A multifunctional cutting machine

Abstract

A multifunctional cutting and preparing machine belongs to the technical field of household appliances. The cutting and preparing machine includes a power platform and a noodle extrusion module, a vegetable cutting module, a meat cutting module and a chopping module respectively assembled with the power platform; the power platform includes a transmission structure and assembly parts matched therewith; the transmission structure includes a first output part, a second output part and a third output part; the assembly parts include a snap-in boss, a snap-in groove and an assembly interval; the noodle extrusion module is drivingly connected to the second output part and the third output part; the bottom of the vegetable cutting module is drivingly connected to the second output part; the meat cutting module is drivingly connected to the third output part; and the chopping module is drivingly connected to the first output part. The present invention integrates the output parts of three levels of rotation speed, provides an operating basis for food preparation operations such as chopping, dough kneading and noodle extrusion, vegetable cutting, and meat cutting, and has a reasonable assembly integration layout.

Description

Technical Field

[0001] The invention belongs to the technical field of household appliances, and in particular relates to a multifunctional cutting and preparing machine. Background Art

[0002] As people's living standards improve, busy work is also inevitable. In order to save operating time in the cooking and preparation stages, various food preparation equipment has emerged. However, for Chinese cooking, the food preparation links are even more diverse, which requires the equipment for side dishes to integrate various functions. However, the requirements of various functions for the power output speed are different. For example, the crushing operation has a relatively high requirement for the power output speed, while the noodle extrusion operation has a relatively low requirement for the power output speed. Therefore, the food preparation equipment urgently needs to provide a transmission structure that integrates power outputs with multiple levels of speed.

[0003] At the same time, designing a reasonable assembly integration layout is also a technical problem that technicians urgently need to solve. Summary of the invention

[0004] To solve the above technical problems, the present application further improves the transmission-related structure of the power platform, the assembly component structure, and the assembly method of each functional module, so as to be able to simultaneously adapt to the assembly of multiple functional modules. The purpose of the present invention is to provide a multifunctional cutting and matching machine.

[0005] The specific technical solution is described below:

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

[0007] The power platform includes a transmission structure and assembly components matched therewith;

[0008] The transmission structure comprises:

[0009] A dual-output motor, comprising a first output and a coupling output; and a phase-changing coupling for providing power with the coupling output, wherein the phase-changing coupling comprises a second output and a third output;

[0010] The assembly component is arranged on the upper housing, and the assembly component includes a clamping boss, on which a first through hole is provided to expose the first output part; and a clamping groove, the outer end of which is an opening, and the inner end of which is provided with a third through hole to expose the third output part;

[0011] The clamping boss is located above the clamping groove;

[0012] An assembly interval is provided between the clamping boss and the inner end of the clamping groove, and the assembly interval is provided with a second through hole for exposing the second output part;

[0013] The bottom of the vegetable cutting module is provided with an input port of the second output part, and a vegetable cutting structure connected to the second output part is provided inside;

[0014] The meat cutting module includes a meat cutting container, a meat cutting material introduction member disposed on the upper part of the meat cutting container and a meat cutting structure disposed in the meat cutting container. The meat cutting module is connected to the clamping groove and is linked to the third output part through the gear transmission shaft on the gear box, thereby transmitting the power input by the third output part to the meat cutting structure.

[0015] The crushing module includes a crushing container providing a crushing operation space, a crushing cover body covered on the crushing container, a crushing transmission shaft arranged in the space formed by the crushing container and the crushing cover body, and a crushing blade head sleeved on the crushing transmission shaft, one end of the crushing transmission shaft is transmission-connected to the first output part, and the other end is hinged to the crushing cover body; the crushing blade head rotates with the rotation of the stirring transmission shaft to crush the food; a crushing slot is arranged at the lower end of the crushing container, and the crushing slot is clamped with the clamping boss.

[0016] Preferably, the rotation speed corresponding to the first output part is greater than the rotation speed corresponding to the second output part, and the rotation speed corresponding to the second output part is greater than the rotation speed corresponding to the third output part;

[0017] The clamping protrusion 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.

[0018] 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;

[0019] 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.

[0020] 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 in the middle area of ​​the inner end;

[0021] The arrangement positions and orientations of the first through hole, the second through hole, and the third through hole are used to adapt to the output position and output direction of the transmission structure.

[0022] Preferably, the coupling output part obtains the output direction of the second output part and the third output part through a bevel gear connection structure, and adjusts the rotational speeds corresponding to the second output part and the third output part respectively.

[0023] Preferably, it also includes a dual-purpose support structure for the table and the slot, and the support structure includes:

[0024] The upper shell has an assembly structure for the food preparation module formed on the surface and a transmission structure for power output wrapped inside;

[0025] A lower shell body, used to carry the upper shell body and the positioning handle, and formed with a placement space for placing containers, the placement space being located below the upper shell body;

[0026] The positioning handle is telescopically arranged between the upper shell and the lower shell, and realizes the positioning in the hidden state and the locked state through the positioning structure;

[0027] The support structure includes a retractable support plate arranged at the lower end of the lower shell body. The support plate is exposed below the placement space when extended and is hidden at the lower end surface of the lower shell body when retracted.

[0028] Preferably, the positioning structure includes a positioning buckle and a positioning hole group;

[0029] The positioning hole group includes a plurality of positioning holes, and the plurality of positioning holes are arranged on the side wall of the positioning handle at intervals along the extension and retraction direction of the positioning handle, and the positioning buckles are inserted into the corresponding positioning holes to achieve positioning.

[0030] Preferably, the positioning hole group is composed of hidden positioning holes and locking positioning holes;

[0031] The hidden positioning hole is arranged near the end of the positioning handle that is clipped to the sink;

[0032] The positioning hole is arranged at an end away from the positioning handle that is connected to the water tank.

[0033] Preferably, the positioning buckle is positioned by adjusting the through hole and then inserting it into the corresponding positioning hole.

[0034] Preferably, the adjustment through hole is partially opened on the upper shell and partially opened on the lower shell, and the upper shell and the lower shell are assembled to form the adjustment through hole.

[0035] Preferably, when in the locked state, the width of the power platform in the extension and retraction direction of the positioning handle is adapted to a span in the water tank.

[0036] Preferably, the feature is that when in the hidden state, the inner contour of the positioning handle fits snugly on the power platform.

[0037] Preferably, slide rails extending along the telescopic direction of the support plate are arranged on both sides of the support plate, and the support plate performs telescopic movement along the slide rails.

[0038] Preferably, a first stopper is provided in the slide rail, and the first stopper limits the extension range of the support plate and enables the support plate to be at least partially located at the lower end surface of the lower shell when being restricted.

[0039] Further preferably, a second stopper is provided on the side of the support plate where the first stopper is located, and the first stopper limits the extension range of the support plate by abutting against the second stopper.

[0040] Preferably, when the support plate is extended to its maximum extent and placed on the platform, the center of gravity of the cutting and preparing machine power platform is projected onto the support plate in the vertical direction.

[0041] Preferably, it also includes a noodle extrusion module assembled and used with the power platform;

[0042] The noodle extrusion module includes a water tank, a noodle stirring structure and a noodle extrusion structure; the noodle stirring structure includes a stirring rod, which is drivingly connected to the second output part; the noodle extrusion structure includes a noodle extrusion screw arranged in a noodle extrusion channel below the noodle kneading container, the noodle extrusion channel is connected to the clamping groove, and the driving end of the noodle extrusion screw is drivingly connected to the third output part.

[0043] In summary, the technical solution of the present invention has the following main beneficial effects:

[0044] Compared with the prior art, the present invention integrates the output parts of three levels of rotational speed, providing an operational basis for food preparation operations such as crushing, kneading and extruding noodles, cutting vegetables, and cutting meat. The assembly components provide a variety of assembly structures to adapt to the integrated settings of different assembly modules, and have a reasonable assembly integration layout.

[0045] At the same time, the technical solution of the present invention saves the space of the kitchen countertop by placing a space to accommodate a bowl or a basin, and supports the power platform through the support plate extending from the support structure, so that the power platform is placed more stably;

[0046] In addition, the positioning handle can be hidden or locked depending on whether you need to work in the sink. When in the hidden state, it does not take up extra space; when in the locked state, it can fix the position of the power platform in the sink to prevent it from moving. At the same time, the positioning handle itself also makes it easier to transfer the position of the power platform.

[0047] Further or more detailed beneficial effects will be described in detail in conjunction with specific examples in the specific implementation manner. BRIEF DESCRIPTION OF THE DRAWINGS

[0048] Figure 1 is a schematic diagram of the structure of the power platform described in the embodiment;

[0049] Figure 2 is a schematic diagram of the internal parts structure of the power platform described in the embodiment;

[0050] Figure 3 is a schematic diagram of the supporting structure of the power platform described in the embodiment;

[0051] Figure 4 It is a schematic diagram of the structure in which the power platform described in the embodiment is placed in the water tank and on the platform;

[0052] Figure 5 is a schematic structural diagram of the noodle extrusion module described in the embodiment;

[0053] Figure 6 is a schematic diagram of the internal decomposition structure of the noodle extrusion module described in the embodiment;

[0054] Figure 7 is a schematic structural diagram of a stirring rod in a noodle extrusion module according to an embodiment;

[0055] Figure 8 is a schematic diagram of the assembly structure of the water tank described in the embodiment from another angle;

[0056] Fig. 9 Schematic diagram of the structure of a cutting and preparing machine equipped with a noodle extrusion module in an embodiment;

[0057] Fig.10 is a structural schematic diagram of the vegetable cutting module described in the embodiment;

[0058] Fig.11 is a schematic diagram of the internal decomposition structure of the vegetable cutting module according to the embodiment;

[0059] Fig.12 is a schematic structural diagram of a vegetable cutting knife disc according to an embodiment;

[0060] Fig.13 is an enlarged structural schematic diagram of the slicing portion described in the embodiment;

[0061] Fig.14 is an enlarged structural schematic diagram of the slicing portion described in the embodiment;

[0062] Fig.15 is a schematic structural diagram of a vegetable cutting and preparing machine equipped with a vegetable cutting module in an embodiment;

[0063] Fig.16 is a schematic structural diagram of a meat cutting module according to an embodiment;

[0064] Fig.17 is a schematic diagram of the internal decomposition structure of the meat cutting module according to the embodiment;

[0065] Fig.18 2 is a schematic structural diagram of the knife comb portion described in the embodiment;

[0066] Fig.19 1 is a schematic structural diagram of the knife and fork portion described in the embodiment;

[0067] Fig. 20 is a schematic diagram of the top view of the knife and fork portion described in the embodiment;

[0068] Fig.21 It is a schematic structural diagram of the knife comb part and the knife fork part combined together according to the embodiment;

[0069] Fig. 22 is a schematic structural diagram of the elastic pitch-variable piece described in the embodiment;

[0070] Fig.23 is a schematic side view of the elastic pitch-variable piece described in the embodiment;

[0071] Fig.24 is a schematic diagram of the gear box structure described in the embodiment;

[0072] Fig.25 is a schematic diagram of a side cross-sectional structure of a gearbox structure described in an embodiment;

[0073] Fig.26 Schematic diagram of the structure of a meat cutting and preparing machine equipped with a meat cutting module in an embodiment;

[0074] Fig. 27 2 is a schematic diagram of the structure of the crushing module described in the embodiment;

[0075] Fig.28 is a schematic diagram of the structure decomposition of the crushing module described in the embodiment;

[0076] Fig.29 Schematic diagram of the structure of a cutting and preparing machine equipped with a crushing module in an embodiment.

[0077] Reference numerals:

[0078] 1: power platform; 1.1: dual output motor, 1.11: first output, 1.12: coupling output, 1.2: phase-changing coupling, 1.21: second output, 1.22: third output; 1.3: upper housing, 1.31: snap-fit ​​boss, 1.311: first through hole, 1.32: snap-fit ​​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: positioning hole, 1.53: handle part, 1.54: side arm, 1.541: counterweight part; 1.6: supporting structure, 1.61: supporting plate, 1.62: slide rail, 1.63: first stopper, 1.64: second stopper;

[0079] 2: noodle extrusion module; 2.1: noodle extrusion screw, 2.11: driving end, 2.12: extrusion end; 2.2: noodle extrusion cover, 2.21: noodle extrusion outlet, 2.22: first limiting ring, 2.23: first tubular member; 2.3: noodle extrusion fixing member, 2.31: outer cover through hole, 2.32: second limiting ring, 2.33: second tubular member; 2.4: noodle extrusion die; 2.5: noodle kneading container; 2.6: stirring rod; 2.61: rod body, 2.62: driving connection part, 2.63: follower connection part; 2.6 4: 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 return block, 2.662: third guide side, 2.663: fourth guide side; 2.67: dough squeezing area; 2.7: dough cover, 2.71: water tank slot, 2.72: dough 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;

[0080] 3: vegetable cutting module; 3.1: vegetable cutting transmission shaft, 3.2: vegetable 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: vegetable cutting container, 3.4: vegetable cutting cover, 3.41: first food inlet, 3.5: food guide, 3.51: second food inlet, 3.6: material pressing part, 3.61: material pressing surface;

[0081] 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 slot, 4.15: second sealing ring, 4.151: force bearing part, 4.152: sealing part, 4.153: second sealing slot, 4.16: gear box 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: comb part, 4.21: comb tooth shaft , 4.22: comb teeth, 4.221: connecting part, 4.222: guiding part; 4.3: knife part, 4.31: knife shaft, 4.32: blade, 4.33: elastic variable pitch sheet, 4.331: variable pitch connecting through hole, 4.332: variable pitch part, 4.332a: force surface, 4.332b: variable pitch interval, 4.332c: rebound slope; 4.4: knife baffle; 4.5: outer end plate, 4.51: adjusting screw hole; 4.6: baffle adjusting part, 4.61: adjusting screw, 4.62: adjusting knob; 4.7: meat cutting container; 4.8: meat cutting food introduction part; a: first end sealing bayonet, b: second end sealing bayonet, c: knife baffle bayonet, d: limit cover;

[0082] 5: crushing module; 5.1: crushing container, 5.11: crushing slot, 5.12: crushing inner wall; 5.2: crushing cover, 5.21: third portable convex strip; 5.3: crushing transmission shaft, 5.31: blade guide; 5.4: crushing blade, 5.41: connecting sleeve, 5.42: crushing blade, 5.421: curved blade, 5.422: blade spine. DETAILED DESCRIPTION

[0083] The present invention is further explained with reference to the following embodiments:

[0084] The core technical problem faced by the technical solution of the embodiment of the present application comes from the inventor's accurate understanding of the prior art. Therefore, how to provide a cutting and matching machine that can assemble various modules with different functions onto a power platform is a technical problem that the inventor urgently needs to solve.

[0085] It should be noted that the embodiments do not constitute a limitation on the protection scope of the claims of the present invention. According to the technical concepts provided / proven by the embodiments, all technical solutions that can be reasonably anticipated by technicians in the relevant technical field should be included in the protection scope of the claims of the present invention.

[0086] The embodiments are described in detail as follows:

[0087] Please refer to the attached Figures 1 to 6, 9-11, 15-17, 26-29, this embodiment relates to a multifunctional cutting and preparing machine, which includes a power platform 1 and a noodle extrusion module 2, a vegetable cutting module 3, a meat cutting module 4 and a chopping module 5 respectively assembled with the power platform 1 for use;

[0088] in:

[0089] The power platform includes a transmission structure and an assembly component that matches it. The assembly component is arranged on the upper shell 1.3, and specifically includes a snap-in boss 1.31 and a snap-in groove 1.32, wherein the length extension direction of the snap-in boss 1.31 is perpendicular to the length extension direction of the snap-in groove 1.32, so as to integrate the two into a rectangular component as much as possible. At the same time, the snap-in boss 1.31 is arranged above the snap-in groove 1.32 to stagger the two in the vertical direction, so that the layout is more suitable for the transmission structure and it is also more convenient to assemble the cutting module.

[0090] Specifically, a first through hole 1.311 is formed on the clamping boss 1.31 to expose the first output portion 1.11. The first through hole 1.311 is disposed at one end of the clamping boss 1.31 extending along the length direction and the opening direction is vertically upward.

[0091] The outer end of the clamping groove 1.32 is an 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 in the middle area of ​​the inner end and the opening direction is arranged horizontally.

[0092] The technical solution of this embodiment provides two assembly structures to adapt to the integrated settings of different assembly modules:

[0093] The clamping boss 1.31 provides a first assembly basis, and the cutting and matching module can be clamped and assembled with it through the groove provided below, and the first output part 1.11 is used as power to drive the corresponding cutting and matching operation;

[0094] The clamping groove 1.32 provides a second assembly basis, and the cutting and matching module can be clamped and assembled with it through a strip-shaped clamping tenon arranged on the side or below, and the third output part 1.22 is used as power to drive the corresponding cutting and matching operation;

[0095] The arrangement positions and orientations 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.

[0096] In this embodiment, an assembly space 1.33 is provided between the inner ends of the clamping protrusion 1.31 and the clamping groove 1.32. The assembly space 1.33 is provided with a second through hole 1.331 for exposing the second output portion 1.21. The opening direction of the second through hole 1.331 is vertically upward.

[0097] The technical solution of this embodiment separates the snap-fitting boss 1.31 and the snap-fitting groove 1.32, and at the same time separates the first through hole 1.311 and the third through hole 1.321, so as to facilitate the configuration of the transmission structure. At the same time, the assembly interval 1.33 serves as the third assembly basis, and the corresponding cutting and matching operation can be driven by the second through hole 1.331 as the power-driven source.

[0098] Please continue to refer to the attached Figure 2 , the embodiment also includes a three-way output transmission structure used in conjunction with the above-mentioned assembly components:

[0099] The three-way output transmission structure is composed of a dual output motor 1.1 and a phase-changing coupling 1.2 as core components. The dual output motor 1.1 uses a large torque worm reduction motor with two output shafts. The two output shafts use two output parts, one of which is a first output part 1.11 with an output direction vertically upward, and the other output part is a coupling output part 1.12 with an output direction horizontally arranged. The first output part 1.11 outputs power through a spline structure.

[0100] The coupling output part 1.12 is used to provide power, and the input end of the phase-changing coupling 1.2 is connected to the coupling output part 1.12. The phase-changing coupling 1.2 also includes two output parts, one of which is a second output part 1.21 with an output direction vertically upward, and the other output part is a third output part 1.22 with a horizontal output direction. The coupling output part 1.12 is connected by a bevel gear connection structure to obtain different output directions of the second output part 1.21 and the third output part 1.22, and adjust the speeds corresponding to the second output part 1.21 and the third output part 1.22 respectively;

[0101] The first output part 1.11 is arranged at one side of the dual output motor 1.1, the third output part 1.22 is arranged at one end of the phase-changing coupling 1.2 away from the dual output motor 1.1, and the second output part 1.21 is arranged above the third output part 1.22.

[0102] In the technical solution of this embodiment, in order to adapt to the requirements of different cutting and matching modules, the first output part 1.11, the second output part 1.21 and the third output part 1.22 are set to have different output speeds. Specifically, the speed corresponding to the first output part 1.11 is greater than the speed corresponding to the second output part 1.21, and the speed corresponding to the second output part 1.21 is greater than the speed corresponding to the third output part 1.22;

[0103] By combining a motor with two output parts and a phase-changing coupling, the integration of output parts with three levels of speed is achieved, providing an operating basis for food preparation operations with various requirements;

[0104] For example, according to the following configuration in the embodiment:

[0105] The first output part 1.11 has the fastest rotation speed, and its output power can be used for a crushing module for crushing food. A groove is provided below the crushing module to match and engage with the clamping boss 1.31, and a transmission structure is provided to match the position of the first through hole 1.311 and connected to the first output part 1.11;

[0106] The second output part 1.21 has a medium rotation speed, and its output power can be used for cutting vegetables or kneading noodles. The corresponding module is assembled on the assembly space 1.33 and is provided with a transmission structure that matches the position of the second through hole 1.331 and is connected to the second output part 1.21;

[0107] The third output part 1.22 has the slowest output speed and can be used to drive the noodle extrusion module. The noodle extrusion module is assembled with the snap-fitting groove 1.32 through a strip-shaped snap-fitting. The strip-shaped snap-fitting is provided with a transmission structure that matches the position of the third through hole 1.321 and is connected to the third output part 1.22.

[0108] Please refer to the attached Figures 5 and 6 Specifically, the noodle extrusion module 2 includes: a water tank 2.8, a noodle mixing structure and a noodle extrusion structure;

[0109] The water tank 2.8 is connected to the dough kneading cover 2.7 above the dough kneading container 2.5; the dough floc stirring structure is arranged inside the dough kneading container 2.5 for stirring the dough flocs; the dough floc extruding structure is arranged at the lower part of the dough kneading container 2.5 for extruding the stirred dough flocs;

[0110] The dough kneading cover 2.7 is provided with a water tank slot 2.71, the water tank 2.8 is snapped into the water tank slot 2.71, a dough kneading water inlet 2.72 is provided on the water tank slot 2.71, and the lower end of the water tank 2.8 has a water tank outlet connected to the dough kneading water inlet 2.72 after snapping;

[0111] The dough stirring structure includes a stirring rod 2.6; the dough extrusion structure includes a dough extrusion screw 2.1 disposed in a dough extrusion channel below the dough kneading container 2.5, the dough extrusion screw 2.1 having a driving end 2.11 and an extrusion end 2.12 disposed opposite to each other, and also includes a dough extrusion outlet 2.21 disposed at the extrusion end 2.12;

[0112] The stirring rod 2.6 of the noodle extrusion module 2 is drivingly connected to the second output part 1.21;

[0113] The noodle extrusion channel is connected to the clamping groove 1.32, and the driving end 2.11 of the noodle extrusion screw 2.1 of the noodle extrusion module 2 is drivingly connected to the third output part 1.22. In the technical solution of this embodiment: the noodle extrusion module 2 is clamped with the power platform 1, and the stirring rod 2.6 is drivingly connected to the second output part 1.21, and the driving end 2.11 of the noodle extrusion screw 2.1 is drivingly connected to the third output part 1.22 to realize the assembly and use of the noodle extrusion cutting machine.

[0114] Please refer to the attached Figures 10-11 The bottom of the vegetable cutting module 3 is provided with an input port of the second output part 1.21, and the inside of the vegetable cutting module 3 is provided with a vegetable cutting structure connected with the second output part 1.21:

[0115] In the technical solution of this embodiment, the vegetable cutting module 3 includes a material pressing piece 3.6, a material guiding piece 3.5, a vegetable cutting cover plate 3.4 and a vegetable cutting container 3.3 from top to bottom. Specifically, the vegetable cutting cover plate 3.4 is covered at the upper opening of the vegetable cutting container 3.3, and a first food material inlet 3.41 is provided at the edge area of ​​the vegetable cutting cover plate 3.4; the lower end of the material guiding piece 3.5 is connected and connected to the first food material inlet 3.41, and a second food material inlet 3.51 is provided at the upper end; the material pressing piece 3.6 is provided separately from the material guiding piece 3.5, and when the vegetable cutting module 3 is idle, the material pressing piece 3.6 can be sleeved in the material guiding piece 3.5, and during the vegetable cutting operation, the material pressing piece 3.6 presses the food material in the material guiding piece 3.5 through the material pressing surface 3.61 below it;

[0116] After the food is put into the food guide 3.5, it is difficult for the food to fully contact the cutting structure due to the effect of its own gravity. At this time, the pressing surface 3.61 of the pressing piece 3.6 can be used to penetrate into the food guide 3.5 to provide downward pressure on the food, thereby promoting the food to be cut by the cutting structure to improve the cutting efficiency; the first food inlet is opened in the area close to the edge of the cutting cover plate, so as to allow the food to fall near the edge of the cutting structure so that it can be cut by the knife more quickly.

[0117] Please refer to the attached Figures 16 and 17 The third output part 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 introduction part 4.8, a meat cutting structure and a gear box for providing power, wherein:

[0118] The meat cutting container 4.7 has a space for cutting meat. The meat cutting container 4.7 includes two upper and lower components. The upper component is provided with a meat cutting material introduction member 4.8 on its surface and is connected thereto. The meat cutting material introduction member 4.8 includes a passage for introducing meat ingredients into the meat cutting container 4.7.

[0119] When assembled with the power platform 1, the meat cutting module 4 is connected to the clamping groove 1.32, and is linked to the third output part 1.22 through the gear transmission shaft 4.11 on the gear box, thereby transmitting the power input by the third output part 1.22 to the meat cutting structure.

[0120] Please refer to the attached Figures 27 to 29 The crushing module 5 involved in this embodiment includes a crushing container 5.1 and a crushing cover 5.2 provided thereon. The crushing container 5.1 and the crushing cover 5.2 provide a space for crushing food materials. A crushing transmission shaft 5.3 and a crushing blade head 5.4 sleeved on the crushing transmission shaft 5.3 are provided in the space.

[0121] The lower end of the crushing container 5.1 is provided with a transverse through-going crushing slot 5.11, through which the crushing container 5.1 is clamped with the clamping boss 1.31 on the power platform 1; the crushing cover 5.2 is provided with a protruding third portable convex strip 5.21, which is convenient for the user to grasp the third portable convex strip 5.21 by hand to transfer the crushing cover 5.2;

[0122] Furthermore, the lower end of the crushing transmission shaft 5.3 is transmission-connected to the first output part 1.11, and the upper end is hinged to the lower surface of the crushing cover 5.2. The crushing cover 5.2 can limit the crushing transmission shaft 5.3, and the crushing blade 5.4 rotates with the rotation of the stirring transmission shaft 5.3 to crush the food.

[0123] In a preferred embodiment, a gap is provided between the first output portion 1.11 and the second output portion 1.21 to avoid the snap-fit ​​structure. In this case, when the crushing module is snap-fitted and installed at the first output portion, interference of the second output portion 1.21 with its snap-fit ​​structure can be avoided.

[0124] In a preferred embodiment, the second output part 1.21 and the third output part 1.22 have coplanar rotation output axes. In this embodiment, the second output part 1.21 and the third output part 1.22 can jointly serve as the power input part of the two-in-one dough kneading and noodle extruding food preparation module, which is convenient for the internal structural arrangement of the module. Specifically, the second output part 1.21 is responsible for the power input for dough kneading, and the third output part 1.22 is responsible for the power input for noodle extrusion. Since the rotation output axes of the second output part 1.21 and the third output part 1.22 are coplanar, the dough kneading operation can be directly switched to the noodle extruding operation.

[0125] Please refer to the attached Figures 1 to 4 In a preferred embodiment, the power platform includes a housing, which is composed of an upper housing 1.3 and a lower housing 1.4, and also includes a positioning handle 1.5 and a supporting structure 1.6, wherein:

[0126] The upper shell 1.3 and the 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 of a cutting and matching module on its surface and a transmission structure of a power output wrapped inside, so the upper shell 1.3 occupies a relatively large volume. The lower shell 1.4 is used to carry the upper shell 1.3. A placement space 1.41 is formed at the lower shell 1.4 for placing containers. The placement space 1.41 is also located below the upper shell 1.3. The placement space 1.41 is used to accommodate bowls or basins to facilitate the preparation of dishes. Therefore, the volume of the lower shell 1.4 is relatively small, and the power platform itself is in a top-heavy state. Whether it is placed in a sink or on a platform, if it is not fixed, it will inevitably shift or even tip over, causing trouble for the preparation of dishes.

[0127] To this end, the present embodiment is provided with a positioning handle 1.5 and a supporting structure 1.6 as mentioned above, so as to correspond to the placement of the power platform in the sink and on the table, respectively, so as to prevent it from being stable and tipping over.

[0128] Specific:

[0129] The positioning handle 1.5 is telescopically arranged between the upper shell 1.3 and the lower shell 1.4, and realizes the positioning in the hidden state and the locked state through the positioning structure.

[0130] In the above technical solution of this embodiment, the positioning handle 1.5 can be in a hidden state and a locked state respectively, depending on whether to work in the sink. When in the hidden state, the positioning handle 1.5 is retracted and does not occupy additional space; when in the locked state, the positioning handle 1.5 is locked with the inner wall of the sink to fix the position of the power platform in the sink to prevent it from moving. At the same time, the positioning handle 1.5 itself can also be used as a handle for lifting the power platform to facilitate its transfer.

[0131] Specifically, when in the hidden state, the inner contour of the positioning handle 1.5 fits snugly on the power platform, and 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 sink.

[0132] The positioning structure in the above embodiment includes a positioning buckle 1.51 and a positioning hole group 1.52;

[0133] The positioning hole group 1.52 is composed of a hidden positioning hole 1.521 and a locking positioning hole 1.522. The hidden positioning hole 1.521 is arranged near the end of the positioning handle 1.5 that is connected to the sink, and the locking positioning hole 1.522 is arranged away from the end of the positioning handle 1.5 that is connected to the sink. The positioning buckle 1.51 is inserted into the corresponding positioning hole to achieve positioning.

[0134] Specifically, the positioning buckle 1.51 is composed of a positioning cap that is easy to hold and a positioning protrusion that is inserted into the positioning hole. When operating, the user holds the positioning cap and inserts the positioning protrusion into the positioning hole;

[0135] Before insertion, the positioning buckle 1.51 is first inserted into the corresponding positioning hole through the adjustment hole to achieve positioning. The adjustment hole is partially opened on the upper shell 1.3 and partially opened on the lower shell 1.4. The upper shell 1.3 and the lower shell 1.4 are assembled to form the adjustment hole.

[0136] 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 located below the placement space 1.41. When the support plate 1.61 is retracted, it is hidden at the lower end surface of the lower housing 1.4.

[0137] In this embodiment, the support plate 1.61 is an integrally formed rectangular rigid flat plate, the corners of its outer contour have curved edges, and the thickness is less than 5 mm;

[0138] Specifically, slide rails 1.62 extending along the telescopic direction are provided on both sides of the support plate 1.61, and the support plate 1.61 performs the above-mentioned telescopic movement along the slide rails 1.62. A first stopper 1.63 is provided in the slide rail 1.62, and a second stopper 1.64 is provided on the side where the support plate 1.61 is located where the first stopper 1.63 is located. The first stopper 1.63 limits the extension range of the support plate 1.61 by abutting against the second stopper 1.64, and makes the support plate 1.61 at least partially on the lower end surface of the lower shell 1.4 when being restricted.

[0139] In the technical solution of this embodiment, a placement space 1.41 is formed below the upper shell 1.3 to accommodate bowls or basins, thereby saving the space occupied by the kitchen countertop. 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, etc. This structure makes the power platform top-heavy, unstable and even easy to fall. Therefore, the embodiment is further provided with a support structure 1.6, and a support plate 1.61 extending from the support structure 1.6 supports the power platform to make it more stable.

[0140] After the support plate 1.61 is extended, the part restricted in the slide rail 1.62 is clamped in the slide rail 1.62, providing support for the support plate 1.61, and making the gravity of the power platform mainly act on the plane of the support plate 1.61, rather than on the end of the support plate 1.61, which can make the power platform more stable;

[0141] Furthermore, the positioning handle 1.5 itself is located above the placement space 1.41, so that the center of the power platform is more upward, and the existence of the support structure 1.6 is more necessary at this time; and when the positioning handle 1.5 is extended to the position in the sink, the support plate 1.61 in the support structure 1.6 can be retracted and hidden in the lower end surface of the lower shell 1.4 to prevent the support plate 1.61 from occupying extra space.

[0142] In a further preferred embodiment, the positioning handle 1.5 is locked with the side wall of the sink through the handle portion 1.53, and the outer layer of the handle portion 1.53 is provided with an elastic surface layer. The elastic surface layer can make the positioning handle 1.5 more closely abut against the inner wall of the sink, and can also reduce the requirements for the processing accuracy of the positioning handle 1.5. Even if the length of the positioning handle 1.5 after being extended makes the power platform slightly shorter than the width of the sink, the presence of the elastic surface layer can provide appropriate complementary spacing to make the power platform more firmly locked.

[0143] In a further preferred embodiment, the two sides of the positioning handle 1.5 are respectively provided with a side arm 1.54, and a counterweight portion 1.541 is provided at one end of each side arm 1.54 away from the handle portion 1.53. When the positioning handle 1.5 is in a locked state, the counterweight portion 1.541 is provided inside the space covered by the upper shell 1.3. The counterweight portion 1.541 in this embodiment is made of a metal block with a relatively high density, such as a stainless steel block.

[0144] In this embodiment, the setting of the counterweight block 1.541 can optimize multiple problems existing in the power platform, as follows:

[0145] ① When the positioning handle 1.5 is in a hidden state, the power platform is applied on the table, and the counterweight part 1.541 is located on the side of the shell body away from the placement space 1.41, and this side is just opposite to the protruding end of the upper shell body 1.3, that is, the protruding direction of the protruding part above the placement space 1.41. Originally, due to the protruding end of the upper shell body 1.3, the power platform has the hidden danger of being easily tipped over. The existence of the counterweight part 1.541 and its setting position greatly balance the problem of center of gravity deviation caused by the above-mentioned protruding end, thereby greatly improving the risk of the above-mentioned hidden danger;

[0146] ② When the positioning handle 1.5 is in the locked position, the power platform is applied to the sink, and the positioning handle 1.5 is extended at a longer distance. In the structure with a long extension distance, the end portion where the handle portion 1.53 is located tends to sink, causing the positioning handle 1.5 to easily tilt toward the end where the handle portion 1.53 is located, so that the connection structure between the positioning buckle 1.51 and the hidden positioning hole 1.521 is subjected to greater stress. When the hidden positioning hole 1.521 does not have a high-strength limiting structure, the locking position of the positioning handle 1.5 and the sink is likely to become unstable, or even fail to lock;

[0147] At this time, by providing a counterweight portion 1.541 and making the counterweight portion 1.541 still located in the internal space of the shell, the side arm 1.54 uses the edge of the shell as a fulcrum, and the counterweight portion 1.541 balances the gravity distribution of the positioning handle 1.5 itself in the locked state, so that the tendency of the positioning handle 1.5 to tilt toward the end where the handle portion 1.53 is located is reduced or even eliminated, thereby improving the risk of hidden dangers of locking failure.

[0148] In a preferred embodiment, a motor slot is provided inside the clamping boss 1.31, and the opening of the motor slot is downward. The side wall of the motor slot limits the upper clamping of the dual-output motor 1.1. At the same time, a coupling limiting wall is provided at the inner end of the clamping groove 1.32, and the coupling limiting wall abuts against and clamps the side where the third output part 1.22 on the disguised coupling 1.2 is located. In this embodiment, the clamping boss 1.31 and the clamping groove 1.32 are not only convenient for the integrated assembly of various cutting and matching modules, but also can limit the transmission structure through its own structure to prevent it from vibrating and jumping, making the assembly of the transmission structure more stable.

[0149] In a further preferred embodiment, the first stopper 1.63 or the second stopper 1.64 is a block-shaped member with elasticity to avoid rigid collision when the support plate 1.61 is extended or retracted.

[0150] In a further preferred embodiment, when the support plate 1.61 is extended to the maximum extent, the center of gravity of the cutting and matching machine power platform is projected onto the support plate 1.61 in the vertical direction to obtain a better supporting effect.

[0151] Please refer to the attached Figures 6 to 9 This embodiment relates to a preferred noodle extrusion module, wherein:

[0152] The dough kneading cover 2.7 is provided with a water tank slot 2.71, the outer periphery of which has a shape that is adapted to the outer contour of the lower end of the water tank 2.8, and the water tank slot 2.71 is provided with a dough kneading water inlet 2.72, and the lower end of the water tank 2.8 has a water tank outlet that is connected to the dough kneading water inlet 2.72 after being engaged;

[0153] The dough floc stirring structure includes a stirring rod 2.6, which includes a rod body 2.61. The rod body 2.61 is vertically arranged in the working state, and a driving connection part 2.62 and a follower connection part 2.63 are respectively arranged at both ends of the rod body 2.61; in the working state, a pre-stirring arm 2.64, an auxiliary stirring arm 2.65 and a main stirring arm 2.66 are arranged on the rod body 2.61 from top to bottom in sequence;

[0154] The noodle extrusion structure includes an extruding noodle screw 2.1 arranged in an extruding noodle channel below a noodle kneading container 2.5, the extruding noodle screw 2.1 having a driving end 2.11 and an extruding end 2.12 arranged opposite to each other; it also includes an extruding noodle outer cover 2.2 fixedly connected to one end of the noodle extruding channel, which is partially sleeved on the extruding end 2.12, a space for the noodle extruding screw 2.1 to rotate is formed inside the noodle extruding outer cover 2.2, and an extruding noodle outlet 2.21 opening downward is provided on the surface; it also includes an extruding noodle die head 2.4, which is detachably covered on the noodle extrusion outlet 2.21, and a noodle extrusion hole is formed on the noodle extrusion die head 2.4.

[0155] The technical solution in this embodiment provides a stable and detachable water tank assembly structure, and the water tank 2.8 only needs to be inserted into the water tank slot 2.71 when assembled; it also provides a noodle flocculent stirring structure, and the driving connection part 2.62 on the stirring rod 2.6 is transmission-connected with the power output, and the follower connection part 2.63 is hingedly connected to cooperate with the rotation of the stirring rod 2.6; in the process of adding noodle flocculent, the pre-stirring arm rate 2.64 first contacts with the noodle flocculent and stirs it, and then the auxiliary stirring arm 2.65 further stirs the pre-stirred noodle flocculent, and finally the main stirring arm 2.66 stirs it; it also provides a noodle flocculent extrusion structure to extrude the above-mentioned stirred noodle flocculent, and the extrusion of different forms of pasta can be achieved by replacing the extrusion die head 2.4 with different noodle extrusion hole shapes.

[0156] In one embodiment:

[0157] The water tank slot 2.71 is a strip-shaped groove, and the water tank 2.8 is a columnar body, the cross section of which has a shape that matches the inner contour of the water tank slot 2.71.

[0158] The water tank slot 2.71 is provided with a dough inlet 2.72, which is a raised water inlet pipe and is integrally formed with the water tank slot 2.71. The lower end of the water tank 2.8 is provided with a water tank outlet, which is arranged at a position such that after the water tank 2.8 is engaged with the water tank slot 2.71, the water tank outlet is connected to the dough inlet 2.72. Specifically, the connection method is: the raised water inlet pipe corresponding to the dough inlet 2.72 is inserted into the water tank outlet;

[0159] Furthermore, after the water tank 2.8 is clamped, the water outlet of the water tank is connected to the dough kneading water inlet 2.72 through the stop valve 2.81. At this time, the stop valve 2.81 is inserted by the raised water inlet pipe to open to a flow state;

[0160] In the preferred technical solution, the dough kneading water inlet 2.72 is arranged at one end of the bottom of the water tank slot 2.71.

[0161] In the technical solution of this embodiment, the function of the foundation is that before the stop valve 2.81 is connected to the dough water inlet 2.72, it is in a stop state, and the water in the water tank 2.8 will not flow out. After the stop valve 2.81 is connected to the dough water inlet 2.72, it is in a flow state, and the water in the water tank 2.8 is added to the dough container 2.5 to form dough with a suitable water content. When water needs to be added again, it is only necessary to pull out the water tank 2.8, connect a suitable amount of water, and then insert it into the water tank slot 2.71.

[0162] The improved function of this embodiment is that the raised water inlet pipe also plays an auxiliary positioning role, so that the water tank 2.8 is installed more firmly, and the dough water inlet 2.72 is arranged at one end of the bottom of the water tank slot 2.71. Such an arrangement can prevent the water tank 2.8 from being installed upside down; and the water tank 2.8 is only located in the upper area of ​​the water tank slot 2.71 and will not occupy additional space.

[0163] In a preferred embodiment, a first portable strip 2.73 is provided in the middle of the dough kneading cover 2.7, a water tank slot 2.71 is provided on one side of the first portable strip 2.73, a water tank cover 2.9 is provided on the water tank 2.8, a second portable strip 2.91 is provided on the water tank cover 2.9, and a gradually outwardly expanding base structure is provided at the lower part of the first portable strip 2.73 and the second portable strip 2.91;

[0164] In the technical solution of this embodiment, the first portable convex strip 2.73 is convenient for the user to hold the dough kneading container 2.5 by hand, and the second portable convex strip 2.91 is convenient for the user to hold the water tank 2.8 by hand. The setting position of the water tank slot 2.71 is conducive to the utilization and arrangement of the upper space of the dough kneading cover 2.7. The above-mentioned base structure can form a basis for holding.

[0165] In one embodiment:

[0166] A dough squeezing area 2.67 is formed outside the end of the auxiliary stirring arm 2.65 in the dough squeezing structure away from the rod body 2.61, and a dough return portion 2.661 protruding toward the direction of the dough squeezing area 2.67 is provided at the end of the main stirring arm 2.66 away from the rod body 2.61;

[0167] When the rod body 2.61 rotates, the circular track formed by the outer contour of the dough return block 2.661 can be close to the inner wall contour of the dough kneading container 2.6.

[0168] In the technical solution of the present embodiment, after the dough is added into the dough mixing container 2.5, the pre-stirring arm 2.64 first contacts with the dough and stirs it, and then the auxiliary stirring arm 2.65 further stirs the pre-stirred dough, and finally the main stirring arm 2.66 stirs it. The dough return blocking part on the main stirring arm 2.66 can scrape the dough scattered on the inner wall of the dough mixing container 2.5 and guide it into the dough squeezing area 2.67, and then the auxiliary stirring arm 2.65 stirs the guided dough for the second time in the dough squeezing area 2.67, so as to improve the chewy taste of the dough and obtain more delicious pasta.

[0169] In a preferred embodiment, the distance between the pre-stirring arm 2.64 and the rod body 2.61 is greater than the distance between the auxiliary stirring arm 2.65 and the rod body 2.61, and the distance between the main stirring arm 2.66 and the rod body 2.61 is greater than the distance between the auxiliary stirring arm 2.65 and the rod body 2.61, that is, the pre-stirring arm 2.64 is longer than the auxiliary stirring arm 2.65, and the main stirring arm 2.66 is also longer than the auxiliary stirring arm 2.65.

[0170] Generally speaking, the end of the stirring arm has a stronger stirring effect and a more sufficient stirring action. Therefore, in the technical scheme of this embodiment, the pre-stirring arm 2.64 stirs the dough in a larger rotation range, and 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 in different areas can be fully stirred. Similarly, the main stirring arm 2.66 has a larger stirring range, and in order to cooperate with the scraping effect of the dough return block 2.661 and facilitate the formation of the dough extrusion area 2.67, the stirring range of the main stirring arm 2.66 should be as large as possible. In this embodiment, its length should be greater than that of the pre-stirring arm 2.64.

[0171] In a preferred embodiment, the pre-stirring arm 2.64 and the auxiliary stirring arm 2.65 extend from the rod body 2.61 in opposite directions. This arrangement can reduce mutual interference between the two and make them as evenly distributed as possible in the dough container 2.5, thereby minimizing the probability of dough flocs not being stirred.

[0172] In a 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 first guide side 2.651 has an inclined surface extending downward from the extension direction of the rod body 2.61;

[0173] The upper surface of the pre-mixing arm 2.64 is provided with a second guide side 2.641, and the second guide side 2.641 has an inclined surface extending downward from the extension direction of the rod body 2.61;

[0174] In the technical solution of this embodiment, the first guide side 2.651 and the second guide side 2.641 use the centrifugal force to move the dough outward and downward so that they can be scraped up by the dough return part 2.661 for secondary stirring.

[0175] 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 acts on the dough scraped by the dough return portion 2.661 at the first time.

[0176] In this embodiment, the top projection relationship between the pre-stirring arm 2.64, the auxiliary stirring arm 2.65 and the main stirring arm 2.66 is:

[0177] The auxiliary stirring arm 2.65 and the main stirring arm 2.66 have projection areas with the same extension direction and partially overlap, 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.

[0178] In a preferred embodiment, in the working state, a third guide side 2.662 is provided on the upper surface of the main stirring arm 2.66, and the third guide side 2.662 has a downwardly extending inclined surface along the direction pointing to the rod body 2.61. A fourth guide side 2.663 is provided on the side of the noodle floc return block 2.661 close to the rod body 2.61, and the fourth guide side 2.663 has a downwardly extending inclined surface along the direction pointing to the rod body 2.61. In the technical solution of this embodiment, the third guide side 2.662 and the fourth guide side 2.663 are used to guide the noodle flocs after the secondary stirring to be further output downward.

[0179] In a further preferred embodiment, the dough inlet 2.72 is arranged so that the dripping water falls on the inner wall of the dough kneading container 2.5. This arrangement allows, 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, dough flocs are first formed on the inner wall of the dough kneading container 2.5. The dough flocs then fall through the dough floc return block 2.661 and are guided into the dough floc extrusion area 2.67, where they are secondary stirred by the auxiliary stirring arm 2.65. In this way, a path of dough floc formation-extrusion-secondary stirring is formed, which can improve the stirring efficiency of the dough flocs and also obtain pasta with a chewy texture.

[0180] In one embodiment:

[0181] The dough extrusion structure includes a long 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;

[0182] The noodle extrusion screw 2.1 is arranged in the middle of the noodle extrusion channel, one end of the noodle extrusion screw 2.1 is a driving end 2.11, and the other end is an extrusion end 2.12. The driving end 2.11 is connected to a power output shaft to drive the noodle extrusion screw 2.1 to rotate, and an extrusion outlet 2.21 is arranged at the extrusion end 2.12.

[0183] The noodle extrusion cover 2.2 is a cylindrical member and is sleeved on a part of the extrusion screw 2.1 from the above-mentioned extrusion end 2.12. The interior of the noodle extrusion cover 2.2 and the above-mentioned noodle extrusion channel together form a space for the noodle extrusion screw 2.1 to rotate. The above-mentioned noodle extrusion outlet 2.21 is arranged on the lower surface of the noodle extrusion cover 2.2. The end of the noodle extrusion cover 2.2 adjacent to the noodle kneading container 2.5 is provided with a first limiting ring 2.22;

[0184] For example, the noodle extrusion cover 2.2 includes a first tubular member 2.23 in the shape of a circular tube. The first limiting ring 2.22 is arranged outwardly at one end of the first tubular member 2.23. The other end of the first tubular member 2.23 is closed to prevent the noodles from being squeezed out from this end. The noodle extrusion outlet 2.21 is opened on the lower end of the first tubular member 2.23, and the position corresponds to the extrusion end 2.12 of the noodle extrusion screw 2.1. In this way, the gravity of the noodles themselves can help them to be extruded.

[0185] The noodle-extrusion fixing member 2.3 is a ring-shaped member whose shape matches that of the noodle-extrusion outer cover 2.2, and is provided with an outer cover through hole 2.31, a second limiting ring 2.32 and an internal thread, which is screwed with the external thread on the noodle-mixing container 2.5 to form a fixing structure;

[0186] Among them, the outer cover through hole 2.31 is sleeved on the above-mentioned extruded noodle outer cover 2.2, and the internal thread fixing structure fixes the extruded noodle fixing piece 2.3 to a protruding external thread of the noodle kneading container 2.5. A partially overlapping clamping portion is formed between the first limiting ring 2.22 and the second limiting ring 2.32. At this clamping portion, another clamping portion in contact with the first limiting ring 2.22 is formed on the noodle kneading container 2.5. The two clamping portions enable the first limiting ring 2.22 to be clamped between the extruded noodle fixing piece 2.3 and the noodle kneading container 2.5.

[0187] For example, the extruded noodle fixing part 2.3 has a second tubular part 2.33 in the shape of a circular tube, a second limiting ring 2.32 is opened at one end of the second tubular part 2.33 and turned inward, an internal thread fixing structure is arranged on the inner wall of the other end of the second tubular part 2.33, and the inner side contour of the second limiting ring 2.32 surrounds and forms the above-mentioned outer cover through hole 2.31.

[0188] The noodle extrusion die head 2.4 is detachably covered on the noodle extrusion outlet 2.21, and a noodle extrusion hole is formed on the noodle extrusion die head 2.4.

[0189] The technical solution described in this embodiment provides a feasible noodle extrusion structure, and by replacing the noodle extrusion part with extrusion holes of different shapes, the extrusion die head 2.4 can realize the extrusion of noodles in different forms, such as when the noodle extrusion hole is a fine hole, fine noodles are extruded; when it is a coarse hole, coarse noodles are extruded; when it is a flat hole, wide noodles are extruded; when it is a longer gap, noodle slices are extruded, and small pieces of noodles are formed by a slight slicing process... and so on;

[0190] During the specific operation, the dough first falls onto the noodle extrusion screw 2.1 in the noodle extrusion channel, and the noodle extrusion screw 2.1 is driven to rotate to push the dough to move in the direction of the noodle extrusion outlet 2.21. Since the corresponding end of the first tubular member 2.23 is closed, the dough will only be extruded from the noodle extrusion outlet 2.21, and different shapes of noodles will be formed with the noodle extrusion holes of different shapes.

[0191] In a preferred embodiment, the noodle extrusion die 2.4 is a curved sheet-like component, and the noodle extrusion die 2.4 covers the above-mentioned noodle extrusion outlet 2.21 from the inner wall of the first tubular member 2.23. The degree of curvature of the noodle extrusion die 2.4 matches the shape of the inner wall contour of the first tubular member 2.23, that is, the noodle extrusion die 2.4 covers 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.

[0192] In a further preferred embodiment, the first limiting ring 2.22 includes a limiting portion protruding toward the inside of the first tubular member 2.23, and the noodle extrusion die head 2.4 has a certain limiting length, which is the same as the distance from the limiting portion to the closed end;

[0193] In the technical solution of the present embodiment, the combined structure of the limiting portion and the closed end is used to form the basis of the limited extrusion die 2.4. Since the limiting length of the extrusion die 2.4 is the same as the distance from the limiting portion to the closed end, the extrusion die 2.4 can be just clamped between the limiting portion and the above-mentioned closed end. No additional positioning structure is required to position the extrusion die 2.4, which simplifies the assembly structure of the extrusion die 2.4 and makes the assembly process of the extrusion die 2.4 faster and more convenient.

[0194] Please refer to the attached Figures 11 to 14 In a preferred embodiment, the vegetable cutting structure is composed of a vegetable cutting transmission shaft 3.1 and a vegetable cutting blade 3.2.

[0195] The lower end of the vegetable cutting drive shaft 3.1 is connected to the second output part 1.21, and the upper end transmits the rotational driving force to the transmission connection part 3.21 of the vegetable cutting blade 3.2. In the present embodiment, the vegetable cutting blade 3.2 is a circular disc stamped from a thin sheet of metal material, and the transmission connection part 3.21 is a through hole arranged at the rotation axis of the circular disc, so that the vegetable cutting blade 3.2 does not undergo additional displacement during rotation, thereby saving space. However, the cross-sectional shape of the through hole is not circular, and has a connection structure that matches and is snapped into place with a portion of the outer peripheral contour of the vegetable cutting drive shaft 3.1. In the present embodiment, the connection structure is a columnar body, and the cross-sectional shape of the columnar body is a large cut circle shape, so that the force point of the vegetable cutting drive shaft 3.1 can be formed.

[0196] The above-mentioned vegetable cutting blade 3.2 is provided with a slicing portion 3.22 and a shredding portion 3.23 at intervals around the transmission connection portion 3.21. The slicing portion 3.22 and the shredding portion 3.23 are both formed by one-time stamping, and the structure is extremely simple and saves materials.

[0197] During actual operation, the cutting knife disc 3.2 rotates around the rotation axis of the cutting drive shaft 3.1 to drive the slicing part 3.22 or the shredding part 3.23 to rotate to achieve the cutting operation. The cutting edge of the slicing part 3.22 and the cutting edge of the shredding part 3.23 have opposite rotation directions. In this way, under the rotation of the cutting drive shaft 3.1, the rotation of the cutting knife disc 3.2 in one direction causes the slicing part 3.22 to act on the vegetables to form sliced ​​food ingredients, and the rotation of the cutting knife disc 3.2 in the other direction causes the shredding part 3.23 to act on the vegetables to form shredded food ingredients. The preparation operation of sliced / shredded vegetables can be achieved by only changing the rotation direction of the cutting knife disc 3.2, which is very convenient to operate.

[0198] In a preferred embodiment, the slicing portion 3.22 and the shredding portion 3.23 are relatively arranged on both sides of the transmission connection portion 3.21. This arrangement relationship in this embodiment makes the interval between the slicing portion 3.22 and the shredding portion 3.23 as large as possible, providing enough space for the cut vegetables and avoiding mutual influence between the slicing portion 3.22 and the shredding portion 3.23.

[0199] In a further preferred embodiment, the slicing portion 3.22 includes a transversely arranged strip slicing knife 3.221 and a slicing outlet 3.222 arranged below the blade of the slicing knife 3.221. The sheet is directly output from the slicing outlet 3.222 after being cut by the blade, and the blade of the slicing knife 3.221 also has an extension direction that conforms to the radius of the cutting knife disc 3.2, so that the blade of the cutting knife disc 3.2 directly cuts the food when it rotates, thereby improving the slicing efficiency.

[0200] In a further preferred embodiment, the slicing section 3.23 includes a plurality of slicing members, each of which includes a slicing knife 3.231 with an arc shape and a slicing outlet 3.232 located below the blade of the slicing knife 3.231. In this embodiment, the arc shape blade facilitates obtaining slicing food materials, which are then output through the slicing outlet 3.232.

[0201] In a further preferred embodiment, the blades of the plurality of shredding members have the same rotation direction to form shredded food materials with consistent shapes and arrangements;

[0202] In a further preferred embodiment, the slitting portion 3.23 comprises two rows of slitting elements, and the plurality of slitting blades of each row of slitting elements are arranged along the same radial direction. Relatively speaking, this arrangement of the embodiment is the most space-saving.

[0203] In the preferred embodiment, please continue to refer to the attached Figures 16 to 26 The meat cutting structure described in the embodiment includes a knife comb part 4.2 and a knife chopping part 4.3 matched therewith, wherein:

[0204] The blade comb part 4.2 involved in this embodiment includes two groups of comb tooth assemblies, each group of comb tooth assemblies includes a comb tooth shaft rod 4.21 and a row of comb teeth 4.22 slidably mounted on the comb tooth shaft rod 4.21, and the two comb tooth shaft rods 4.21 are mounted on the clamping parts of the upper edge of the power input end plate, the blade baffle plate 4.4 and the outer end plate 4.5;

[0205] Specifically, the clamping part is composed of two groups of bayonet components, each group of bayonet components includes a first end-sealing bayonet a, a second end-sealing bayonet b and a tool baffle bayonet c, the two first end-sealing bayonet a are arranged at intervals on the upper edge of the outer end plate 4.5, the two second end-sealing bayonet b are arranged at intervals on the upper edge of the power input end plate, and the two tool baffle bayonet c are arranged on the upper edge of the tool baffle 4.4;

[0206] The two ends of each comb-tooth shaft rod 4.21 are respectively mounted on the first end-sealing bayonet a and the second end-sealing bayonet b, and there is a place in the middle mounted on the tool baffle bayonet c. A row of comb teeth 4.22 on each comb-tooth shaft rod 4.21 is arranged between the second end-sealing bayonet b and the tool baffle bayonet c. The first end-sealing bayonet a, the second end-sealing bayonet b and the tool baffle bayonet c all have an opening facing upward for the comb-tooth shaft rod 4.21 to enter and exit for assembly. In this embodiment, the bottom of the bayonet has a limiting surface that fits the outer contour of the comb-tooth shaft rod 4.21 to prevent the comb-tooth shaft rod 4.21 from shaking in the bayonet;

[0207] The comb teeth 4.22 in this embodiment have a consistent shape and size, thereby unifying the guiding function of the blade comb and enhancing the guiding stability. Each comb tooth 4.22 includes a connecting portion 4.221 and a guiding portion 4.222. The connecting portion 4.221 is provided with a through hole, and the comb tooth shaft 4.21 passes through the through hole and is slidably connected to the connecting portion 4.221. The through hole has an inner contour that matches the surface of the comb tooth shaft 4.21, which can prevent the comb tooth shaft 4.21 from shaking in the through hole; the guiding portion 4.222 has a guiding surface with a gradually increasing inclination downward, so as to guide the food to move downward into the cutting area of ​​the blade 4.32;

[0208] At the same time, since each comb tooth 4.22 is arranged between two blades 4.32, each time the spacing between the blades 4.32 is adjusted, the position of each comb tooth 4.22 needs to be adjusted synchronously to continue to maintain a comb tooth 4.22 between every two adjacent blades 4.32 to guide the food to move downward. In the embodiment, the comb teeth 4.22 are slidably hung on the comb tooth shaft 4.21, which is just convenient for adjustment.

[0209] The knife-cutter part 4.3 involved in this embodiment includes two groups of knife-cutter assemblies, each group of knife-cutter assemblies includes a knife-cutter shaft rod 4.31 and a row of blades 4.32 slidably connected to the knife-cutter shaft rod 4.31, each comb tooth 4.22 is arranged between two adjacent blades 4.32, one end of the knife-cutter shaft rod 4.31 is axially rotated and linked to the power input end plate, and the other end is hinged on the outer end plate 4.5. All blades 4.32 in this embodiment are circular blades of the same shape and size to form a reasonable cutting area, enhance cutting stability, and save the cost of preparing blades. In addition, the two groups of blades 4.32 between the two groups of knife-cutter assemblies are staggered along the axial direction of the knife-cutter shaft rod 4.31, which can form an efficient cutting area.

[0210] Please refer to the attached Figures 16 and 17 , 24-25, the gear box in this embodiment includes a gear transmission shaft 4.11, a gear set 4.12, an output part 4.13, and a first sealing ring 4.14 and a second sealing ring 4.15 for sealing;

[0211] The gear transmission shaft 4.11 transmits the input power through the spline;

[0212] 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 connected to the gear transmission shaft 4.11 and rotates coaxially. The second meat-cutting transmission gear 4.122 is connected to the first meat-cutting transmission gear 4.121 and rotates in opposite directions.

[0213] The output part 4.13 is arranged on the power input end plate, and includes two sub-output parts 4.131, which are respectively connected to the first meat cutting transmission gear 4.121 and the second meat cutting transmission gear 4.122 for synchronously rotating output.

[0214] In a preferred embodiment, the above-mentioned tool baffle 4.4 is slidably connected to the tool shaft 4.31, and a working area of ​​two rows of blades 4.32 is formed between the tool baffle 4.4 and the power input end plate;

[0215] The position of the tool baffle 4.4 on the tool shaft 4.31 is adjusted by a baffle adjusting member 4.6. The baffle adjusting member 4.6 in this embodiment includes 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 an adjusting screw hole 4.51 provided in the middle of the outer end plate 4.5. One end of the adjusting screw 4.61 located on the inner side of the outer end plate 4.5 abuts against the tool baffle 4.4, and the other end located on the outer side of the outer end plate 4.5 is connected to the above-mentioned adjusting knob 4.62. In addition, the abutment between the adjusting screw 4.61 and the tool baffle 4.4 is located between the two tool shafts 4.31, so that the compression force acts evenly on the tool baffle 4.4.

[0216] In the technical solution of this embodiment, the comb teeth 4.22 on the comb teeth assembly can slide on the comb teeth shaft 4.21, so as to adjust the spacing between the comb teeth 4.22 and the total width of each row of comb teeth 4.22. The total spacing of the plurality of blades 4.32 on the knife assembly can also be adjusted, and after adjustment, they are positioned by the baffle adjusting member 4.6. When positioning, the adjusting knob 4.62 is first rotated, and the adjusting screw 4.61 is adjusted through the screw connection structure to push the tool baffle 4.4 to different positions of the knife shaft 4.31, thereby obtaining different spacings between the blades and the spacing between the comb teeth 4.22 to meet different knife cutting requirements;

[0217] At the same time, the comb tooth shaft 4.21 is mounted on a plurality of bayonet holes with openings, so as to facilitate the disassembly and assembly of the blade comb part 4.2.

[0218] As for the assembly structure of the blade comb part 4.2:

[0219] In a preferred embodiment, a limiting cover d partially covering the openings is provided on the openings of the first end sealing snap-in a and the second end sealing snap-in b. The limiting covers d provided at both ends are used to form limiting structures at both ends of the comb tooth shaft 4.21 above to prevent the comb tooth shaft 4.21 from moving upward.

[0220] In a further preferred embodiment, the covering position of the limit cover d on the opening of the first end sealing bayonet a is located on the side of the opening away from the second end sealing bayonet b, and the covering position of the limit cover d on the opening of the second end sealing bayonet b is located on the side of the opening away from the first end sealing bayonet a. The setting position of the limit cover d in this embodiment is as biased as possible to the two ends to leave relatively ample space and not hinder the assembly of the comb tooth shaft 4.21.

[0221] For the assembly structure of the knife and fork part 4.3:

[0222] In the preferred embodiment, please refer to the attached Fig. 22 and 23 , a variable pitch elastic sheet 4.33 is provided between two adjacent blades 4.32, wherein:

[0223] The variable pitch elastic sheet 4.33 is provided with a variable pitch connection through hole 4.331 slidably connected to the knife shaft 4.31, and is also provided with a variable pitch portion 4.332 having an elastic telescopic spacing in the axial direction of the knife shaft 4.31. Specifically, the variable pitch portion 4.332 includes two partially spaced apart local elastic sheets, the two local elastic sheets having ends connected together and spaced-apart variable pitch intervals 4.332b, and the local elastic sheet also has a force-bearing surface 4.332a abutting against the adjacent blade 4.32, and the two force-bearing surfaces 4.332a on the same variable pitch portion 4.332 are spaced apart to form the above-mentioned variable pitch interval 4.332b;

[0224] Each force-bearing surface 4.332a is connected to the adjacent end portion via a rebound slope 4.332c. When the force-bearing surface 4.332a is subjected to pressure, the rebound slope 4.332c is deformed and causes the force-bearing surface 4.332a to have a rebound force in the opposite direction to the pressure. The rebound force causes the force-bearing surface 4.332a to press the blade 4.32 tightly, preventing each blade 3.32 from loosening and deforming, which is not conducive to cutting.

[0225] In the above technical solution, the variable pitch elastic sheet 4.33 not only allows the total spacing of the multiple blades 4.32 to be adjusted by the compression degree of the tool baffle 4.4, but also allows the spacing between adjacent blades 4.32 to be adjusted accordingly. When the compression degree of the tool baffle 4.4 is large, the variable pitch portion 4.332 is compressed, and the total spacing of each row of blades 4.32 and the spacing between adjacent blades 4.32 are both reduced. When the compression degree of the tool baffle 4.4 is small, the variable pitch portion 4.332 recovers its deformation under the action of its own elastic force, and the total spacing of each row of blades 4.32 and the spacing between adjacent blades 4.32 are both increased.

[0226] In one example, the variable pitch elastic sheet 4.33 is formed by connecting two elastic ring sheets, and there are three connection points between the two elastic ring sheets. The above-mentioned variable pitch part 4.332 is formed between two adjacent connection points. This structure is relatively simple and easy to produce to form a variable pitch elastic sheet 4.33 product. At the same time, the three connection points constitute a limiting structure for the inner diameter of the variable pitch connecting through hole 4.331. That is, in this embodiment, when the force-bearing surface 4.332a is compressed by force, the variable pitch connecting through hole 4.331 will not expand accordingly. When the force-bearing surface 4.332a is reduced and the variable pitch interval 4.332b becomes wider, the variable pitch connecting through hole 4.331 will not decrease accordingly, and thus the variable pitch elastic sheet 4.33 always remains sleeved on the knife shaft 4.31 and will not loosen / shake in the radial direction.

[0227] In a preferred embodiment, in the gearbox structure, the gear transmission shaft 4.11 is rotationally sealed to the gearbox housing via a first sealing ring 4.14, and the two sub-output parts 4.131 are rotationally sealed to the gearbox housing via a second sealing ring 4.15.

[0228] In the technical solution of this embodiment, the output part 4.13 of the gear box drives the knife to rotate and cut the food under the drive of the gear transmission structure. The lubricating oil as an essential component is sealed in the housing of the gear box by the first sealing ring 4.14 and the second sealing ring 4.15, and will not overflow and contaminate the food.

[0229] In the preferred embodiment, please continue to refer to Fig.25 In order to facilitate disassembly, the housing of the above embodiment includes a gear box sleeve 4.16, a gear box body 4.17 and a gear box cover 4.18 connected in sequence, wherein:

[0230] The gearbox sleeve 4.16 is sleeved on the outer periphery of the gear transmission shaft 4.11, the first sealing ring 4.14 is arranged on the end plate 4.161 of the gearbox sleeve 4.16, the gearbox cover 4.18 is the power input end plate, and the two second sealing rings 4.15 are arranged on the gearbox cover 4.18;

[0231] 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 sealed and connected by a third sealing ring 4.19.

[0232] In the technical solution of this embodiment, it is necessary to add a third sealing ring 4.19 between the gear box body 4.17 and the gear box cover 4.18 to further prevent grease from overflowing and contaminating the food.

[0233] In the preferred embodiment, please continue to refer to Fig.25A first sealing through hole 4.141 is provided in the middle of the first sealing ring 4.14 for the gear transmission shaft 4.11 to pass through, and an annular first sealing groove 4.142 is provided on the outer periphery of the first sealing ring 4.14, and the first sealing groove 4.142 is clamped with the end plate of the gear box sleeve 4.16.

[0234] The first sealing ring 4.14 in this embodiment not only ensures that the gear transmission shaft 4.11 can pass through, but also enhances the sealing effect through the first sealing groove 4.142.

[0235] In a preferred embodiment, the second sealing ring 4.15 includes a hard force-bearing portion 4.151 and a soft sealing portion 4.152 surrounding the force-bearing portion 4.151, wherein:

[0236] One end of the force receiving part 4.151 receives the 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;

[0237] The outer periphery of the sealing portion 4.152 is provided with an annular second sealing groove 4.153, and the second sealing groove 4.153 is engaged with the cover body on the gear box cover 4.18;

[0238] In the technical solution of this embodiment, the second sealing ring 4.15 is a double-injection molded part, which is made of a hard material of the force-bearing part 4.151 and a soft material of the sealing part 4.152. The hard material is a cylindrical part made of PP or PS, and the soft material is a ring-shaped part supported by TPE. The force-bearing part 4.151 of the second sealing ring 4.15 is used to bear the force, so it needs to be made of a hard material, and the sealing part 4.152 realizes lubrication and sealing, so it needs to be made of a soft material;

[0239] The second sealing ring 4.15 in this embodiment has a force receiving portion 4.151 whose end for receiving power is a protruding card platform and whose end for outputting power is a recessed card blind hole. The end for outputting power is the sub-output portion 4.131 mentioned in the above embodiment.

[0240] In the technical solution of this embodiment, the gear set 4.12 transmits the rotation to the second sealing ring 4.15 through the transmission member 4.10. After long-term use and wear, the transmission member 4.10 is easy to replace, and the second sealing ring 4.15 does not need to be replaced frequently.

[0241] Please continue to refer to the attached Figures 27 to 29In a preferred embodiment, a cylindrical inner wall 5.12 for crushing is provided inside the crushing container 5.1, and the inner wall 5.12 for crushing has an inner contour surrounding the crushing range of the crushing blade head 5.4. In this embodiment, the cylindrical inner wall 5.12 for crushing can avoid the generation of dead angles, so that the food is located as far as possible within the range of action of the crushing blade 5.42, and avoid the retention of food.

[0242] In a preferred embodiment, the crushing blade head 5.4 comprises a connecting sleeve 5.41 and a plurality of crushing blades 5.42 arranged on the outer periphery of the connecting sleeve 5.41;

[0243] The connecting sleeve 5.41 has a gradually expanding diameter, and the diameter gradually expands according to the direction in which the connecting sleeve 5.41 is assembled to the crushing transmission shaft 5.3. At the same time, a cutter head guide portion 5.31 with a gradually expanding outer diameter is provided at one end of the crushing transmission shaft 5.3. According to the direction in which the connecting sleeve 5.41 is assembled to the crushing transmission shaft 5.3, the outer diameter of the cutter head guide portion 5.31 gradually expands.

[0244] In the technical solution of this embodiment, the connecting sleeve 5.41 allows the crushing cutter head 5.4 to be firmly sleeved on the crushing transmission shaft 5.3. At the same time, the cutter head guide part 5.31 on the crushing transmission shaft 5.3 that is adapted to the connecting sleeve 5.41 facilitates the positioning of the cutter head during installation.

[0245] In a preferred embodiment, a plurality of crushing blades 5.42 are arranged on the outer wall of the connecting sleeve 5.41 at intervals in the circumferential direction and the axial direction, and the crushing blades 5.42 extend outward from the outer wall of the connecting sleeve 5.41 and have a curved blade edge 5.421 protruding toward the rotation direction;

[0246] In the technical solution of this embodiment, the arrangement of the crushing blade 5.42 facilitates sufficient crushing, and the curved blade edge 5.421 can improve the crushing effect.

[0247] In a further preferred embodiment, the arc blade 5.421 has a cutting position obliquely upward relative to the blade spine 5.422 on its back. This embodiment can adapt to fallen food materials and further improve the crushing effect.

[0248] In the description of this specification, the description with reference to the terms "embodiment", "basic embodiment", "preferred embodiment", "other embodiments", "example", "specific example", or "some examples" means that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic representation of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described may be combined in any one or more embodiments or examples in a suitable manner.

[0249] Although the preferred embodiments of the present invention have been described, those skilled in the art may make other changes and modifications to these embodiments once they have learned the basic creative concept. Therefore, the appended claims are intended to be interpreted as including the preferred embodiments and all changes and modifications that fall within the scope of the present invention.

[0250] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include these modifications and variations.

Claims

1. A multifunctional cutting and matching machine, characterized in that: It comprises a power platform (1) and a vegetable cutting module (3), a meat cutting module (4) and a chopping module (5) respectively assembled and used with the power platform (1); The power platform (1) comprises a transmission structure and assembly components that cooperate with the transmission structure; The transmission structure comprises a dual-output motor (1.1), comprising a first output part (1.11) and a coupling output part (1.12); and further comprises a phase-changing coupling (1.2) that provides power with the coupling output part (1.12), wherein the phase-changing coupling (1.2) comprises a second output part (1.21) and a third output part (1.22); The assembly component is arranged on the upper shell (1.3), and comprises a clamping boss (1.31), and a first through hole (1.311) is formed on the clamping boss (1.31) to expose the first output part (1.11); and a clamping groove (1.32), and the outer end of the clamping groove (1.32) is an opening that is opened through, and the inner end is provided with a third through hole (1.321) to expose the third output part (1.22); the clamping boss (1.31) is located above the clamping groove (1.32); an assembly interval (1.33) is provided between the clamping boss (1.31) and the inner end of the clamping groove (1.32), and the assembly interval (1.33) is provided with a second through hole (1.331) to expose the second output part (1.21); The bottom of the vegetable cutting module (3) is provided with an input port of the second output part (1.21), and a vegetable cutting structure connected to the second output part (1.21) is provided inside; The meat cutting module (4) comprises a meat cutting container (4.7), the meat cutting module (4) is connected to the clamping groove (1.32), and is linked to the third output part (1.22) through the gear transmission shaft (4.11) on the gear box, thereby transmitting the power input by the third output part (1.22) to the meat cutting structure; The crushing module (5) comprises a crushing container (5.1) providing a crushing operation space and a crushing transmission shaft (5.3); one end of the crushing transmission shaft (5.3) is in driving connection with the first output part (1.11); a crushing slot (5.11) is provided at the lower end of the crushing container (5.1); the crushing slot (5.11) is in locking connection with the locking boss (1.31); It also includes a noodle extrusion module (2) assembled with the power platform (1) for use, the stirring rod (2.6) of the noodle extrusion module (2) being drivingly connected to the second output part (1.21), and the driving end (2.11) of the noodle extrusion screw (2.1) of the noodle extrusion module (2) being drivingly connected to the third output part (1.22); A motor slot is provided inside the clamping boss (1.31), the opening of the motor slot faces downward, and the side wall of the motor slot clamps and limits the upper portion of the dual-output motor (1.1). At the same time, a coupling limiting wall is provided at the inner end of the clamping groove (1.32), and the coupling limiting wall abuts and clamps the side of the third output portion (1.22) on the phase-changing coupling (1.2).

2. The cutting and matching machine according to claim 1, characterized in that: The rotation speed corresponding to the first output part (1.11) is greater than the rotation speed corresponding to the second output part (1.21), and the rotation speed corresponding to the second output part (1.21) is greater than the rotation speed corresponding to the third output part (1.22); The clamping protrusion (1.31) has a length direction extending in a first direction, and the clamping groove (1.32) has a length direction extending in a second direction, and the first direction and the second direction are interlaced.

3. The cutting and matching machine according to claim 1, characterized in that: The output direction of the first output part (1.11) is vertically upward, the output direction of the second output part (1.21) is vertically upward, and the output direction of the third output part (1.22) is arranged 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 horizontally arranged, and the opening direction of the second through hole (1.331) is vertically upward.

4. The cutting and matching machine according to claim 2, characterized in that: It also includes a dual-purpose support structure for a table and a slot, and the support structure includes: The upper shell (1.3) is internally coated with the transmission structure; A lower shell (1.4) is used to carry the upper shell (1.3) and the positioning handle (1.5), and is provided with a placement space (1.41) for facilitating placement of a container, wherein the placement space (1.41) is located below the upper shell (1.3); The positioning handle (1.5) is telescopically arranged between the upper shell (1.3) and the lower shell (1.4), and realizes positioning in a hidden state and a locked state through a positioning structure; The support structure (1.6) comprises a retractable support plate (1.61) arranged at the lower end of the lower shell (1.4); the support plate (1.61) is exposed below the placement space (1.41) when extended and is hidden at the lower end surface of the lower shell (1.4) when retracted.

5. The cutting and matching machine according to claim 4, characterized in that: The positioning structure comprises a positioning buckle (1.51) and a positioning hole group (1.52); The positioning hole group (1.52) comprises a plurality of positioning holes, the plurality of positioning holes being arranged on the side arm (1.54) of the positioning handle (1.5) at intervals along the telescopic direction of the positioning handle (1.5), and the positioning buckle (1.51) is inserted into the corresponding positioning hole to achieve positioning.

6. The cutting and matching machine according to claim 5, characterized in that: The positioning hole group (1.52) is composed of hidden positioning holes (1.521) and locking positioning holes (1.522); The hidden positioning hole (1.521) is arranged close to the end of the positioning handle (1.5) that is clamped on the water tank; The locking positioning hole (1.522) is arranged at an end away from the positioning handle (1.5) that is locked to the water tank.

7. The cutting and matching machine according to claim 6, characterized in that: When in the locked position, the width of the power platform in the extension and retraction direction of the positioning handle (1.5) matches a span in the water tank.

8. The cutting and matching machine according to claim 4, characterized in that: Slide rails (1.62) extending along the telescopic direction of the support plate (1.61) are arranged on both sides of the support plate (1.61), and the support plate (1.61) performs telescopic movement along the slide rails (1.62).

9. The cutting and matching machine according to claim 8, characterized in that: A first stopper (1.63) is provided in the slide rail (1.62), the first stopper (1.63) restricts the extension range of the support plate (1.61) and enables the support plate (1.61) to be at least partially located at the lower end surface of the lower shell (1.4) when restricted.

10. The cutting and matching machine according to claim 9, characterized in that: A second stopper (1.64) is provided on the side of the support plate (1.61) where the first stopper (1.63) is located, and the first stopper (1.63) limits the extension range of the support plate (1.61) by abutting against the second stopper (1.64).

11. The cutting and matching machine according to claim 1, characterized in that: The noodle extrusion module (2) comprises a water tank (2.8), a noodle floc stirring structure and a noodle floc extrusion structure; the noodle floc stirring structure comprises a stirring rod (2.6); the noodle floc extrusion structure comprises a noodle extrusion screw (2.1) arranged in a noodle extrusion channel below the noodle kneading container (2.5), and the noodle extrusion channel is connected to the clamping groove (1.32).

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