferably, the vegetable cutting module includes:

[0047] A vegetable cutting container, an input port of the second output part is provided at the bottom of the vegetable cutting container, and the vegetable cutting structure is provided inside the vegetable cutting container.

[0048] A vegetable cutting cover plate, which is provided at the upper opening of the vegetable cutting container, and a first food material inlet is provided on the vegetable cutting cover plate.

[0049] A material guiding piece, which is provided at the first food material inlet in communication and is provided with a second food material inlet at the upper end.

[0050] A material pressing piece, which is provided separately from the material guiding piece and can be sleeved in the material guiding piece, and the material pressing piece has a downward pressing surface.

[0051] Preferably, the meat cutting module is connected with the clamping groove.

[0052] Preferably, the meat cutting module includes a meat cutting container, a meat cutting food material guiding piece provided at the upper part of the meat cutting container in communication, and the meat cutting structure is provided inside the meat cutting container.

[0053] Preferably, the lower end of the crushing container is provided with a crushing clamping groove, and the crushing clamping groove is clamped with the clamping convex table.

[0054] Preferably, the chopping module further comprises a chopping cover arranged on the chopping container, a chopping cutter head sleeved on the chopping transmission shaft, the chopping transmission shaft is arranged in the space formed by the chopping container and the chopping cover, and the other end of the chopping transmission shaft is hinged to the chopping cover; the chopping cutter head rotates with the rotation of the stirring transmission shaft and is used for chopping food materials.

[0055] In summary, the technical scheme has the following main beneficial effects:

[0056] Compared with the prior art, the three kinds of hierarchical rotating speed output parts are integrated together, which provides an operation basis for chopping, dough mixing and dough extruding, vegetable cutting and meat cutting and other food preparation operations, and the assembly parts provide various assembly structures to adapt to the integrated arrangement of different assembly modules and have a reasonable assembly and integration arrangement.

[0057] Meanwhile, the power platform is placed in the space containing the bowl or the basin, the kitchen countertop space is saved, and the support plate extending from the support structure supports the power platform, so that the power platform is placed more stably.

[0058] In addition, according to whether the work in the sink is required, the positioning handle can be in a hidden state or a clamping state, the positioning handle does not occupy additional space when in the hidden state, and the positioning handle can fix the position of the power platform in the sink when in the clamping state, so that the power platform is prevented from moving, and meanwhile, the positioning handle itself makes the position transfer of the power platform more convenient.

[0059] Further or more detailed beneficial effects will be described in the specific embodiments. BRIEF DESCRIPTION OF DRAWINGS

[0060] Figure 1 is a structural schematic view of the power platform described in the embodiments;

[0061] Figure 2 is a structural schematic view of the internal parts of the power platform described in the embodiments;

[0062] Figure 3 is a structural schematic view of the support structure of the power platform described in the embodiments;

[0063] Figure 4 is a structural schematic view of the power platform placed in the sink and on the platform described in the embodiments;

[0064] Figure 5 is a structural schematic view of the dough extruding module described in the embodiments;

[0065] Figure 6is a schematic diagram of the internal structure of the noodle extruding module according to the embodiment;

[0066] Figure 7 is a schematic diagram of the internal structure of the noodle extruding module according to the embodiment;

[0067] Figure 8 is a schematic diagram of the assembly structure of the water tank according to the embodiment;

[0068] Figure 9 is a schematic diagram of the cutting and processing machine according to the embodiment;

[0069] Figure 10 is a schematic diagram of the vegetable cutting module according to the embodiment;

[0070] Figure 11 is a schematic diagram of the internal structure of the vegetable cutting module according to the embodiment;

[0071] Figure 12 is a schematic diagram of the vegetable cutting module according to the embodiment;

[0072] Figure 13 is a schematic diagram of the vegetable cutting module according to the embodiment;

[0073] Figure 14 is a schematic diagram of the vegetable cutting module according to the embodiment;

[0074] Figure 15 is a schematic diagram of the cutting and processing machine according to the embodiment;

[0075] Figure 16 is a schematic diagram of the meat cutting module according to the embodiment;

[0076] Figure 17 is a schematic diagram of the internal structure of the meat cutting module according to the embodiment.

[0077] Figure 18 is a schematic diagram of the meat cutting module according to the embodiment;

[0078] Figure 19 is a schematic diagram of the meat cutting module according to the embodiment;

[0079] Figure 20 is a schematic diagram of the meat cutting module according to the embodiment;

[0080] Figure 21 is a schematic diagram of the meat cutting module according to the embodiment;

[0081] Figure 22 is a schematic diagram of the meat cutting module according to the embodiment;

[0082] Figure 23 is a side view structural schematic diagram of the elastic variable pitch piece described in the embodiment;

[0083] Figure 24 is a gear box structural schematic diagram described in the embodiment;

[0084] Figure 25 is a gear box structural side cross-sectional structural schematic diagram described in the embodiment;

[0085] Figure 26 is a cutting and dispensing machine structural schematic diagram equipped with a meat cutting module in the embodiment;

[0086] Figure 27 is a chopping module structural schematic diagram described in the embodiment;

[0087] Figure 28 is a chopping module structural exploded schematic diagram described in the embodiment;

[0088] Figure 29 is a cutting and dispensing machine structural schematic diagram equipped with a chopping module in the embodiment.

[0089] Reference signs:

[0090] 1: power platform; 1.1: double output motor, 1.11: first output, 1.12: shaft output, 1.2: phase converter, 1.21: second output, 1.22: third output; 1.3: upper shell, 1.31: clamping boss, 1.311: first through hole, 1.32: clamping groove, 1.321: third through hole, 1.33: assembly interval, 1.331: second through hole, 1.4: lower shell, 1.41: placement space; 1.5: positioning handle, 1.51: positioning buckle, 1.52: positioning hole group, 1.521: hidden positioning hole, 1.522: clamping positioning hole, 1.53: handle part, 1.54: side arm, 1.541: counterweight part; 1.6: support structure, 1.61: support plate, 1.62: slide rail, 1.63: first stop block, 1.64: second stop block;

[0091] 2: extruding module; 2.1: extruding screw, 2.11: driving end, 2.12: extruding end; 2.2: extruding cover, 2.21: extruding outlet, 2.22: first limiting ring, 2.23: first tubular part; 2.3: extruding fixing part, 2.31: cover through hole, 2.32: second limiting ring, 2.33: second tubular part; 2.4: extruding die; 2.5: kneading container; 2.6: stirring rod; 2.61: rod body, 2.62: driving connection part, 2.63: following connection part; 2.64: pre-stirring arm, 2.641: second guide side; 2.65: auxiliary stirring arm, 2.651: first guide side; 2.66: main stirring arm, 2.661: dough block returning blocking part, 2.662: third guide side, 2.663: fourth guide side; 2.67: dough block extruding area; 2.7: kneading cover, 2.71: water tank clamping groove, 2.72: kneading water inlet, 2.73: first portable convex strip; 2.8: water tank, 2.81: stop valve; 2.9: water tank cover, 2.91: second portable convex strip;

[0092] 3: cutting module; 3.1: cutting transmission shaft, 3.2: cutting knife disc, 3.21: transmission connection part, 3.22: slicing part, 3.221: slicing knife, 2.222: slicing outlet, 3.23: shredding part, 3.231: shredding knife, 3.232: shredding outlet; 3.3: cutting container, 3.4: cutting cover plate, 3.41: first food material inlet, 3.5: material guiding part, 3.51: second food material inlet, 3.6: material pressing part, 3.61: material pressing surface;

[0093] 4: meat cutting module; 4.11: gear sealing shaft, 4.12: gear set, 4.121: first meat cutting transmission gear, 4.122: second meat cutting transmission gear, 4.13: output part, 4.131: sub-output part, 4.14: first sealing ring, 4.141: first sealing through hole, 4.142: first sealing clamping groove, 4.15: second sealing ring, 4.151: stress part, 4.152: sealing part, 4.153: second sealing clamping groove, 4.16: gear box shaft sleeve, 4.161: end plate, 4.17: gear box body, 4.18: gear box cover, 4.19: third sealing ring, 4.10: transmission part; 4.2: knife comb part, 4.21: comb tooth shaft rod, 4.22: comb tooth, 4.221: connecting part, 4.222: guiding part; 4.3: knife scale part, 4.31: knife scale shaft rod, 4.32: knife blade, 4.33: elastic variable pitch blade, 4.331: variable pitch connecting through hole, 4.332: variable pitch part, 4.332a: stress surface, 4.332b: variable pitch interval, 4.332c: rebound inclined surface; 4.4: cutter baffle; 4.5: outer end plate, 4.51: adjusting screw hole; 4.6: baffle adjusting part, 4.61: adjusting screw rod, 4.62: adjusting knob; 4.7: meat cutting container; 4.8: meat cutting material guide part; a: first end sealing bayonet, b: second end sealing bayonet, c: cutter baffle bayonet, d: limiting cover;

[0094] 5: crushing module; 5.1: crushing container, 5.11: crushing clamping groove, 5.12: crushing inner side wall; 5.2: crushing cover body, 5.21: third portable convex strip; 5.3: crushing transmission shaft, 5.31: cutter head guiding part; 5.4: crushing cutter head, 5.41: connecting sleeve, 5.42: crushing blade, 5.421: arc surface blade edge, 5.422: blade ridge. DETAILED DESCRIPTION

[0095] The utility model is further explained in combination with the embodiments as follows:

[0096] The core technical problem faced by the technical scheme of the embodiments is derived from the accurate understanding of the prior art by the inventor, and therefore, how to provide a cutting and processing machine that assembles various modules with different functions on a power platform is a technical problem that the inventor urgently needs to solve.

[0097] It should be noted that the embodiments do not constitute a limitation on the protection scope of the claims of the utility model, and any technical scheme that can be reasonably expected by a person skilled in the art according to the technical concepts provided / proved by the embodiments should be covered within the protection scope of the claims of the utility model.

[0098] The embodiments are described in detail as follows:

[0099] Please refer to the accompanying drawings Figures 1-69-11, 15-17, 26-29, the embodiment relates to a multifunctional cutting and dispensing machine, which comprises a power platform 1 and a face extruding module 2, a vegetable cutting module 3, a meat cutting module 4 and a stirring and crushing module 5 assembled with the power platform 1 respectively;

[0100] Wherein:

[0101] The power platform comprises a transmission structure and an assembly part matched with the transmission structure, the assembly part is arranged on the upper shell 1.3, and specifically comprises a clamping boss 1.31 and a clamping groove 1.32, wherein the length extension direction of the clamping boss 1.31 is perpendicular to the length extension direction of the clamping groove 1.32, so as to integrate the two on a similar rectangular part as much as possible, at the same time, the clamping boss 1.31 is arranged above the clamping groove 1.32, so that the two are staggered in the vertical direction, the layout is more suitable for the transmission structure, and the assembly of the cutting and dispensing module is more convenient.

[0102] Specifically, the clamping boss 1.31 is provided with a first through hole 1.311 for exposing the first output part 1.11, the first through hole 1.311 is arranged at one end of the clamping boss 1.31 extending along the length direction and the opening direction is vertically upward.

[0103] The outer end of the clamping groove 1.32 is an open opening, and the inner end is provided with a third through hole 1.321 for exposing the third output part 1.22, the third through hole 1.321 is arranged at the middle region of the inner end and the opening direction is horizontally arranged.

[0104] The technical scheme of the embodiment provides two assembly structures to adapt to the integrated setting of different assembly modules:

[0105] The clamping boss 1.31 provides a first assembly basis, the cutting and dispensing module can be assembled and clamped through the groove arranged below, and the first output part 1.11 is used as the power drive for the corresponding cutting and dispensing operation;

[0106] The clamping groove 1.32 provides a second assembly basis, the cutting and dispensing module can be assembled and clamped through the strip-shaped clamping tenon arranged on the side or below, and the third output part 1.22 is used as the power drive for the corresponding cutting and dispensing operation;

[0107] The setting position and direction of the first through hole 1.311 and the third through hole 1.321 are used to adapt to the output position and output direction of the transmission structure.

[0108] In the embodiment, the inner ends of the clamping boss 1.31 and the clamping groove 1.32 are provided with an assembly interval 1.33, the assembly interval 1.33 is provided with a second through hole 1.331 for exposing the second output part 1.21, and the opening direction of the second through hole 1.331 is vertically upward.

[0109] The technical scheme of the embodiment spaces the clamping boss 1.31 and the clamping groove 1.32, and simultaneously spaces the first through hole 1.311 and the third through hole 1.321, facilitating the arrangement of the transmission structure. Meanwhile, the assembly space 1.33 serves as a third assembly basis, and the corresponding cutting and arranging operation can be driven by the second through hole 1.331.

[0110] Please continue to refer to the attached Figure 2 The embodiment further includes a three-way output transmission structure used in cooperation with the above-mentioned assembly components:

[0111] The three-way output transmission structure has a double-output motor 1.1 and a variable-phase coupling 1.2 as core components. The double-output motor 1.1 is a large-torque worm reduction motor with two output shafts. The two output shafts are used to form two output parts. One of the output parts is a first output part 1.11 with a vertical upward output direction, and the other output part is a coupling output part 1.12 with a horizontal output direction. The first output part 1.11 outputs power through a spline structure.

[0112] The coupling output part 1.12 provides power to the variable-phase coupling 1.2. The input end of the variable-phase coupling 1.2 is connected to the coupling output part 1.12. The variable-phase coupling 1.2 also includes two output parts. One of the output parts is a second output part 1.21 with a vertical upward output direction, and the other output part is a third output part 1.22 with a horizontal output direction. The coupling output part 1.12 obtains different output directions of the second output part 1.21 and the third output part 1.22 through a bevel gear connection structure, and adjusts the corresponding rotational speeds of the second output part 1.21 and the third output part 1.22.

[0113] The first output part 1.11 is arranged on one side of the double-output motor 1.1, the third output part 1.22 is arranged at the end of the variable-phase coupling 1.2 away from the double-output motor 1.1, and the second output part 1.21 is arranged above the third output part 1.22.

[0114] In the technical scheme of the embodiment, the first output part 1.11, the second output part 1.21, and the third output part 1.22 have different output rotational speeds to adapt to the needs of different cutting and arranging modules. Specifically, the rotational speed corresponding to the first output part 1.11 is greater than the rotational speed corresponding to the second output part 1.21, and the rotational speed corresponding to the second output part 1.21 is greater than the rotational speed corresponding to the third output part 1.22.

[0115] By combining the motor with two output parts and the variable-phase coupling, the integration of three levels of output parts is achieved, providing an operation basis for various menu preparation operations.

[0116] For example, after being set in the embodiment as follows:

[0117] The first output part 1.11 has the fastest rotating speed, and its output power can be used for the chopping module for chopping food materials. The chopping module is provided below with a recess matched with the clamping protrusion 1.31 for clamping, and is provided with a transmission structure matched with the position of the first through hole 1.311 and connected with the first output part 1.11;

[0118] The second output part 1.21 has a moderate rotating speed, and its output power can be used for the module for cutting vegetables or noodles. The corresponding module is assembled on the assembly interval 1.33, and is provided with a transmission structure matched with the position of the second through hole 1.331 and connected with the second output part 1.21;

[0119] The third output part 1.22 has the slowest output rotating speed, and can be used for driving the noodle extruding module. The noodle extruding module is assembled by clamping the strip-shaped clamping tenon with the clamping recess 1.32. The strip-shaped clamping tenon is provided with a transmission structure matched with the position of the third through hole 1.321 and connected with the third output part 1.22.

[0120] Please refer to the accompanying drawings again Figures 5-6 Specifically, the noodle extruding module 2 comprises a water tank 2.8, a dough stirring structure and a dough extruding structure.

[0121] The water tank 2.8 is connected to the dough kneading cover 2.7 above the dough kneading container 2.5. The dough stirring structure is arranged inside the dough kneading container 2.5 for stirring dough. The dough extruding structure is arranged at the lower part of the dough kneading container 2.5 for extruding the above-mentioned stirred dough.

[0122] The dough kneading cover 2.7 is provided with a water tank clamping groove 2.71. The water tank 2.8 is clamped in the water tank clamping groove 2.71. The water tank clamping groove 2.71 is provided with a dough kneading water inlet 2.72. The lower end of the water tank 2.8 has a water tank water outlet clamped and connected to the dough kneading water inlet 2.72.

[0123] The dough stirring structure comprises a stirring rod 2.6. The dough extruding structure comprises an extruding screw 2.1 arranged in the extruding channel below the dough kneading container 2.5. The extruding screw 2.1 has oppositely arranged driving end 2.11 and extruding end 2.12. The extruding screw 2.1 further comprises an extruding outlet 2.21 arranged at the extruding end 2.12.

[0124] The stirring rod 2.6 of the noodle extruding module 2 is drivingly connected with the second output part 1.21.

[0125] The extrusion channel is connected in the clamping groove 1.32, and the driving end 2.11 of the extrusion screw 2.1 of the extrusion module 2 is drivingly connected with the third output portion 1.22. In the technical scheme of the embodiment, the extrusion module 2 is clamped with the power platform 1, and the driving connection of the stirring rod 2.6 with the second output portion 1.21 and the driving connection of the driving end 2.11 of the extrusion screw 2.1 with the third output portion 1.22 realize the assembly and use of the extrusion cutting machine.

[0126] Please refer to the accompanying drawings Figures 10-11 The bottom of the cutting module 3 is provided with the input port of the second output portion 1.21, and the inside of the cutting module 3 is provided with a cutting structure connected with the second output portion 1.21:

[0127] In the technical scheme of the embodiment, the cutting module 3 includes, from top to bottom, a pressing member 3.6, a material guiding member 3.5, a cutting cover plate 3.4 and a cutting container 3.3. Specifically, the cutting cover plate 3.4 is arranged on the upper opening of the cutting container 3.3, and the edge region of the cutting cover plate 3.4 is provided with a first food material inlet 3.41; the lower end of the material guiding member 3.5 is connected to the first food material inlet 3.41, and the upper end is provided with a second food material inlet 3.51; the pressing member 3.6 is separately arranged with the material guiding member 3.5, and when the cutting module 3 is idle, the pressing member 3.6 is sleeved in the material guiding member 3.5, and when the cutting operation is performed, the pressing member 3.6 presses the food material in the material guiding member 3.5 through the pressing surface 3.61 below it;

[0128] After the food material is put into the material guiding member 3.5, it is difficult to fully contact with the cutting structure under the action of the gravity of the food material. At this time, the pressing surface 3.61 of the pressing member 3.6 can be deeply inserted into the material guiding member 3.5 to provide downward pressure on the food material, so as to promote the cutting of the food material by the cutting structure and improve the cutting efficiency. The first food material inlet is arranged in the region close to the edge of the cutting cover plate, so that the food material falls near the edge of the cutting structure and can be cut by the cutter more quickly.

[0129] Please refer to the accompanying drawings Figures 16-17 The third output portion 1.22 can also be used to drive the meat cutting module 4, which includes a meat cutting container 4.7, a meat cutting material guiding member 4.8, a meat cutting structure and a power providing gear box.

[0130] The meat cutting container 4.7 provides the space required for the meat cutting operation, and the meat cutting container 4.7 includes two split components arranged above and below. The surface of the upper split component is provided with the meat cutting material guiding member 4.8 and is in communication therewith, and the meat cutting material guiding member 4.8 includes a channel for guiding the meat material into the meat cutting container 4.7.

[0131] When assembled with the power platform 1, the meat cutting module 4 is connected to the clamping groove 1.32, and the power transmission shaft 4.11 on the gear box is connected with the third output 1.22, and then the power input by the third output 1.22 is transmitted to the meat cutting structure.

[0132] Please refer to the attached Figures 27-29 The embodiment relates to a chopping module 5, which comprises a chopping container 5.1 and a chopping cover 5.2 provided on the chopping container 5.1. The chopping container 5.1 and the chopping cover 5.2 provide a space for chopping food, and the space is provided with a chopping transmission shaft 5.3 and a chopping cutter head 5.4 sleeved on the chopping transmission shaft 5.3.

[0133] The lower end of the chopping container 5.1 is provided with a transverse through-chopping clamping groove 5.11, and the chopping container 5.1 is clamped with the clamping boss 1.31 on the power platform 1 through the chopping clamping groove 5.11. The chopping cover 5.2 is provided with a protruding third portable protruding strip 5.21, which is convenient for the user to hold and transfer the chopping cover 5.2.

[0134] Further, the lower end of the chopping transmission shaft 5.3 is in transmission connection with the first output 1.11, and the upper end is hinged to the lower surface of the chopping cover 5.2. The chopping cover 5.2 can limit the chopping transmission shaft 5.3, and the chopping cutter head 5.4 rotates with the rotation of the chopping transmission shaft 5.3 to chop food.

[0135] In the preferred embodiment, a spacing avoiding the clamping structure is arranged between the first output 1.11 and the second output 1.21. In this case, when the chopping module is clamped and installed at the first output, the second output 1.21 can avoid interfering with the clamping structure.

[0136] In the preferred embodiment, the second output 1.21 and the third output 1.22 have a common rotation output axis. In the embodiment, the second output 1.21 and the third output 1.22 can jointly serve as a power input part of a combined chopping and kneading module, which is convenient for the internal structure of the module. Specifically, the second output 1.21 is responsible for the power input of the chopping, and the third output 1.22 is responsible for the power input of the kneading. Since the rotation output axes of the second output 1.21 and the third output 1.22 are coplanar, the chopping operation can be directly converted into the kneading operation.

[0137] Please refer to the attached Figures 1-4 In the preferred embodiment, the power platform comprises a housing composed of an upper housing 1.3 and a lower housing 1.4, a positioning handle 1.5 and a supporting structure 1.6.

[0138] The upper shell 1.3 and lower shell 1.4 can be made of various common materials, not limited to various plastics, alloys and other materials. The upper shell 1.3 has an assembly structure for the cutting module formed on its surface and a transmission structure for power output inside. Therefore, the upper shell 1.3 occupies a large volume. The lower shell 1.4 is used to support the upper shell 1.3. The lower shell 1.4 has a placement space 1.41 for placing containers. The placement space 1.41 is located below the upper shell 1.3 and is used to hold bowls or basins to conveniently receive prepared dishes. Therefore, the lower shell 1.4 is relatively small in volume. The power platform itself is in a top-heavy state. Whether placed in a sink or on a platform, it is prone to displacement or even tipping over if not secured, causing trouble for food preparation.

[0139] Therefore, this embodiment provides a positioning handle 1.5 and a support structure 1.6 as described above, to correspond to the placement of the power platform in the water tank and on the platform, respectively, so as to prevent it from being stable and tipping over.

[0140] Specifically:

[0141] The positioning handle 1.5 is telescopically positioned between the upper housing 1.3 and the lower housing 1.4, and its positioning structure enables it to be in a hidden state and a locked state.

[0142] In the above technical solution of this embodiment, depending on whether it needs to work in the water tank, the positioning handle 1.5 can be in a hidden state and a locked state respectively. When it is in the hidden state, the positioning handle 1.5 is retracted and does not occupy additional space; when it is in the locked state, the positioning handle 1.5 is locked with the inner wall of the water tank to fix the position of the power platform in the water tank and prevent it from moving. At the same time, the positioning handle 1.5 itself can also be used as a handle to lift the power platform, making it convenient to move its position.

[0143] Specifically, when in the hidden state, the inner contour of the positioning handle 1.5 fits snugly against the power platform; when in the locked state, the width of the power platform in the extension direction of the positioning handle 1.5 is consistent with the width inside the water tank.

[0144] The positioning structure in the above embodiments includes a positioning buckle 1.51 and a positioning hole group 1.52;

[0145] The positioning hole group 1.52 consists of a hidden positioning hole 1.521 and a locking positioning hole 1.522. The hidden positioning hole 1.521 is located near the end of the positioning handle 1.5 that is locked to the water tank, and the locking positioning hole 1.522 is located away from the end of the positioning handle 1.5 that is locked to the water tank. The positioning buckle 1.51 is inserted into the corresponding positioning hole to achieve positioning.

[0146] Specifically, the positioning buckle 1.51 is composed of a positioning protrusion inserted into a positioning hole and a positioning bump for easy holding, and when in operation, the user holds the positioning bump and inserts the positioning protrusion into the positioning hole.

[0147] Before insertion, the positioning buckle 1.51 is first positioned by adjusting the through hole and then inserted into the corresponding positioning hole, and the adjusting through hole is partially formed on the upper shell 1.3 and partially formed on the lower shell 1.4, and the upper shell 1.3 and the lower shell 1.4 are combined to form the adjusting through hole.

[0148] The support structure 1.6 includes a support plate 1.61 which is telescopically arranged at the lower end of the lower shell 1.4, and when the support plate 1.61 is extended, it is located below the placement space 1.41, and when the support plate 1.61 is retracted, it is hidden at the lower end surface of the lower shell 1.4.

[0149] In this embodiment, the support plate 1.61 is an integrally formed rectangular rigid flat plate, and the corners of the outer contour have arc-shaped edges, and the thickness is less than 5mm.

[0150] Specifically, the support plate 1.61 is provided with a sliding rail 1.62 extending along the extension direction thereof, and the support plate 1.61 is extended and retracted along the sliding rail 1.62, and the sliding rail 1.62 is provided with a first stop block 1.63, and the support plate 1.61 is provided with a second stop block 1.64 on the side where the first stop block 1.63 is located, and the first stop block 1.63 is limited by the abutment with the second stop block 1.64 to limit the extension amplitude of the support plate 1.61, and the support plate 1.61 is at least partially located at the lower end surface of the lower shell 1.4 when it is limited.

[0151] In the technical scheme of this embodiment, the placement space 1.41 is formed below the upper shell 1.3 to accommodate a bowl or a basin, thereby saving the occupation of the kitchen countertop space, and at the same time, after the placement space 1.41 is formed, the upper shell 1.3 of the power platform still occupies a large space and has a certain weight due to the need to cover the power mechanism and the like, and this structure makes the power platform top-heavy and unstable to place and even easy to fall, therefore, the embodiment is further provided with a support structure 1.6, and the support plate 1.61 extended in the support structure 1.6 supports the power platform to make it more stable to place.

[0152] After the support plate 1.61 is extended, the part limited in the sliding rail 1.62 is clamped in the sliding rail 1.62 to provide support for the support plate 1.61, and the force point of the gravity of the power platform mainly acts on the plane of the support plate 1.61 rather than the end of the support plate 1.61, which can make the power platform more stable.

[0153] Further, the positioning handle 1.5 itself exists above the placement space 1.41, so that the center of the power platform is more biased upward, at this time the existence of the support structure 1.6 is more necessary; while the positioning handle 1.5 extends the clamping position in the sink, the support plate 1.61 in the support structure 1.6 can be retracted and hidden at the lower end face of the lower shell 1.4, so as to prevent the support plate 1.61 from occupying additional space.

[0154] In a further preferred embodiment, the positioning handle 1.5 is clamped with the side wall of the sink through the handle part 1.53, and the outer layer of the handle part 1.53 is provided with an elastic surface layer, which can make the positioning handle 1.5 more closely abut on the inner wall of the sink, and also can reduce the requirement of the processing precision of the positioning handle 1.5, that is, even if the length of the positioning handle 1.5 after extension is slightly shorter than the width of the sink, the existence of the elastic surface layer can also provide appropriate complementary spacing, so that the clamping of the power platform is more firm.

[0155] In a further preferred embodiment, the positioning handle 1.5 has a side arm 1.54 on each side, and each side arm 1.54 is provided with a counterweight part 1.541 at the end away from the handle part 1.53, when the positioning handle 1.5 is in the clamping state, the counterweight part 1.541 is arranged inside the space covered by the upper shell 1.3, and the counterweight part 1.541 in this embodiment is made of a metal block with high density, such as a stainless steel block;

[0156] In this embodiment, the arrangement of the counterweight block 1.541 can optimize the problems existing in the power platform, which are as follows:

[0157] ①When the positioning handle 1.5 is in the hidden state, the power platform is applied to the table top at this time, and the counterweight part 1.541 is located inside the shell away from the placement space 1.41, and this side is just opposite to the protruding direction of the protruding end of the upper shell 1.3, that is, the protruding part above the placement space 1.41, which originally leads to the hidden danger of the power platform being prone to fall due to the protruding end of the upper shell 1.3, and the existence and arrangement position of the counterweight part 1.541 greatly balances the problem of the center of gravity deviation caused by the above-mentioned protruding end, thus greatly improving the risk of the above-mentioned hidden danger;

[0158] ②When the positioning handle 1.5 is in the clamping state, the power platform is applied to the sink at this time, and the positioning handle 1.5 extends for a long distance, in the structure of long-distance extension, the end part where the handle part 1.53 is located tends to sink, which causes the positioning handle 1.5 to be prone to tilt towards the end where the handle part 1.53 is located, so that the stress on the connecting structure of the positioning buckle 1.51 and the hidden positioning hole 1.521 is large, when there is no limiting structure with high strength at the hidden positioning hole 1.521, the clamping of the positioning handle 1.5 and the sink is prone to be unstable, and even clamping failure;

[0159] At this time, by arranging the counterweight part 1.541 and keeping the counterweight part 1.541 in the internal space of the shell, the side arm 1.54 is pivoted at the edge of the shell, the counterweight part 1.541 balances the gravity distribution of the positioning handle 1.5 itself in the clamping state, so that the tendency of the positioning handle 1.5 to tilt to one end where the handle part 1.53 is located is reduced or even eliminated, thereby improving the risk of clamping failure.

[0160] In a preferred embodiment, the inner part of the clamping boss 1.31 is provided with a motor clamping groove, the opening of the motor clamping groove is downward, and the side wall of the motor clamping groove clamps and limits the upper part of the double-output part motor 1.1. At the same time, the inner end of the clamping groove 1.32 is provided with a shaft coupling limiting wall, which abuts and clamps one side of the third output part 1.22 on the variable shaft coupling 1.2. In this embodiment, the clamping boss 1.31 and the clamping groove 1.32 not only facilitate the integrated assembly of various cutting and matching modules, but also limit the transmission structure through their own structure to prevent it from jumping and vibrating, making the assembly of the transmission structure more stable.

[0161] In a further preferred embodiment, the first stop block 1.63 or the second stop block 1.64 is a block-shaped member with elasticity, so as to avoid rigid collision when the support plate 1.61 is stretched and contracted.

[0162] In a further preferred embodiment, when the support plate 1.61 is stretched to the maximum extent, the center of gravity of the cutting and matching machine power platform is projected on the support plate 1.61 in the vertical direction, so as to obtain better support effect.

[0163] Please refer to the accompanying drawings Figures 6-9 The present embodiment relates to a preferred noodle extruding module, and the noodle extruding module comprises:

[0164] The water tank clamping groove 2.71 is provided on the dough covering 2.7, and the outer periphery of the water tank clamping groove 2.71 has a shape matching the outer contour of the lower end of the clamped water tank 2.8. The water tank clamping groove 2.71 is provided with a dough water inlet 2.72, and the lower end of the water tank 2.8 has a water tank water outlet clamped in communication with the dough water inlet 2.72.

[0165] The dough flocculation stirring structure comprises a stirring rod 2.6, and the stirring rod 2.6 comprises a rod body 2.61. The rod body 2.61 is vertically arranged in a working state, and the two ends of the rod body 2.61 are respectively provided with a driving connection part 2.62 and a follow-up connection part 2.63. In the working state, the rod body 2.61 is sequentially provided with a pre-stirring arm 2.64, an auxiliary stirring arm 2.65 and a main stirring arm 2.66 from top to bottom.

[0166] The dough extrusion structure comprises an extrusion screw 2.1 arranged in an extrusion channel below the dough container 2.5, the extrusion screw 2.1 having a driving end 2.11 and an extrusion end 2.12 arranged oppositely; further comprising an extrusion cover 2.2 fixed to one end of the extrusion channel, partially sleeved on the extrusion end 2.12, the extrusion cover 2.2 having a space for the rotation of the extrusion screw 2.1 formed inside, and a dough extrusion outlet 2.21 arranged on the surface; further comprising a dough extrusion die 2.4, which is detachably arranged at the dough extrusion outlet 2.21, and has a dough extrusion hole formed thereon.

[0167] The technical solution in the embodiment provides a stable and detachable water tank assembly structure, which only needs to be inserted into the water tank clamping groove 2.71 during assembly; further provides a dough stirring structure, the driving connection part 2.62 on the stirring rod 2.6 is connected with the power output part in transmission, and the follow-up connection part 2.63 is connected with the stirring rod 2.6 through a hinged connection to cooperate with the rotation of the stirring rod 2.6; during the addition of the dough, the pre-stirring arm 2.64 first contacts the dough and forms stirring, then the auxiliary stirring arm 2.65 further stirs the pre-stirred dough, and finally the main stirring arm 2.66 stirs the dough; further provides a dough extrusion structure to extrude the above-mentioned stirred dough, and different shapes of dough can be extruded by replacing the extrusion die 2.4 with different shapes of dough extrusion holes.

[0168] In one embodiment:

[0169] The water tank clamping groove 2.71 is a strip-shaped groove, and the water tank 2.8 is a columnar body, the cross section of the columnar body has a shape matching the inner contour of the water tank clamping groove 2.71.

[0170] The water tank clamping groove 2.71 is provided with a dough mixing water inlet 2.72, which is a protruding water inlet pipe and is integrally formed with the water tank clamping groove 2.71, and the lower end of the water tank 2.8 has a water outlet, which is arranged such that the water outlet and the dough mixing water inlet 2.72 are connected together in communication after the water tank 2.8 is clamped with the water tank clamping groove 2.71, and specifically, the connection mode is that the protruding water inlet pipe corresponding to the dough mixing water inlet 2.72 is inserted into the water outlet.

[0171] Further, after the water tank 2.8 is clamped, the water outlet is connected with the dough mixing water inlet 2.72 through a check valve 2.81, at this time, the check valve 2.81 is inserted by the protruding water inlet pipe to open the flow communication state;

[0172] In the preferred technical solution, the dough mixing water inlet 2.72 is arranged at one end of the groove bottom of the water tank clamping groove 2.71.

[0173] The technical scheme of the embodiment has the advantages that: the stop valve 2.81 is in a stop state before being connected with the dough water inlet 2.72, and water in the water tank 2.8 cannot flow out; and the stop valve 2.81 is in a flow state after being connected with the dough water inlet 2.72, and water in the water tank 2.8 can be added to the dough container 2.5 to form dough flocculation with a proper water content; when water needs to be added again, the water tank 2.8 can be pulled out, the proper amount of water can be connected, and then the water tank 2.8 can be inserted into the water tank clamping groove 2.71.

[0174] The advanced embodiment has the advantages that: the protruding water inlet pipe also plays an auxiliary positioning role, the water tank 2.8 is more firmly installed, the dough water inlet 2.72 is arranged at one end of the bottom of the water tank clamping groove 2.71, and thus the water tank 2.8 cannot be installed reversely; and the water tank 2.8 is only located in the upper region of the water tank clamping groove 2.71, and does not occupy additional space.

[0175] In the preferred embodiment, the middle part of the dough cover 2.7 is provided with a strip-shaped first portable protruding strip 2.73, the water tank clamping groove 2.71 is arranged on one side of the first portable protruding strip 2.73, the water tank 2.8 is provided with a water tank cover 2.9, the water tank cover 2.9 is provided with a strip-shaped second portable protruding strip 2.91, and the lower parts of the first portable protruding strip 2.73 and the second portable protruding strip 2.91 are provided with gradually outwardly expanding base structures.

[0176] The technical scheme of the embodiment has the advantages that: the first portable protruding strip 2.73 facilitates the user to hold the dough container 2.5 by hand, the second portable protruding strip 2.91 facilitates the user to hold the water tank 2.8 by hand, the water tank clamping groove 2.71 is arranged at a position favorable to the utilization and arrangement of the upper space of the dough cover 2.7, and the above-mentioned base structures can form the basis for holding by hand.

[0177] In one embodiment:

[0178] The auxiliary stirring arm 2.65 in the dough flocculation stirring structure is formed with a dough flocculation extrusion area 2.67 at one end away from the rod body 2.61, and the main stirring arm 2.66 is provided with a dough flocculation return blocking part 2.661 protruding in the direction of the above-mentioned dough flocculation extrusion area 2.67 at one end away from the rod body 2.61.

[0179] When the rod body 2.61 rotates, the dough flocculation return blocking part 2.661 forms a circular track on the outer side, which can be adjacent to the inner wall profile of the dough container 2.6.

[0180] In the technical scheme of the embodiment, after the dough pieces are added into the dough container 2.5, the pre-stirring arm 2.64 first contacts the dough pieces and forms stirring, then the auxiliary stirring arm 2.65 further stirs the pre-stirring dough pieces, and finally the main stirring arm 2.66 stirs, the dough piece return blocking portion on the main stirring arm 2.66 can scrape the dough pieces scattered on the inner wall of the dough container 2.5 and guide them into the dough piece extrusion area 2.67, and then the auxiliary stirring arm 2.65 stirs the guided dough pieces in the dough piece extrusion area 2.67 for the second time, so as to improve the chewy taste of the dough pieces and obtain more delicious noodles.

[0181] In the preferred embodiment, the interval at which the pre-stirring arm 2.64 extends from the rod body 2.61 is greater than the interval at which the auxiliary stirring arm 2.65 extends from the rod body 2.61, and the interval at which the main stirring arm 2.66 extends from the rod body 2.61 is greater than the interval at which the auxiliary stirring arm 2.65 extends from the rod body 2.61, that is, the pre-stirring arm 2.64 has a longer length relative to the auxiliary stirring arm 2.65, and the main stirring arm 2.66 also has a longer length relative to the auxiliary stirring arm 2.65.

[0182] Generally speaking, the end of the stirring arm has a stronger stirring effect and a more sufficient stirring effect, so in the technical scheme of the embodiment, the pre-stirring arm 2.64 stirs the dough pieces in a larger rotation range, the stirring area of the auxiliary stirring arm 2.65 is different from that of the pre-stirring arm 2.64, so that the dough pieces in different areas are fully stirred, similarly, the main stirring arm 2.66 has a larger stirring range, and is matched with the dough piece return blocking portion 2.661 to scrape the dough pieces and guide them into the dough piece extrusion area 2.67, and the stirring range of the main stirring arm 2.66 is as large as possible, and in the embodiment, the length of the main stirring arm 2.66 is greater than that of the pre-stirring arm 2.64.

[0183] In the preferred embodiment, the pre-stirring arm 2.64 and the auxiliary stirring arm 2.65 extend in opposite directions from the rod body 2.61, which can reduce the mutual interference between the two and make them as evenly distributed as possible in the dough container 2.5, thereby reducing the probability that the dough pieces are not stirred.

[0184] In the preferred embodiment, in the working state, the upper surface of the auxiliary stirring arm 2.65 is provided with a first guide side 2.651, and the extension direction of the first guide side 2.651 from the rod body 2.61 has a downwardly extending slope.

[0185] The upper surface of the pre-stirring arm 2.64 is provided with a second guide side 2.641, and the extension direction of the second guide side 2.641 from the rod body 2.61 has a downwardly extending slope.

[0186] In the technical solution of the embodiment, the first guide side 2.651 and the second guide side 2.641 make the dough crumbs move outward and downward by the action of centrifugal force, so as to be scraped up by the dough crumb return stop 2.661 and subjected to secondary stirring.

[0187] In a further preferred embodiment, the auxiliary stirring arm 2.65 and the main stirring arm 2.66 are arranged on the same side of the rod body 2.61, so that the auxiliary stirring arm 2.65 first acts on the dough crumbs scraped up by the dough crumb return stop 2.661.

[0188] In the embodiment, the planar projection relationship of the pre-stirring arm 2.64, the auxiliary stirring arm 2.65 and the main stirring arm 2.66 is as follows:

[0189] The auxiliary stirring arm 2.65 and the main stirring arm 2.66 have projection areas with consistent and partially overlapping extension directions, the pre-stirring arm 2.64 and the auxiliary stirring arm 2.65 have projection areas with opposite extension directions, and the pre-stirring arm 2.64 and the main stirring arm 2.66 have projection areas with opposite extension directions.

[0190] In a preferred embodiment, in the working state, the upper surface of the main stirring arm 2.66 is provided with a third guide side 2.662, the third guide side 2.662 has a downward extending slope along the direction pointing to the rod body 2.61, and the side of the dough crumb return stop 2.661 close to the rod body 2.61 is provided with a fourth guide side 2.663, the fourth guide side 2.663 has a downward extending slope along the direction pointing to the rod body 2.61. In the technical solution of the embodiment, the third guide side 2.662 and the fourth guide side 2.663 are used to guide the dough crumbs after secondary stirring to be further output downward.

[0191] In a further preferred embodiment, the water inlet 2.72 is arranged at a position such that the falling water is located on the inner wall of the dough container 2.5. In this way, under the guidance of the first guide side 2.651 and the second guide side 2.641 of the stirring rod 2.6 and the centrifugal force of the flour, the dough crumbs are first formed at the inner wall of the dough container 2.5, then the dough crumbs are hung and guided into the dough crumb extrusion area 2.67 by the dough crumb return stop 2.661, and the auxiliary stirring arm 2.65 performs secondary stirring on the dough crumbs. In this way, a path of dough crumb formation-extrusion-secondary stirring is formed, which can improve the stirring efficiency of the dough crumbs and also obtain noodles with a chewy taste.

[0192] In one embodiment:

[0193] The dough crumb extrusion structure comprises a long strip-shaped dough extrusion channel, a dough extrusion screw 2.1, a dough extrusion cover 2.2, a dough extrusion fixing member 2.3 and a dough extrusion die head 2.4.

[0194] The extruding screw 2.1 is arranged in the middle of the extruding channel, one end of the extruding screw 2.1 is the driving end 2.11, the other end is the extruding end 2.12, the driving end 2.11 is in transmission connection with a power output shaft to drive the extruding screw 2.1 to rotate, the extruding end 2.12 is provided with the extruding outlet 2.21.

[0195] The extruding cover 2.2 is a cylindrical member and is sleeved on the extruding screw 2.1 from the extruding end 2.12, the inside of the extruding cover 2.2 and the extruding channel form a space for the extruding screw 2.1 to rotate, the lower surface of the extruding cover 2.2 is provided with the extruding outlet 2.21, the extruding cover 2.2 is provided with the first limiting ring 2.22 at the end adjacent to the dough container 2.5;

[0196] For example, the extruding cover 2.2 comprises a first tubular member 2.23, the first limiting ring 2.22 is arranged at one end of the first tubular member 2.23 and is outwardly turned, the other end of the first tubular member 2.23 is closed to prevent the dough from being extruded from the end, the extruding outlet 2.21 is arranged at the lower end of the first tubular member 2.23 and is opposite to the extruding end 2.12 of the extruding screw 2.1, thus, the dough can be extruded by the gravity of the dough itself.

[0197] The extruding fixing member 2.3 is a ring-shaped member matching the extruding cover 2.2, which is provided with a cover through hole 2.31, a second limiting ring 2.32 and an internal thread, the internal thread is in screw connection with the external thread on the dough container 2.5 to form a fixing structure;

[0198] The cover through hole 2.31 is sleeved on the extruding cover 2.2, the internal thread fixing structure is fixed to the protruding external thread on the dough container 2.5, the first limiting ring 2.22 and the second limiting ring 2.32 form a clamping part overlapping with each other, the clamping part is in contact with another clamping part on the dough container 2.5, the two clamping parts make the first limiting ring 2.22 clamped between the extruding fixing member 2.3 and the dough container 2.5.

[0199] For example, the extruding fixing member 2.3 has a second tubular member 2.33, the second limiting ring 2.32 is arranged at one end of the second tubular member 2.33 and is inwardly turned, the internal thread fixing structure is arranged on the inner wall of the other end of the second tubular member 2.33, the inner side of the second limiting ring 2.32 surrounds the cover through hole 2.31.

[0200] The extruding die 2.4 is detachably arranged at the extruding outlet 2.21, the extruding die 2.4 is provided with a dough extruding hole.

[0201] The technical scheme of the embodiment provides a feasible noodle sheet extrusion structure, and different noodle shapes can be extruded by replacing the noodle extrusion part with different shapes of extrusion holes, such as extruding thin noodles when the noodle extrusion hole is a thin hole, extruding thick noodles when the noodle extrusion hole is a thick hole, extruding wide noodles when the noodle extrusion hole is a flat hole, and extruding noodle sheets when the noodle extrusion hole is a long slit, and so on.

[0202] In specific operation, the noodle sheet first falls on the noodle extrusion screw 2.1 in the noodle extrusion channel, the noodle extrusion screw 2.1 is driven to rotate to push the noodle sheet to move in the direction of the noodle extrusion outlet 2.21, and since the corresponding end of the first tubular part 2.23 is closed, the noodle sheet is only extruded from the noodle extrusion outlet 2.21 to form different noodle shapes with different shapes of noodle extrusion holes.

[0203] In the preferred embodiment, the noodle extrusion die 2.4 is a curved sheet part, the noodle extrusion die 2.4 is covered on the noodle extrusion outlet 2.21 from the inner wall of the first tubular part 2.23, and the degree of curvature of the noodle extrusion die 2.4 matches the shape of the inner wall profile of the first tubular part 2.23, that is, the noodle extrusion die 2.4 is attached and covered on the noodle extrusion outlet 2.21 from the inside to the outside, so that the noodle extrusion die 2.4 is not easy to fall out and the state during noodle extrusion is relatively stable.

[0204] In the further preferred embodiment, the first limiting ring 2.22 includes a limiting part protruding into the first tubular part 2.23, and the noodle extrusion die 2.4 has a limiting length which is the same as the distance between the limiting part and the closed end.

[0205] In the technical scheme of the embodiment, the combination of the limiting part and the closed end is used to form the basis of the limiting noodle extrusion die 2.4, since the limiting length of the noodle extrusion die 2.4 is the same as the distance between the limiting part and the closed end, the noodle extrusion die 2.4 can be clamped between the limiting part and the closed end, without the need for an additional positioning structure to position the noodle extrusion die 2.4, which simplifies the assembly structure of the noodle extrusion die 2.4 and makes the assembly process of the noodle extrusion die 2.4 more convenient and fast.

[0206] Please further refer to the accompanying drawings Figures 11-14 In the preferred embodiment, the vegetable cutting structure is composed of a vegetable cutting transmission shaft 3.1 and a vegetable cutting cutter 3.2.

[0207] The lower end of the cutting transmission shaft 3.1 is connected with the second output part 1.21, and the upper end transmits the rotary driving force to the transmission connecting part 3.21 of the cutting blade 3.2. In the embodiment, the cutting blade 3.2 is a circular disc punched from a sheet metal material, and the transmission connecting part 3.21 is a through hole arranged at the rotating shaft center of the circular disc, so that the cutting blade 3.2 does not have additional displacement when rotating, thereby saving space. However, the cross-sectional shape of the through hole is not circular, and has a connecting structure matched with the partial outer peripheral contour of the cutting transmission shaft 3.1 for clamping. In the embodiment, the connecting structure is a columnar body, and the cross-sectional shape of the columnar body is a large circular shape. Thus, the force point of the cutting transmission shaft 3.1 is formed.

[0208] The region around the transmission connecting part 3.21 of the cutting blade 3.2 is provided with the slicing part 3.22 and the slicing part 3.23 at intervals. The slicing part 3.22 and the slicing part 3.23 are punched at one time, and have a very simple structure and save materials.

[0209] In actual operation, the cutting blade 3.2 rotates around the rotating shaft of the cutting transmission shaft 3.1 to drive the slicing part 3.22 or the slicing part 3.23 to rotate to realize the cutting operation. The cutting edges of the slicing part 3.22 and the slicing part 3.23 have opposite rotating directions. Thus, under the rotation of the cutting transmission shaft 3.1, the rotation of the cutting blade 3.2 in one direction causes the slicing part 3.22 to act on the vegetables to form the sliced food materials, and the rotation of the cutting blade 3.2 in the other direction causes the slicing part 3.23 to act on the vegetables to form the sliced food materials. Only the rotating direction of the cutting blade 3.2 needs to be changed to realize the slicing / slicing operation of the vegetables, and the operation is very convenient.

[0210] In the preferred embodiment, the slicing part 3.22 and the slicing part 3.23 are arranged opposite to each other on the two sides of the transmission connecting part 3.21. In the embodiment, the arrangement relationship makes the spacing between the slicing part 3.22 and the slicing part 3.23 as large as possible, so that there is enough space for the vegetables to be cut, and the slicing part 3.22 and the slicing part 3.23 can be prevented from affecting each other.

[0211] In the further preferred embodiment, the slicing part 3.22 includes a transversely arranged strip-shaped slicing knife 3.221 and a slicing outlet 3.222 arranged below the cutting edge of the slicing knife 3.221. The sliced materials are directly output from the slicing outlet 3.222 after being cut by the cutting edge. The cutting edge of the slicing knife 3.221 has an extension direction corresponding to the radius of the cutting blade 3.2, so that the cutting edge of the cutting blade 3.2 directly cuts the food materials when the cutting blade 3.2 rotates, thereby improving the slicing efficiency.

[0212] In a further preferred embodiment, the shredding part 3.23 comprises a plurality of shredding members, each of which comprises a plurality of arc-shaped shredding knives 3.231 and a shredding outlet 3.232 below the arc-shaped shredding knives 3.231, in which the arc-shaped shredding knives 3.231 facilitate the obtaining of shredded food materials, which are then output through the shredding outlet 3.232.

[0213] In a further preferred embodiment, the plurality of shredding knives have the same rotation direction, so as to form shredded food materials with consistent shapes and arrangements.

[0214] In a further preferred embodiment, the shredding part 3.23 comprises two rows of shredding members, and the plurality of shredding knives of each row of shredding members are arranged along the same radial direction. In this embodiment, the arrangement is relatively space-saving.

[0215] In a preferred embodiment, please continue to refer to the accompanying drawings Figures 16-26 The meat cutting structure in the embodiment comprises a knife comb part 4.2 and a knife rest part 4.3 matched with the knife comb part 4.2, wherein:

[0216] The knife comb part 4.2 in the embodiment comprises two groups of comb tooth assemblies, each of which comprises a comb tooth shaft 4.21 and a row of comb teeth 4.22 slidably connected to the comb tooth shaft 4.21, and the two comb tooth shafts 4.21 are arranged on the clamping portions of the upper edges of the power input end plate, the knife stop plate 4.4 and the outer end plate 4.5.

[0217] Specifically, the clamping portion is composed of two groups of clamping hole assemblies, each of which comprises a first end clamping hole a, a second end clamping hole b and a knife stop plate clamping hole c. The two first end clamping holes a are arranged at intervals on the upper edge of the outer end plate 4.5, the two second end clamping holes b are arranged at intervals on the upper edge of the power input end plate, and the two knife stop plate clamping holes c are arranged on the upper edge of the knife stop plate 4.4.

[0218] The two ends of each comb tooth shaft 4.21 are arranged on the first end clamping hole a and the second end clamping hole b, respectively, and a middle portion is arranged on the knife stop plate clamping hole c. A row of comb teeth 4.22 on each comb tooth shaft 4.21 is arranged between the second end clamping hole b and the knife stop plate clamping hole c. The first end clamping hole a, the second end clamping hole b and the knife stop plate clamping hole c all have openings facing upwards for the comb tooth shaft 4.21 to pass through. In the embodiment, the bottom of the clamping hole has a limiting surface matching the outer contour of the comb tooth shaft 4.21, so as to prevent the comb tooth shaft 4.21 from shaking in the clamping hole.

[0219] The comb teeth 4.22 in the embodiment have consistent shapes and sizes, thereby unifying the guiding function of the knife comb and enhancing the stability of the guidance. Each comb tooth 4.22 comprises a connecting portion 4.221 and a guiding portion 4.222. The connecting portion 4.221 is provided with a through hole through which the comb tooth shaft 4.21 is slidingly connected with the connecting portion 4.221. The through hole has an inner contour that is adapted to the surface of the comb tooth shaft 4.21, so as to prevent the comb tooth shaft 4.21 from shaking in the through hole. The guiding portion 4.222 has a guiding surface with an inclination that gradually increases downward, so as to guide the food materials to move downward into the cutting area of the blade 4.32.

[0220] Meanwhile, since each comb tooth 4.22 is arranged between two blades 4.32, the position of each comb tooth 4.22 needs to be adjusted synchronously each time the distance between the blades 4.32 is adjusted, so as to continue to maintain one comb tooth 4.22 between each two adjacent blades 4.32 to guide the food materials to move downward. In the embodiment, the comb teeth 4.22 are slidingly connected to the comb tooth shaft 4.21, which is convenient for adjustment.

[0221] The knife rack portion 4.3 in the embodiment comprises two groups of knife rack assemblies. Each group of knife rack assemblies comprises a knife rack shaft 4.31 and a row of blades 4.32 slidingly connected to the knife rack shaft 4.31. Each comb tooth 4.22 is arranged between two adjacent blades 4.32. One end of the knife rack shaft 4.31 is axially rotatably connected to the power input end plate, and the other end is hingedly connected to the outer end plate 4.5. All the blades 4.32 in the embodiment are circular blades with consistent shapes and sizes, so as to form a reasonable cutting area and enhance the stability of the cutting, and also save the cost of preparing the blades. Moreover, the two groups of blades 4.32 between the two groups of knife rack assemblies are staggered along the axial direction of the knife rack shaft 4.31, so as to form an efficient cutting area.

[0222] Please refer to the accompanying drawings Figures 16-17 24-25. The gear box in the embodiment comprises a gear transmission shaft 4.11, a gear set 4.12, an output portion 4.13, and a first sealing ring 4.14 and a second sealing ring 4.15 for sealing.

[0223] The gear transmission shaft 4.11 transmits the input power through the spline;

[0224] The gear set 4.12 comprises a first meat cutting transmission gear 4.121 and a second meat cutting transmission gear 4.122. The first meat cutting transmission gear 4.121 is in transmission connection with the gear transmission shaft 4.11 and rotates coaxially with the gear transmission shaft 4.11. The second meat cutting transmission gear 4.122 is in transmission connection with the first meat cutting transmission gear 4.121 and rotates oppositely.

[0225] The output part 4.13 is arranged on the power input end plate, and the output part 4.13 comprises two sub-output parts 4.131 which are in transmission connection with the first meat cutting transmission gear 4.121 and the second meat cutting transmission gear 4.122 respectively and rotate synchronously.

[0226] In the preferred embodiment, the cutter baffle 4.4 is slidably connected to the knife rest shaft 4.31, and the working area of the two rows of blades 4.32 is formed between the cutter baffle 4.4 and the power input end plate.

[0227] The position of the cutter baffle 4.4 on the knife rest shaft 4.31 is adjusted by the baffle adjusting part 4.6. In the embodiment, the baffle adjusting part 4.6 comprises an adjusting screw 4.61 and an adjusting knob 4.62 for driving the adjusting screw 4.61 to rotate. The adjusting screw 4.61 is screwed into the adjusting screw hole 4.51 formed in the middle of the outer end plate 4.5. One end of the adjusting screw 4.61 located inside the outer end plate 4.5 abuts against the cutter baffle 4.4, and the other end located outside the outer end plate 4.5 is connected to the adjusting knob 4.62. Moreover, the abutting position of the adjusting screw 4.61 and the cutter baffle 4.4 is located between the two knife rest shafts 4.31, so that the compression force is uniformly applied to the cutter baffle 4.4.

[0228] In the technical solution of the embodiment, the combs 4.22 on the comb assembly can slide on the comb shaft 4.21, so as to adjust the distance between the combs 4.22 and the total width of each row of combs 4.22. The total distance of the plurality of blades 4.32 on the knife rest assembly can also be adjusted, and after adjustment, the position is fixed by the baffle adjusting part 4.6. When positioning, the adjusting knob 4.62 is first rotated, and the adjusting screw 4.61 is adjusted by the screwing structure to push the cutter baffle 4.4 to different positions of the knife rest shaft 4.31, so as to obtain different distances between the blades and the distance between the combs 4.22, which adapts to different cutting requirements of the knife rest.

[0229] Meanwhile, the comb shaft 4.21 is arranged on the plurality of clamping holes with openings, so as to facilitate the disassembly and assembly of the knife comb part 4.2.

[0230] For the assembly structure of the knife comb part 4.2:

[0231] In the preferred embodiment, the openings of the first end clamping hole a and the second end clamping hole b are provided with the limiting cover d which partially covers the openings. The limiting covers d arranged at both ends are used to form the limiting structure of both ends of the comb shaft 4.21 from above, so as to prevent the comb shaft 4.21 from moving upward.

[0232] Further preferably, in the embodiment, the covering position of the limiting cover d on the opening of the first end cap a is on the side of the opening away from the second end cap b, and the covering position of the limiting cover d on the opening of the second end cap b is on the side of the opening away from the first end cap a. In this embodiment, the limiting cover d is arranged as far as possible to the two ends to leave a relatively wide space and does not hinder the assembly of the comb shaft 4.21.

[0233] For the assembly structure of the cutter 4.3:

[0234] In the preferred embodiment, please refer to the accompanying drawings Figure 22 And 23 The two adjacent blades 4.32 are provided with a variable-distance elastic piece 4.33, wherein:

[0235] The variable-distance elastic piece 4.33 is provided with a variable-distance connecting through hole 4.331 slidingly connected to the cutter shaft 4.31, and is further provided with a variable-distance part 4.332 having an elastic expansion distance in the axial direction of the cutter shaft 4.31. Specifically, the variable-distance part 4.332 includes two partial elastic pieces partially spaced apart, the two partial elastic pieces have end portions connected together and a variable-distance interval 4.332b spaced apart, and the partial elastic piece further has a stress surface 4.332a abutting against the adjacent blade 4.32, and the two stress surfaces 4.332a on the same variable-distance part 4.332 are spaced apart to form the variable-distance interval 4.332b.

[0236] Each stress surface 4.332a is connected to the adjacent end portion through a rebound slope 4.332c. When the stress surface 4.332a is subjected to pressure, the rebound slope 4.332c deforms and makes the stress surface 4.332a have a rebound force in the opposite direction of the pressure. The rebound force makes the stress surface 4.332a tightly press against the blade 4.32, preventing the loose deformation of each blade 3.32 and being not conducive to cutting.

[0237] In the above technical solution, the variable-distance elastic piece 4.33 not only adjusts the total distance of the plurality of blades 4.32 through the compression degree of the cutter baffle 4.4, but also adjusts the distance between the adjacent blades 4.32. When the compression degree of the cutter baffle 4.4 is large, the variable-distance part 4.332 is compressed, and the total distance of each row of blades 4.32 and the distance between the adjacent blades 4.32 are both reduced. When the compression degree of the cutter baffle 4.4 is small, the variable-distance part 4.332 restores the deformation under the action of its own elasticity, and the total distance of each row of blades 4.32 and the distance between the adjacent blades 4.32 are both increased.

[0238] In one example, the variable distance elastic sheet 4.33 is connected by two elastic ring sheets, and the two elastic ring sheets have three connecting portions therebetween, and the two adjacent connecting portions form the variable distance portion 4.332 described above. This structure is relatively simple, and is easy to produce the variable distance elastic sheet 4.33 product. At the same time, the three connecting portions form a limiting structure for the inner diameter of the variable distance connecting through hole 4.331. That is, in this embodiment, when the force receiving surface 4.332a is compressed under force, the variable distance connecting through hole 4.331 will not expand accordingly. When the force receiving surface 4.332a is reduced in force, and the variable distance interval 4.332b is widened, the variable distance connecting through hole 4.331 will not be reduced accordingly. Thus, the variable distance elastic sheet 4.33 is always sleeved on the knife rest shaft 4.31 and cannot loosen / shake in the radial direction.

[0239] In a preferred embodiment, in the gear box structure, the gear transmission shaft 4.11 is rotatably and sealingly connected to the shell of the gear box through the first sealing ring 4.14, and the two sub-output portions 4.131 are rotatably and sealingly connected to the shell of the gear box through the second sealing ring 4.15.

[0240] In the technical solution of this embodiment, the output portion 4.13 of the gear box rotates the knife rest to cut food materials under the driving of the gear transmission structure. The lubricating oil, as an essential component, is sealed in the shell of the gear box by the first sealing ring 4.14 and the second sealing ring 4.15, and cannot overflow and contaminate the food materials.

[0241] In a preferred embodiment, please continue to refer to Figure 25 In order to facilitate disassembly, the shell of the above embodiment comprises a gear box shaft sleeve 4.16, a gear box body 4.17, and a gear box cover 4.18 connected in sequence, wherein:

[0242] The gear box shaft sleeve 4.16 is sleeved on the outer circumferential portion of the gear transmission shaft 4.11, the first sealing ring 4.14 is arranged at the end plate 4.161 of the gear box shaft sleeve 4.16, the gear box cover 4.18 is the aforementioned power input end plate, and the two second sealing rings 4.15 are arranged on the gear box cover 4.18;

[0243] The gear set 4.12 is arranged in the space formed by the gear box body 4.17 and the gear box cover 4.18, and the gear box body 4.17 and the gear box cover 4.18 are sealingly connected by the third sealing ring 4.19.

[0244] In the technical solution of this embodiment, the third sealing ring 4.19 needs to be additionally arranged between the gear box body 4.17 and the gear box cover 4.18 to further prevent the oil from overflowing and contaminating the food materials.

[0245] In a preferred embodiment, please continue to refer to Figure 25The middle part of the first sealing ring 4.14 is provided with a first sealing through hole 4.141 for the gear transmission shaft 4.11 to pass through, and the outer periphery of the first sealing ring 4.14 is provided with a first sealing clamping groove 4.142 in a ring shape, which is clamped with the end plate of the gear box shaft sleeve 4.16.

[0246] The first sealing ring 4.14 in the embodiment not only ensures that the gear transmission shaft 4.11 can pass through, but also enhances the sealing effect through the first sealing clamping groove 4.142.

[0247] In the preferred embodiment, the second sealing ring 4.15 includes a hard stress receiving part 4.151 and a soft sealing part 4.152 surrounding the stress receiving part 4.151, wherein:

[0248] One end of the stress receiving part 4.151 receives power transmitted by the first meat cutting transmission gear 4.121 or the second meat cutting transmission gear 4.122, and the other end outputs the power;

[0249] The outer periphery of the sealing part 4.152 is provided with a second sealing clamping groove 4.153 in a ring shape, which is clamped with the cover body on the gear box cover 4.18;

[0250] In the technical solution of the embodiment, the second sealing ring 4.15 is a double-material injection molding part, which is double-material injection molded by the hard material of the stress receiving part 4.151 and the soft material of the sealing part 4.152. The hard material is selected from a cylindrical part made of PP or PS, and the soft material is a ring-shaped part supported by TPE. The stress receiving part 4.151 of the second sealing ring 4.15 is used to bear the force, so it needs to be made of hard material. The sealing part 4.152 realizes lubrication and sealing, so it needs to be made of soft material.

[0251] In the embodiment, one end of the stress receiving part 4.151 of the second sealing ring 4.15, which receives power, is a protruding clamping table, and the other end, which outputs power, is a recessed clamping blind hole. The other end, which outputs power, is the sub-output part 4.131 as described in the above embodiment.

[0252] In the technical solution of the embodiment, the gear set 4.12 transmits rotation to the second sealing ring 4.15 through the conducting part 4.10. After long-term use and wear, the conducting part 4.10 is easy to replace, without the need to frequently replace the second sealing ring 4.15.

[0253] Please continue to refer to the accompanying Figures 27-29In the preferred embodiment, the inside of the chopping container 5.1 is provided with a cylindrical chopping inner side wall 5.12, which has an inner contour surrounding the chopping range of the chopping head 5.4. In this embodiment, the cylindrical chopping inner side wall 5.12 can avoid the generation of dead angles, so that the food materials are located in the range of the action of the chopping blade 5.42 as much as possible, and the retention of the food materials is avoided.

[0254] In the preferred embodiment, the chopping head 5.4 comprises a connecting sleeve 5.41 and a plurality of chopping blades 5.42 arranged on the outer wall of the connecting sleeve 5.41.

[0255] The connecting sleeve 5.41 has a gradually expanding sleeve diameter, which gradually expands in the direction of the assembly of the connecting sleeve 5.41 to the chopping transmission shaft 5.3. Meanwhile, one end of the chopping transmission shaft 5.3 is provided with a gradually expanding head guide portion 5.31, which gradually expands in the direction of the assembly of the connecting sleeve 5.41 to the chopping transmission shaft 5.3.

[0256] In the technical solution of the embodiment, the connecting sleeve 5.41 enables the chopping head 5.4 to be firmly sleeved on the chopping transmission shaft 5.3, and the head guide portion 5.31 of the chopping transmission shaft 5.3 adapted to the connecting sleeve 5.41 facilitates the positioning during the installation of the head.

[0257] In the preferred embodiment, the plurality of chopping blades 5.42 are arranged on the outer wall of the connecting sleeve 5.41 in the circumferential and axial directions, and the chopping blades 5.42 extend outward from the outer wall of the connecting sleeve 5.41 and have arc-shaped cutting edges 5.421 protruding in the direction of rotation.

[0258] In the technical solution of the embodiment, the arrangement of the plurality of chopping blades 5.42 facilitates sufficient chopping, and the arc-shaped cutting edges 5.421 can improve the chopping effect.

[0259] In the further preferred embodiment, the arc-shaped cutting edges 5.421 have an upward cutting position relative to the back ridges 5.422 thereof, which can adapt to the falling food materials and further improve the chopping effect.

[0260] In the description of the present specification, the description of the terms "embodiment", "basic embodiment", "preferred embodiment", "other embodiment", "example", "specific example", or "some examples" means that the specific features, structures, materials or characteristics described in combination with the embodiment or example are included in at least one embodiment or example of the present application. In the present specification, the illustrative description of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.

[0261] While the preferred embodiments of the application have been described, those skilled in the art will recognize that the application can be practiced with modification and alteration within the spirit and scope of the application. Accordingly, the description is to be regarded as illustrative instead of limiting on the scope of the application.

[0262] Obviously, many modifications and variations of the present application are possible in light of the above teachings. It is, therefore, to be understood that within the scope of the appended claims and their equivalents, the application can be practiced otherwise than as specifically described.

Claims

1. A multi-functional cutting and processing machine, characterized in that, It includes a power platform (1) and a vegetable cutting module (3), a meat cutting module (4) and a grinding module (5) respectively assembled with the power platform (1); The power platform (1) includes a transmission structure and assembly components that cooperate with it; The transmission structure includes a dual-output motor (1.1), comprising a first output (1.11) and a coupling output (1.12); A variable phase coupling (1.2) that provides power to the coupling output section (1.12), the variable phase coupling (1.2) including a second output section (1.21) and a third output section (1.22); The bottom of the vegetable cutting module (3) is provided with the input port of the second output part (1.21), and the inside is provided with a vegetable cutting structure connected to the second output part (1.21); The meat cutting module (4) includes a meat cutting structure. The meat cutting module (4) is connected to the third output unit (1.22) through the gear transmission shaft (4.11) on the gearbox, thereby transmitting the power input by the third output unit (1.22) to the meat cutting structure. The pulverizing module (5) includes a pulverizing container (5.1) that provides pulverizing operation space and a pulverizing drive shaft (5.3), one end of which is connected to the first output unit (1.11).

2. The cutting and processing machine according to claim 1, characterized in that: The assembly component is disposed on the upper housing (1.3), and the assembly component includes: A snap-fit ​​boss (1.31) is provided on which a first through hole (1.311) is provided to expose the first output part (1.11); The snap-fit ​​groove (1.32) has an open outer end and a third through hole (1.321) at its inner end, which exposes the third output part (1.22). The snap-fit ​​boss (1.31) is located above the snap-fit ​​groove (1.32); An assembly gap (1.33) is provided between the inner ends of the snap-fit ​​boss (1.31) and the snap-fit ​​groove (1.32), and the assembly gap (1.33) has a second through hole (1.331) that exposes the second output part (1.21).

3. The cutting and processing machine according to claim 2, characterized in that: The rotational speed corresponding to the first output unit (1.11) is greater than the rotational speed corresponding to the second output unit (1.21), and the rotational speed corresponding to the second output unit (1.21) is greater than the rotational speed corresponding to the third output unit (1.22). The snap-fit ​​boss (1.31) has a length direction extending in a first direction, and the snap-fit ​​groove (1.32) has a length direction extending in a second direction, the first direction and the second direction intersecting each other.

4. The cutting and processing machine according to claim 1, characterized in that: The first output unit (1.11) outputs vertically upward, the second output unit (1.21) outputs vertically upward, and the third output unit (1.22) outputs horizontally. The opening direction of the first through hole (1.311) is vertically upward, the opening direction of the third through hole (1.321) is horizontal, and the opening direction of the second through hole (1.331) is vertically upward.

5. The cutting and processing machine according to claim 3, characterized in that: It also includes a support structure that can be used for both platform and trough applications, the support structure comprising: The upper housing (1.3) is internally covered with the transmission structure; The lower housing (1.4) is used to support the upper housing (1.3) and the positioning handle (1.5) and forms a placement space (1.41) for placing containers, the placement space (1.41) being located below the upper housing (1.3); The positioning handle (1.5) is telescopically disposed between the upper housing (1.3) and the lower housing (1.4), and achieves positioning in a hidden state and a locked state through a positioning structure; The support structure (1.6) includes a retractable support plate (1.61) disposed at the lower end of the lower housing (1.4). When the support plate (1.61) is extended, it is exposed below the placement space (1.41) and when it is retracted, it is hidden at the lower end face of the lower housing (1.4).

6. The cutting and processing machine according to claim 5, characterized in that: The positioning structure includes a positioning buckle (1.51) and a group of positioning holes (1.52); The positioning hole group (1.52) includes a plurality of positioning holes, which are spaced apart on the side arm (1.54) of the positioning handle (1.5) along the extension and retraction direction of the positioning handle (1.5). The positioning buckle (1.51) is inserted into the corresponding positioning hole to achieve positioning.

7. The cutting and processing machine according to claim 6, characterized in that: The positioning hole group (1.52) consists of a hidden positioning hole (1.521) and a locking positioning hole (1.522); The hidden positioning hole (1.521) is located near the end of the positioning handle (1.5) that is engaged with the water tank; The positioning hole (1.522) is located at the end of the water tank away from the positioning handle (1.5).

8. The cutting and processing machine according to claim 7, characterized in that: When in the locking position, the width of the power platform in the telescopic direction of the positioning handle (1.5) is adapted to a span within the water tank.

9. The cutting and processing machine according to claim 5, characterized in that: The support plate (1.61) is provided with slide rails (1.62) extending along its extension direction on both sides, and the support plate (1.61) moves along the slide rails (1.62).

10. The cutting and processing machine according to claim 9, characterized in that: The slide rail (1.62) is provided with a first stop (1.63), which restricts the extension range of the support baffle (1.61) and causes the support baffle (1.61) to be at least partially located at the lower end face of the lower housing (1.4) when restricted.

11. The cutting and processing machine according to claim 10, characterized in that: The support plate (1.61) is provided with a second stop (1.64) on the side where the first stop (1.63) is located. The first stop (1.63) restricts the extension range of the support plate (1.61) by abutting against the second stop (1.64).

12. The cutting and processing machine according to claim 3, characterized in that: It also includes an extrusion module (2) for use in conjunction with the power platform (1); The extrusion module (2) includes a stirring rod (2.6), which is driven to the second output unit (1.21); the extrusion module (2) also includes an extrusion screw (2.1) disposed in the extrusion channel below the dough container (2.5), the extrusion channel is connected to the snap-fit ​​groove (1.32), and the driving end (2.11) of the extrusion screw (2.1) is driven to the third output unit (1.22).

13. The cutting and processing machine according to claim 12, characterized in that: The extrusion module (2) includes a water tank (2.8), a dough mixing structure, and a dough extrusion structure; the dough mixing structure includes a mixing rod (2.6), which is one of the components of the dough mixing structure.

14. The cutting and processing machine according to claim 3, characterized in that: The vegetable cutting module (2) includes: The vegetable cutting container (3.3) has an input port of the second output part (1.21) located at the bottom of the vegetable cutting container (3.3), and the vegetable cutting structure is located inside the vegetable cutting container (3.3). A cutting cover (3.4) is provided on the upper opening of the cutting container (3.3), and a first food inlet (3.41) is provided on the cutting cover (3.4); The guide component (3.5) is connected at the lower end to the first food inlet (3.41) and has a second food inlet (3.51) at the upper end; The pressing component (3.6) is separately provided from the guiding component (3.5) and can be sleeved inside the guiding component (3.5). The pressing component (3.6) has a pressing surface (3.61) that presses downward.

15. The cutting and processing machine according to claim 3, characterized in that: The meat cutting module (4) is connected to the snap-fit ​​groove (1.32).

16. The cutting and processing machine according to claim 15, characterized in that: The meat cutting module (4) includes a meat cutting container (4.7) and a meat cutting ingredient inlet (4.8) disposed on the upper part of the meat cutting container (4.7). The meat cutting structure is disposed inside the meat cutting container (4.7).

17. The cutting and processing machine according to claim 3, characterized in that: The lower end of the pulverizing container (5.1) is provided with a pulverizing slot (5.11), which is engaged with the engaging boss (1.31).

18. The cutting and processing machine according to claim 17, characterized in that: The grinding module (5) further includes a grinding cover (5.2) covering the grinding container (5.1) and a grinding blade (5.4) sleeved on the grinding drive shaft (5.3). The grinding drive shaft (5.3) is disposed in the space formed by the grinding container (5.1) and the grinding cover (5.2). The other end of the grinding drive shaft (5.3) is hinged to the grinding cover (5.2). The grinding blade (5.4) rotates with the rotation of the grinding drive shaft (5.3) and is used to grind the ingredients.

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