Spinning type dicing assembly of food processor

Abstract

The utility model relates to the technical field of food dicing, and provides a spinning type dicing assembly of a food processor, which comprises a fixed cutter cylinder assembly fixed on a charging barrel and a movable cutter cylinder assembly rotatably sleeved on the periphery of the fixed cutter cylinder assembly, and an undulating slitting cutter and a vertical dicing cutter are arranged between the fixed cutter cylinder assembly and the movable cutter cylinder assembly; a material input channel and a material pelletizing output channel are arranged among the charging barrel, the fixed cutter barrel assembly and the movable cutter barrel assembly, and both the two channels are communicated with the cutting ends of the slitting cutter and the pelletizing cutter; materials enter through the input channel, the strip cutter cuts the materials into strips in the rotating process of the movable cutter cylinder assembly, the movable cutter cylinder assembly continuously flows and extrudes the strip-shaped materials to the position between the fixed cutter cylinder assembly and the pelletizing cutter, and the strip-shaped materials are pelletized through the pelletizing cutter after being extruded and finally output through the pelletizing output channel. By means of the design, the pelletizing efficiency is remarkably improved, the complex structure that transverse cutters and longitudinal cutters are arranged in a staggered mode in a traditional net cutter structure is reduced, and the number of parts and the production cost are reduced.

Description

TECHNICAL FIELD

[0001] The utility model relates to the technical field of food granulating, and particularly relates to a spinning pressure type granulating assembly of food processor. BACKGROUND

[0002] The existing roller cutter comprises a fixed cutter assembly fixed on a barrel, a movable cutter assembly rotating outside the fixed cutter assembly, material enters along the barrel feed end, the movable cutter assembly rotates and cuts the material through the cutting end, the cut material continuously flows to the fixed cutter assembly, the cut material is extruded by the movable cutter assembly and acts on the fixed cutter assembly, the fixed cutter assembly cuts the material, and the cut material is finally output through the fixed cutter assembly discharge end; the fixed cutter assembly is provided with a mesh cutter, the mesh cutter comprises horizontal knives and vertical knives arranged in a crisscross manner, a square opening for cutting is formed between the horizontal knives and the vertical knives, and the horizontal knives and the vertical knives are provided with a plurality of parts. SUMMARY

[0003] The utility model provides a spinning pressure type granulating assembly of food processor, through setting up the striping cutter of ups and downs and the vertical cutting grain cutter, realized the continuous processing flow of material first cutting strip then cutting grain. The striping cutter cuts the material into strips in the rotating process of the movable cutter assembly, and then the continuous rotation of the movable cutter assembly extrudes the strip material between the fixed cutter assembly and the cutting grain cutter, and finally completes the cutting grain and outputs. This design significantly improves the cutting grain efficiency, reduces the complex structure of the horizontal knives and the vertical knives arranged in a crisscross manner in the traditional mesh cutter structure, and reduces the number of parts and production cost.

[0004] A spinning pressure type granulating assembly of food processor designed for this purpose, comprising a fixed cutter assembly fixed on a barrel and a movable cutter assembly rotatably sleeved on the outer periphery of the fixed cutter assembly, wherein the fixed cutter assembly and the movable cutter assembly are provided with a striping cutter of ups and downs and a vertical cutting grain cutter;

[0005] The barrel, the fixed cutter assembly and the movable cutter assembly are provided with a material input channel and a material cutting grain output channel, and both channels communicate with the cutting end of the striping cutter and the cutting grain cutter;

[0006] The material enters through the input channel, the striping cutter cuts the material into strips in the rotating process of the movable cutter assembly, the movable cutter assembly continuously flows and extrudes the strip material between the fixed cutter assembly and the cutting grain cutter, the strip material is cut by the cutting grain cutter after extrusion and finally output through the cutting grain output channel.

[0007] In the cutting grain state of the striping cutter and the cutting grain cutter during the rotation of the movable cutter assembly, the cutting end of the striping cutter is horizontally arranged above the cutting end of the cutting grain cutter, and the cutting end of the cutting grain cutter is vertically arranged below the cutting end of the striping cutter.

[0008] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0009] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0010] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0011] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0012] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0013] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0014] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0015] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0016] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0017] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0018] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0019] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0020] The cutting knife is arranged on the fixed cutter barrel assembly, and the fixed cutter barrel assembly is provided with a first opening communicating with the material input channel and the material cutting output channel.

[0021] The fixed cutter cylinder assembly and the moving cutter cylinder assembly are detachably connected, and the fixed cutter cylinder assembly and the moving cutter cylinder assembly are installed together to form a detachably mounted spinning pelletizing assembly on the material cylinder.

[0022] The fixed cutter cylinder assembly is disposed in the inner cavity of the moving cutter cylinder assembly. The fixed cutter cylinder assembly and the moving cutter cylinder assembly are rotatably connected. The fixed cutter cylinder assembly is provided with a connecting groove, and the moving cutter cylinder assembly is provided with a connecting shaft that is inserted into the connecting groove. The connecting groove and the connecting shaft form a detachable connection mating part between the two cutter cylinder assemblies.

[0023] The beneficial technical effects of this utility model are as follows:

[0024] By incorporating undulating strip-cutting blades and vertical pelletizing blades, a continuous processing flow of material is achieved, first cutting into strips and then into pellets. The strip-cutting blades cut the material into strips as the moving blade cylinder assembly rotates. The continued rotation of the moving blade cylinder assembly then compresses the strips between the fixed blade cylinder assembly and the pelletizing blades, ultimately completing the pelletizing process and outputting the pellets. This design significantly improves pelletizing efficiency, reduces the complex structure of traditional mesh blade structures with alternating horizontal and vertical blades, and lowers the number of parts and production costs. Attached Figure Description

[0025] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0026] Figure 1 This is a schematic diagram of the assembly structure of the feed cylinder and pelletizing assembly according to an embodiment of the present invention.

[0027] Figure 2 This is an exploded view of the assembly structure of the feed cylinder and pelletizing assembly according to an embodiment of the present invention.

[0028] Figure 3 This is a schematic diagram of the fixed blade cylinder assembly according to an embodiment of the present invention.

[0029] Figure 4 This is a structural schematic diagram showing the disassembly of the moving blade cylinder assembly and the cutting blade according to an embodiment of the present invention.

[0030] Figure 5 This is a structural diagram showing the disassembled assembly of the moving blade cylinder assembly, blade holder, and slicing blade according to an embodiment of the present invention.

[0031] Figure 6 This is a three-dimensional cross-sectional structural diagram of the moving blade cylinder assembly, blade holder, and slicing blade assembly according to an embodiment of the present invention.

[0032] Figure 7 for Figure 6 Enlarged view of point A in the middle.

[0033] Figure 8 This is a schematic diagram of the three-dimensional cross-sectional structure of the assembly of the feed cylinder and the pelletizing component according to an embodiment of the present invention. DETAILED DESCRIPTION

[0034] The technical solutions in the embodiments of the utility model will be apparently and completely described below in combination with the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, rather than all the embodiments. In order to make the above-mentioned purposes, features and advantages of the present application more obvious and easy to understand, a lot of specific details are set forth in the following description so as to fully understand the present application. However, the present application can be implemented in many other ways different from those described herein, and those skilled in the art can make similar improvements without departing from the connotation of the present application, therefore, the present application is not limited by the specific embodiments disclosed below.

[0035] Reference Figures 1-8 A rotary cutting granulating assembly of a food processor, comprising a fixed cutter barrel assembly 2 fixed on a barrel 1 and a rotating cutter barrel assembly 3 rotatably sleeved on the outer periphery of the fixed cutter barrel assembly 2, wherein a strip cutting knife 6 and a vertical cutting granulating knife 7 are arranged between the fixed cutter barrel assembly 2 and the rotating cutter barrel assembly 3;

[0036] The barrel 1, the fixed cutter barrel assembly 2 and the rotating cutter barrel assembly 3 are provided with a material input channel 4 and a material cutting granulating output channel 5, and both channels are communicated with the cutting ends of the strip cutting knife 6 and the cutting granulating knife 7;

[0037] The material enters through the input channel 4, the strip cutting knife 6 cuts the material into strips during the rotation of the rotating cutter barrel assembly 3, the rotating cutter barrel assembly 3 continuously rotates and extrudes the strip-shaped material between the fixed cutter barrel assembly 2 and the cutting granulating knife 7, the strip-shaped material is cut into granules by the cutting granulating knife 7 after extrusion and finally output through the cutting granulating output channel 5.

[0038] By arranging the strip cutting knife 6 and the vertical cutting granulating knife 7, a continuous processing flow of cutting strips first and then cutting granules is realized. The strip cutting knife 6 cuts the material into strips during the rotation of the rotating cutter barrel assembly 3, then the continuous rotation of the rotating cutter barrel assembly 3 extrudes the strip-shaped material between the fixed cutter barrel assembly 2 and the cutting granulating knife 7, and finally completes the cutting granulation and output. This design significantly improves the cutting granulation efficiency, reduces the complex structure of the traditional cross-knife and longitudinal-knife staggered arrangement in the traditional mesh-knife structure, and reduces the number of parts and production cost.

[0039] In the state of cooperating with the cutting granulating knife 7 during the rotation of the rotating cutter barrel assembly 3, the cutting end of the strip cutting knife 6 is horizontally arranged above the cutting end of the cutting granulating knife 7, and the cutting end of the cutting granulating knife 7 is vertically arranged below the cutting end of the strip cutting knife 6;

[0040] The cooperation of the strip cutting knife 6 and the cutting granulating knife 7 further optimizes the cutting granulation effect. The cutting end of the strip cutting knife 6 is horizontally arranged above the cutting end of the cutting granulating knife 7, and the cutting end of the cutting granulating knife 7 is vertically arranged, forming an efficient cutting level structure.

[0041] The cutting knife 7 is arranged on the fixed cutter barrel assembly 2, and the fixed cutter barrel assembly 2 is provided with a first opening 2.1 communicating the material input channel 4 and the material cutting output channel 5, and the cutting knife 7 is arranged on the first opening 2.1.

[0042] The cutting knife 7 is arranged on the fixed cutter barrel assembly 2, and the fixed cutter barrel assembly 2 is provided with a first opening 2.1 communicating the material input channel 4 and the material cutting output channel 5, and the cutting knife 7 is arranged on the first opening 2.1.

[0043] The first opening 2.1 on the fixed cutter barrel assembly 2 provides a mounting space for the cutting knife 7, and the cutting channel 8 formed between the adjacent two cutting knives 7 ensures that the cut material can be quickly discharged. The design of the first opening 2.1 facilitates the installation and maintenance of the cutting knife 7, and the connectivity of the cutting channel 8 avoids material accumulation, eliminating the need for a net-shaped design structure on the fixed cutter barrel assembly 2.

[0044] In this embodiment, the movable cutter barrel assembly 3 is detachable from the fixed cutter barrel assembly 2. When the cutting shape and size need to be adjusted, the fixed cutter barrel assembly 2 needs to be replaced. In this embodiment, multiple fixed cutter barrel assemblies 2 with the same shape can be configured, with the difference being that the spacing between the two cutting knives 7 of each fixed cutter barrel assembly 2 is different. Alternatively, when the cutting shape and size need to be adjusted, the entire assembled cutting assembly is replaced, which is equivalent to replacing the entire cutting assembly (fixed cutter barrel assembly 2 and movable cutter barrel assembly 3) on the barrel 1.

[0045] The cutting knife 7 is detachably mounted on the fixed cutter barrel assembly 2; or the cutting knife 7 is not detachable from the fixed cutter barrel assembly 2.

[0046] The detachable or non-detachable design of the cutting knife 7 provides flexible assembly options to meet different user needs. The positioning groove 2.2 ensures the precise fixing of the end of the cutting knife 7, avoiding displacement or loosening during cutting, thereby ensuring the stability of the cutting. The cooperation design of the first opening 2.1 and the positioning groove 2.2 simplifies the installation process of the cutting knife 7 and reduces the maintenance difficulty. For the detachable version, users can easily replace the worn cutting knife 7, prolonging the service life of the equipment; for the non-detachable version, the loosening risk is reduced, suitable for high-intensity continuous operation. This modular design improves the versatility and reliability of the product.

[0047] The fixed cutter barrel assembly 2 is provided with a first opening 2.1 for mounting the cutting knife 7, and the first opening 2.1 is provided with a positioning groove 2.2 corresponding to both ends of the cutting knife 7, and the end of the cutting knife 7 is detachably mounted on the positioning groove 2.2.

[0048] Due to the upward opening of the positioning groove 2.2, the cutting knife 7 is always positioned on the positioning groove 2.2 under the action of gravity when inserted. In the detachable design, the cutting knife 7 is in clearance fit with the positioning groove 2.2, ensuring that the user removes the cutting knife 7 upward from the positioning groove 2.2. When removing, the user can wrap a cloth around the cutting end of the cutting knife 7 to avoid cutting the user. The cloth also increases the frictional contact force between the user and the cutting knife 7. The groove width of the positioning groove 2.2 is matched with the thickness of the bottom of the cutting knife 7. The cutter barrel assembly 2 is made of elastic plastic, so the positioning groove 2.2 has a certain elasticity to meet the repeated disassembly and assembly in the detachable design.

[0049] The cutter barrel assembly 2 is provided with a cavity communicating with the first opening 2.1, and the cavity of the cutter barrel assembly 2 forms a material cutting particle output channel 5.

[0050] The cavity design of the cutter barrel assembly 2 forms a material cutting particle output channel 5, which optimizes the discharge path of the cut material. The communication between the cavity and the first opening 2.1 ensures that the cut material can quickly enter the output channel, avoiding the problem of residue or blockage.

[0051] The cutter barrel assembly 2 is provided with a fastening member 2.3 fastened on the barrel 1.

[0052] The design of the fastening member 2.3 realizes the quick fixing or separation of the cutter barrel assembly 2 and the barrel 1, simplifying the assembly and cleaning process. The elastic property of the fastening member 2.3 enables it to tightly fit the barrel 1, avoiding vibration or displacement during cutting, ensuring the stability of the equipment. This screw-free fixing method reduces tool dependence and improves user operation convenience. In addition, the durability design of the fastening member 2.3 is suitable for frequent disassembly scenarios, prolonging the service life of the equipment.

[0053] The barrel 1 includes a transverse barrel 1.1, and the fastening member 2.3 has elasticity, and the cutter barrel assembly 2 is fixed or separated from the transverse barrel 1.1 through elastic deformation of the fastening member 2.3.

[0054] The elastic deformation property of the fastening member 2.3 enables the cutter barrel assembly 2 to be disassembled and assembled on the transverse barrel 1.1 multiple times, enhancing the compatibility of the equipment. Through the fixed or separated mechanism realized by elastic deformation, the user can easily complete the installation or disassembly of the cutter barrel assembly 2 without additional tools.

[0055] The barrel 1 includes a vertical barrel 1.2, the vertical barrel 1.2 communicates with the transverse barrel 1.1, and the vertical barrel 1.2 and the transverse barrel 1.1 form an L shape, and the material input channel 4 is arranged in the vertical barrel 1.2.

[0056] The L-shaped layout of the vertical cylinder 1.2 and the transverse cylinder 1.1 optimizes the space utilization of the material input channel 4 and reduces the equipment occupation area. The material enters vertically through the vertical cylinder 1.2 and then passes through the pelletizing assembly in the transverse cylinder 1.1, forming an efficient material pelletizing flow path, which avoids material backflow or accumulation. The vertical feeding mode of the vertical cylinder 1.2 also facilitates user feeding and improves the operation experience.

[0057] The cutting knife 6 is installed on the moving knife cylinder assembly 3, and the side of the cutting knife 6 is continuously undulating. The cutting end of the cutting knife 6 is arranged on the top of the cutting knife 6.

[0058] The cutting end of the cutting knife 6 is flat or beveled.

[0059] The continuous undulating design of the cutting knife 6 realizes the cutting of the material. The rotation of the moving knife cylinder assembly 3 drives the cutting knife 6 to complete efficient cutting, and the undulating structure increases the cutting contact surface and improves the efficiency. The cutting end arranged on the top of the cutting knife 6 ensures the concentration of cutting force and reduces material adhesion. This design is particularly suitable for processing hard vegetables such as carrots and cucumbers, ensuring the neatness of the cutting.

[0060] The moving knife cylinder assembly 3 is provided with a knife holder 9. The cutting knife 6 includes a plurality of first undulating positions 6.1 protruding outward from the moving knife cylinder assembly 3 and a plurality of second undulating positions 6.2 protruding inward from the moving knife cylinder assembly 3. The second undulating positions 6.2 are arranged between adjacent first undulating positions 6.1. The knife holder 9 is provided with mounting grooves 9.1 corresponding to the first undulating positions 6.1 of the cutting knife 6. The knife holder 9 is provided with insertion groove positions 9.2 corresponding to the second undulating positions 6.2 of the cutting knife 6.

[0061] The moving knife cylinder assembly 3 is provided with a second opening 3.1. The knife holder 9 is detachably mounted on the second opening 3.1. The moving knife cylinder assembly 3 is provided with insertion grooves 3.2 corresponding to the edges of the knife holder 9. The edges of the knife holder 9 are inserted into the insertion grooves 3.2.

[0062] The knife holder 9 is provided with a reverse buckle 9.3 that is buckled on the moving knife cylinder assembly 3. The knife holder 9 is fixed or detached from the moving knife cylinder assembly 3 through the elastic deformation of the reverse buckle 9.3.

[0063] The cooperation of the knife holder 9 and the first undulating positions 6.1 and the second undulating positions 6.2 of the cutting knife 6 realizes the stable installation of the cutting knife 6. The layout of the mounting grooves 9.1 and the insertion groove positions 9.2 ensures the accurate positioning of the cutting knife 6, avoiding shaking during cutting. The elastic fixing mechanism of the insertion grooves 3.2 on the moving knife cylinder assembly 3 and the reverse buckle 9.3 simplifies the disassembly and assembly process of the knife holder 9, facilitating cleaning or replacement. This modular design improves maintenance efficiency while ensuring the stability of cutting.

[0064] The fixed cutter barrel assembly 2 is detachably connected with the movable cutter barrel assembly 3, and the fixed cutter barrel assembly 2 and the movable cutter barrel assembly 3 are installed and constitute a spinning type grain cutting assembly which is detachably installed on the barrel 1.

[0065] The fixed cutter barrel assembly 2 is arranged in the inner cavity of the movable cutter barrel assembly 3, and the fixed cutter barrel assembly 2 is rotationally connected with the movable cutter barrel assembly 3, and the fixed cutter barrel assembly 2 is provided with a connecting groove 2.4, and the movable cutter barrel assembly 3 is provided with a connecting shaft 3.3 which is inserted into the connecting groove 2.4.

[0066] The connecting groove 2.4 and the connecting shaft 3.3 form a detachable connecting and matching part between the two cutter barrel assemblies.

[0067] The detachable connecting and matching of the fixed cutter barrel assembly 2 and the movable cutter barrel assembly 3 enables the whole spinning type grain cutting assembly to be conveniently installed or detached on the barrel 1, greatly improving the assembly flexibility and maintenance convenience of the equipment. The fixed cutter barrel assembly 2 is rotationally connected with the connecting shaft 3.3 of the movable cutter barrel assembly 3 through the connecting groove 2.4, which ensures the stable rotation of the movable cutter barrel assembly 3 and maintains the accurate alignment of the two cutter barrel assemblies. The detachable connecting and matching part formed by the connecting groove 2.4 and the connecting shaft 3.3 not only simplifies the structure design, but also reduces the processing and assembly difficulty, making the equipment easier to clean and replace the worn parts. This modular design is particularly suitable for frequent disassembly and assembly scenes such as cleaning after food processing or blade replacement, effectively prolonging the service life of the equipment. In addition, this connection method reduces the risk of loosening, improves the stability of the cutting process, ensures the uniformity of the grain size, and is suitable for high-precision food processing requirements.

[0068] The above is only a preferred embodiment of the present application, and is not intended to limit the present application. Any modification, equivalent replacement, improvement, etc. made within the spirit and principles of the present application shall be included in the protection scope of the present application.

Claims

1. A spinning pelletizing assembly for a food processor, comprising a fixed blade assembly (2) fixed to a feed cylinder (1) and a rotating blade assembly (3) sleeved around the outer periphery of the fixed blade assembly (2), characterized in that: Between the fixed blade cylinder assembly (2) and the moving blade cylinder assembly (3), there are undulating strip cutting blades (6) and vertical pellet cutting blades (7). The material cylinder (1), the fixed blade cylinder assembly (2) and the moving blade cylinder assembly (3) are provided with a material input channel (4) and a material pelletizing output channel (5), and both channels are connected to the cutting ends of the strip cutter (6) and the pellet cutter (7); Material enters through input channel (4), and the cutting knife (6) cuts the material into strips during the rotation of the moving knife cylinder assembly (3). The moving knife cylinder assembly (3) continues to rotate and squeezes the strip-shaped material between the fixed knife cylinder assembly (2) and the pelletizing knife (7). After being squeezed, the strip-shaped material is pelletized by the pelletizing knife (7) and finally output through the pelletizing output channel (5).

2. The spinning pelletizing assembly of the food processor according to claim 1, characterized in that: When the moving knife cylinder assembly (3) rotates and is in the granulation state in cooperation with the granulator (7), the cutting end of the cutting knife (6) is arranged horizontally above the granulator (7), and the cutting end of the granulator (7) is arranged vertically below the cutting knife (6). The pelletizing blade (7) is mounted on the fixed blade cylinder assembly (2), which has a first opening (2.1) connecting the material input channel (4) and the material pelletizing output channel (5). The pelletizing blade (7) is mounted on the first opening (2.1). The pelletizing blade (7) is provided in several parts, and a pelletizing channel (8) is formed between two adjacent pelletizing blades (7) to connect the material pelletizing output channel (5).

3. The spinning pelletizing assembly of the food processor according to claim 1, characterized in that: The pelletizing blade (7) is detachably mounted on the fixed blade cylinder assembly (2); or, the pelletizing blade (7) is not detachable from the fixed blade cylinder assembly (2); The fixed blade cylinder assembly (2) is provided with a first opening (2.1) for installing the pelletizing blade (7). The first opening (2.1) is provided with positioning grooves (2.2) at both ends of the pelletizing blade (7). The end of the pelletizing blade (7) is detachably installed on the positioning groove (2.2).

4. The spinning pelletizing assembly of the food processor according to claim 3, characterized in that: The fixed blade cylinder assembly (2) is provided with a cavity that connects to the first opening (2.1), and the cavity of the fixed blade cylinder assembly (2) forms a material pelletizing output channel (5).

5. The spinning pelletizing assembly of the food processor according to claim 1, characterized in that: The fixed blade cylinder assembly (2) is provided with a fastening element (2.3) that is fastened to the material cylinder (1).

6. The spinning pelletizing assembly of the food processor according to claim 5, characterized in that: The material cylinder (1) includes a transverse cylinder (1.1) and a fastener (2.3) is elastic. The fixed blade cylinder assembly (2) is fixed or detached from the transverse cylinder (1.1) by the elastic deformation of the fastener (2.3).

7. The spinning pelletizing assembly of the food processor according to claim 6, characterized in that: The material cylinder (1) includes a vertical cylinder (1.2), which is connected to a horizontal cylinder (1.1), and the vertical cylinder (1.2) and the horizontal cylinder (1.1) are in an L-shape. The material input channel (4) is located inside the vertical cylinder (1.2).

8. The spinning pelletizing assembly of the food processor according to claim 1, characterized in that: The cutting blade (6) is mounted on the moving blade cylinder assembly (3), and the side of the cutting blade (6) is continuously undulating, with the cutting end of the cutting blade (6) located on the top of the cutting blade (6); The cutting end of the slicing blade (6) is set in a planar or inclined shape.

9. The spinning pelletizing assembly of the food processor according to claim 8, characterized in that: The moving blade cylinder assembly (3) is provided with a blade holder (9). The slicing blade (6) includes several first undulating positions (6.1) protruding outward from the moving blade cylinder assembly (3) and second undulating positions (6.2) protruding inward from the moving blade cylinder assembly (3). The second undulating positions (6.2) are located between two adjacent first undulating positions (6.1). The blade holder (9) is provided with a mounting groove (9.1) corresponding to the first undulating position (6.1) of the slicing blade (6), and the blade holder (9) is provided with a slot (9.2) corresponding to the second undulating position (6.2) of the slicing blade (6). The moving blade cylinder assembly (3) is provided with a second opening (3.1), and the blade holder (9) is detachably installed on the second opening (3.1). The inner side of the moving blade cylinder assembly (3) is provided with insertion grooves (3.2) corresponding to the two sides of the blade holder (9), and the two sides of the blade holder (9) are inserted into the insertion grooves (3.2). The tool holder (9) is provided with a buckle (9.3) that engages with the moving tool cylinder assembly (3). The tool holder (9) is fixed or disengaged from the moving tool cylinder assembly (3) by the elastic deformation of the buckle (9.3).

10. The spinning pelletizing assembly of the food processor according to claim 1, characterized in that: The fixed blade cylinder assembly (2) and the moving blade cylinder assembly (3) are detachably connected. The fixed blade cylinder assembly (2) and the moving blade cylinder assembly (3) are installed and constitute a detachably installed spinning pelletizing assembly on the material cylinder (1). The fixed cutter cylinder assembly (2) is disposed in the inner cavity of the moving cutter cylinder assembly (3). The fixed cutter cylinder assembly (2) and the moving cutter cylinder assembly (3) are rotatably connected. The fixed cutter cylinder assembly (2) is provided with a connecting groove (2.4). The moving cutter cylinder assembly (3) is provided with a connecting shaft (3.3) inserted into the connecting groove (2.4). The connecting groove (2.4) and the connecting shaft (3.3) form a detachable connection mating part between the two cutter cylinder assemblies.

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