A molding device for an intelligent blender

Abstract

The present invention discloses a forming device for an intelligent blender, belonging to the technical field of injection molding. It includes a forming injection table and an injection device. An assembly die base is arranged on the forming injection table, and a lower die barrel part is arranged on the assembly die base. The assembly die base is connected by an electric control driving part to a die base that is used in cooperation with the lower die barrel part. The forming injection table is connected by a support part to an upper injection table, the upper injection table is connected by a mold closing push rod to an outer assembly sleeve, and the outer assembly sleeve is connected by a pressure linkage part to an upper die barrel part. In the present invention, the accessories of the blender are integrally injection molded. The chopping blade is directly combined with the stirring shaft, avoiding the gaps generated by traditional snap connection or screw assembly, solving the problems of difficult cleaning and sanitary dead corners, significantly improving the use hygiene and experience. The integrated forming process makes the chopping blade and the stirring shaft form a seamless connection, fundamentally eliminating the hidden danger of accessory loosening during long-term use, and improving the durability and safety of the equipment.

Description

Technical Field

[0001] The present invention relates to the technical field of injection molding, and particularly relates to a molding device for an intelligent blender. Background Art

[0002] With the continuous increase in the functions of intelligent blenders, different accessories are used corresponding to different food ingredients. Among them, the commonly used accessory in the blender is a chopping blade, which can meet the chopping processing of various food ingredients. A plurality of chopping blades are provided and evenly distributed on the stirring shaft. Currently, the common connection method between the chopping blade and the stirring shaft is mostly post-assembly (snap-fit assembly, screw installation), which makes there be a gap between the chopping blade and the stirring shaft. The existence of the gap makes cleaning extremely inconvenient, and there are sanitary dead corners that affect the use experience of the blender. Moreover, in the assembly and processing of the chopping blade and the stirring shaft, loosening will occur during long-term use. Based on this, a molding device for an intelligent blender is proposed. Summary of the Invention

[0003] The purpose of the present invention is to solve the problems existing in the prior art, and a molding device for an intelligent blender is proposed.

[0004] In order to achieve the above purpose, the present invention adopts the following technical solutions:

[0005] A molding device for an intelligent blender, including a molding injection table and an injection device. An assembly mold base is arranged on the molding injection table. A lower mold cylinder part is arranged on the assembly mold base. A mold base that cooperates with the lower mold cylinder part is connected in the assembly mold base through an electric control driving part. The molding injection table is connected with an upper injection table through a support part. The upper injection table is connected with an outer assembly sleeve through a mold closing push rod. The outer assembly sleeve is connected with an upper mold cylinder part through a pressure linkage part. The upper mold cylinder part is connected with the injection device through an injection pipeline. The upper mold cylinder part is connected with the lower mold cylinder part through a mold closing part;

[0006] A plurality of corresponding slots are opened at the bottom of the outer assembly sleeve. A deflection assembly part is connected to the inner wall of the corresponding slot through a torque transmission disk. An assembly power device for driving the torque transmission disk is arranged in the outer assembly sleeve;

[0007] The assembly mold base is connected with a plurality of vertical rotating shafts through a feeding driving device. Feeding disks are arranged on the vertical rotating shafts. A plurality of molding feeding parts are evenly arranged on the feeding disks. A cooling cover body is arranged on the assembly mold base. Burr-removing scraping blades are arranged on the side wall of the cooling cover body. An air-cooling assembly is arranged on the cooling cover body. Positioning ribs for guiding the deflection assembly part are arranged on the cooling cover body. A feeding window for the molding feeding part to penetrate through is opened on the side wall of the cooling cover body at the bottom of the positioning ribs.

[0008] Preferably, the electric control driving member includes a transmission port opened in the molding and injection platform. An electric push rod is arranged in the molding and injection platform. The output end of the electric push rod is rotatably connected with a pushing rotating shaft. The end of the pushing rotating shaft penetrates through the side wall of the assembly die base and extends upward, and is fixedly connected with the mold base.

[0009] Preferably, a straight tooth gear is fixedly connected to the outer side wall of the pushing rotating shaft. A rotating motor is arranged on the inner wall of the transmission port. The output end of the rotating motor is fixedly connected with a rotating gear meshed with the straight tooth gear.

[0010] Preferably, the pressure linkage member includes a sliding rectangular port opened on the inner side wall of the outer assembly sleeve. A sliding rectangular block is fixedly connected to the outer side wall of the upper mold cylinder member. The sliding rectangular block is located in the sliding rectangular port and is connected with the inner wall of the sliding rectangular port through a pressure continuous spring.

[0011] Preferably, the mold closing member includes a butting port opened on the lower mold cylinder member. A butting mold bar adapted to the butting port is arranged at the bottom of the upper mold cylinder member. An insertion port for inserting a chopping blade is opened at the bottom of the butting mold bar.

[0012] Preferably, the deviation assembly member includes a feeding rod connected to the torque transmission disc. A torque transmission member is arranged at the end of the feeding rod. The torque transmission member is adapted to the molding feeding member.

[0013] Preferably, the assembly power device includes an annular port opened in the outer assembly sleeve. A torsion tooth ring is rotatably connected to the inner wall of the annular port. The torsion tooth ring is meshed with a plurality of torsion gears. The torsion gears are connected with the torque transmission disc through torsion shafts. A torsion control motor is arranged on the inner side wall of the outer assembly sleeve. The output end of the torsion control motor is connected with a control gear.

[0014] Preferably, the molding feeding member includes a fan-shaped port opened in the feeding tray. A fan-shaped magnetic block is arranged inside the fan-shaped port. The fan-shaped magnetic block is connected with a clamping and rotating material member through an elastic telescopic rod. A clamping interface is opened on the clamping and rotating material member.

[0015] Preferably, magnetic repulsion fixing seats are arranged on both sides of the fan-shaped port. The magnetic repulsion fixing seats are magnetically repulsive to the opposite side walls of the fan-shaped magnetic block. A displacement detection member for measuring the moving distance of the fan-shaped magnetic block is arranged on the magnetic repulsion fixing seats.

[0016] Preferably, the feeding driving device includes a driving tooth ring rotatably arranged on the molding and injection platform. The vertical rotating shaft is rotatably arranged on the molding and injection platform and is meshed with the driving tooth ring through a feeding gear arranged on the outer side wall.

[0017] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0018] 1. In the present invention, the accessories of the blender are integrally injection molded, and the chopping blade is directly combined with the stirring shaft, avoiding the gaps generated by traditional snap - connection or screw assembly, solving the problems of difficult cleaning and sanitary dead - corners, significantly improving the hygiene and user experience during use. The integrated molding process enables the chopping blade and the stirring shaft to form a seamless connection, fundamentally eliminating the hidden danger of accessory loosening during long - term use, and enhancing the durability and safety of the equipment.

[0019] 2. In the present invention, the mold base is lifted by an electric push - rod to achieve demolding. The straight - meshing gear and the rotating motor are combined to drive rotation, synchronously completing demolding and deburring processes, reducing production steps. The feeding tray is used to automatically assemble the chopping blades. After molding, by reversing the feeding tray, the moving distance of the sector - shaped magnetic block is monitored by the magnetic repulsion fixing seat and the displacement detection component, automatically identifying the chopping blades that are not cured firmly and screening out unqualified products. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 FIG. is a three - dimensional structural schematic diagram of a molding device for an intelligent blender proposed by the present invention;

[0021] Figure 2 FIG. is an assembly structural schematic diagram of the upper mold cylinder part in a molding device for an intelligent blender proposed by the present invention;

[0022] Figure 3 is Figure 2 an enlarged structural schematic diagram of part A in

[0023] Figure 4 FIG. is a structural schematic diagram of the assembled mold base and the molding feeding part in a molding device for an intelligent blender proposed by the present invention;

[0024] Figure 5 FIG. is an assembly structural schematic diagram of the electric control driving part and the lower mold cylinder part in a molding device for an intelligent blender proposed by the present invention;

[0025] Figure 6 FIG. is a connection relationship schematic diagram of the electric control driving part and the lower mold cylinder part in a molding device for an intelligent blender proposed by the present invention;

[0026] Figure 7 FIG. is an internal structural schematic diagram of the feeding tray in a molding device for an intelligent blender proposed by the present invention;

[0027] Figure 8 FIG. is a cross - sectional structural schematic diagram of the outer assembly sleeve in a molding device for an intelligent blender proposed by the present invention.

[0028] In the figure: 1, forming injection molding table; 2, assembly die base; 3, lower die barrel part; 4, die base; 5, upper injection molding table; 6, die closing push rod; 7, outer assembly sleeve; 8, upper die barrel part; 9, corresponding notch; 10, torque transmission disc; 11, vertical rotating shaft; 12, feeding tray; 13, cooling cover; 14, positioning rib; 15, feeding window; 16, electric push rod; 17, driving rotating shaft; 18, straight meshing gear; 19, rotating motor; 20, sliding rectangular opening; 21, sliding rectangular block; 22, docking die bar; 23, insertion interface; 24, feeding rod; 25, torque transmission part; 26, torsion gear ring; 27, torsion gear; 28, torsion shaft; 29, torsion regulation motor; 30, fan-shaped magnetic block; 31, elastic telescopic rod; 32, clamping and rotating material part; 33, magnetic repulsion fixing seat; 34, displacement detection part; 35, driving gear ring; 36, feeding gear; 37, deburring scraping edge. Detailed implementation manner

[0029] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0030] In the description of the present invention, it should be noted that the orientation or positional relationship indicated by the terms "upper", "lower", "inner", "outer", "top / bottom end", etc. is based on the orientation or positional relationship shown in the drawings, and is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation to the present invention. In addition, the terms "first" and "second" are only used for descriptive purposes and cannot be understood as indicating or implying relative importance.

[0031] In the description of the present invention, it should be noted that unless otherwise clearly specified and limited, the terms "installation", "provided with", "sheathed / connected", "connected", etc. should be understood in a broad sense. For example, "connected" can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be directly connected or indirectly connected through an intermediate medium, and it can be the internal communication of two elements. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific situations.

[0032] Example, refer to Figures 1 to 8, A forming device for an intelligent blender, including a forming injection platform 1 and an injection device. The injection device is prior art and will not be elaborated here in detail. It realizes injecting molten material into an injection mold. An assembly mold base 2 is arranged on the forming injection platform 1, and a lower mold cylinder part 3 is arranged on the assembly mold base 2. Inside the assembly mold base 2, there is a mold base 4 that is connected to the lower mold cylinder part 3 through an electric control driving part. The mold base 4 is provided with a cross-shaped protrusion for fitting and connecting with the injected mixing shaft.

[0033] Furthermore, the electric control driving part includes a transmission port opened inside the forming injection platform 1. An electric push rod 16 is arranged inside the forming injection platform 1. The electric push rod 16 drives the driving rotating shaft 17 connected to it to move upward, which can realize pushing the mold base 4 upward, so as to achieve the effect of demolding the formed mixing blade. The output end of the electric push rod 16 is rotatably connected to a driving rotating shaft 17. The end of the driving rotating shaft 17 penetrates through the side wall of the assembly mold base 2 and extends upward, and is fixedly connected to the mold base 4. A straight meshing gear 18 is fixedly connected to the outer side wall of the driving rotating shaft 17. The inner wall of the transmission port is provided with a rotating motor 19, and the output end of the rotating motor 19 is fixedly connected to a rotating gear that meshes with the straight meshing gear 18.

[0034] With the above further improvement, when the electric push rod 16 drives the mold base 4 to move upward, it can realize moving the formed chopping blade and the mixing shaft upward for demolding. When moving to the deburring scraping edge 37, the straight meshing gear 18 meshes with the rotating gear. Under the driving action of the rotating motor 19, it realizes driving the mold base 4 to rotate, thereby driving the formed chopping blade and the mixing shaft to rotate. During the rotation process, the deburring scraping edge 37 removes the injection burrs at the connection between the chopping blade and the mixing shaft to achieve the post-forming treatment.

[0035] The forming injection platform 1 is connected to an upper injection platform 5 through a support member. The upper injection platform 5 is connected to an outer assembly sleeve 7 through a mold closing push rod 6. The outer assembly sleeve 7 is connected to an upper mold cylinder part 8 through a pressure linkage part. Furthermore, the pressure linkage part includes a sliding rectangular port 20 opened on the inner side wall of the outer assembly sleeve 7. A sliding rectangular block 21 is fixedly connected to the outer side wall of the upper mold cylinder part 8. The sliding rectangular block 21 is located inside the sliding rectangular port 20 and is connected to the inner wall of the sliding rectangular port 20 through a pressure continuous spring.

[0036] It should be noted that the upper mold cylinder part 8 is slidably connected to the outer assembly sleeve 7. Under the action of the mold closing push rod 6, the upper mold cylinder part 8 will close the mold with the lower mold cylinder part 3 first. After the mold is closed, when the mold closing push rod 6 continuously pushes the outer assembly sleeve 7, the outer assembly sleeve 7 will move downward, so as to approach the insertion interface 23 and complete the preparation work for inserting the chopping blade into the insertion interface 23.

[0037] The upper mold cylinder part 8 is connected to the injection molding device through an injection molding pipeline. The upper mold cylinder part 8 is connected to the lower mold cylinder part 3 through a mold clamping part. The upper mold cylinder part 8, the mold clamping part and the lower mold cylinder part 3 form an injection mold to realize the injection molding of the stirring shaft. The mold clamping part includes a docking port opened on the lower mold cylinder part 3. The bottom of the docking mold bar 22 is provided with an insertion port 23 for the cutting blade to be inserted. The insertion port 23 is arranged on the docking mold bar 22. After demolding, the cutting blade can rotate evenly at the docking port. At this time, the displacement requirement for detecting the firmness of the cutting blade can be met. The bottom of the upper mold cylinder part 8 is provided with a docking mold bar 22 adapted to the docking port. The cooperation of the docking port and the docking mold bar 22 realizes the effect of mold clamping.

[0038] The bottom of the outer assembly sleeve 7 is provided with a plurality of corresponding slots 9. The inner wall of the corresponding slot 9 is connected with a bias assembly through a torque transmission disk 10. Further, the bias assembly includes a feeding rod 24 connected to the torque transmission disk 10. The end of the feeding rod 24 is provided with a torque transmission part 25, and the torque transmission part 25 is adapted to the forming feeding part.

[0039] An assembly power device for driving the torque transmission disk 10 is arranged inside the outer assembly sleeve 7. The assembly power device includes an annular port opened inside the outer assembly sleeve 7. The inner wall of the annular port is rotatably connected with a torsion gear ring 26. The torsion gear ring 26 is meshed with a plurality of torsion gears 27. The torsion gears 27 are connected to the torque transmission disk 10 through torsion shafts 28. A torsion regulation motor 29 is arranged on the inner side wall of the outer assembly sleeve 7, and the output end of the torsion regulation motor 29 is connected with a regulation gear.

[0040] The assembly mold base 2 is connected with a plurality of vertical rotating shafts 11 through a feeding driving device. Further, the feeding driving device includes a driving gear ring 35 rotatably arranged on the forming injection molding table 1. The driving gear ring 35 is driven to rotate by a gear connected to an external motor. The vertical rotating shafts 11 are rotatably arranged on the forming injection molding table 1 and are meshed with the driving gear ring 35 through feeding gears 36 arranged on the outer side walls.

[0041] Feeding disks 12 are arranged on the vertical rotating shafts 11. A plurality of forming feeding parts are evenly arranged on the feeding disks 12. Further, the forming feeding parts include fan-shaped ports opened inside the feeding disks 12. Fan-shaped magnetic blocks 30 are arranged inside the fan-shaped ports. The fan-shaped magnetic blocks 30 are connected with clamping and transferring parts 32 through elastic telescopic rods 31. Clamping interfaces are arranged on the clamping and transferring parts 32;

[0042] It should be noted that the root of the cutting blade is wider and the end far from the injection molding stirring shaft is sharper. Therefore, the clamping interface can realize the clamping of the tip of the cutting blade, realize the clamping and fixing of the cutting blade, and can realize the automatic detachment from the tip of the cutting blade when the feeding disk 12 rotates;

[0043] Magnetic repulsion fixing seats 33 are arranged on both sides of the sector-shaped opening. The magnetic repulsion fixing seats 33 and the opposite side walls of the sector-shaped magnetic block 30 magnetically repel each other. A displacement detection member 34 for measuring the moving distance of the sector-shaped magnetic block 30 is arranged on the magnetic repulsion fixing seats 33.

[0044] It should be noted that the magnetic repulsion fixing seats 33 on both sides generate the same magnetic repulsion force on the fan-shaped magnetic block 30, thereby ensuring that the fan-shaped magnetic block 30 can be kept in the center position without being affected by external forces. When the loading disc 12 reverses and the shredding blade generates resistance, it will drive the fan-shaped magnetic block 30 to rotate, and the shredding blade that is not firmly connected will be driven to move during the reversal, and the resistance generated is small or no resistance. At this time, the difference in moving distance can be identified by the displacement detection component 34, and the detection result can be obtained, so it can be realized to identify whether the curing strength of the shredding blade meets the standard.

[0045] A cooling cover 13 is provided on the assembly mold base 2, and a deburring scraper 37 is provided on the side wall of the cooling cover 13. A positioning rib 14 for guiding the deflected assembly is provided on the cooling cover 13. A loading window 15 for the forming loading parts to pass through is provided on the side wall of the cooling cover 13 located at the bottom of the positioning rib 14. In this scheme, when the loading disc 12 rotates forward, it will automatically separate from the firmly installed shredding blade.

[0046] When the stirring blade is integrally formed in the present invention, during the demoulding stage, the chopping blades are installed one by one on the outside through the fixing transfer piece 32, so that the chopping blades are installed one by one on the fixing transfer piece 32, and the preparation of the chopping blades is completed;

[0047] When the stirring shaft is injection molded, the upper mold barrel 8 is driven downward by the mold closing push rod 6, and is gradually closed with the lower mold barrel 3. When the mold is closed, the docking mold strip 22 will be assembled with the docking interface. At this time, the mold closing push rod 6 continues to move downward, which will drive the outer assembly sleeve 7 to move downward. The torque transmission member 25 set on the outer assembly sleeve 7 will continue to move downward under the vertical limit of the positioning rib 14, and finally dock with the fixed transfer member 32 rotated here. At this time, the torsion control motor 29 set in the outer assembly sleeve 7 is controlled to rotate, thereby driving The torsion gear 27 connected thereto rotates, driving the torsion transmission disc 10 connected to the torsion shaft 28 to rotate, so that the torsion transmission member 25 driven by the loading rod 24 rotates. During the rotation process, the torsion transmission member 25 drives the fixed material transfer member 32 to rotate. At this time, the shredder blade loaded on the fixed material transfer member 32 is driven, and the root of the blade is inserted into the plug-in port 23 on the lower mold cylinder 3. At this time, the injection molding is performed into the injection mold through the injection molding device, and the root of the shredder blade is fixed by the gradually solidified stirring shaft, completing the molding combination of the shredder blade and the stirring shaft.

[0048] After the forming of the stirring shaft and the chopping blade is completed, the upper die barrel part 8 is driven to move upward by the die closing push rod 6, so that the insertion interface 23 is opened (ensuring that the unqualified chopping blade can move). After the stirring shaft is cooled, by reversing the feeding tray 12, at this time, since the tip of the chopping blade is still on the clamping interface of the clamping and transferring part 32, when the clamping and transferring part 32 is driven to rotate by the feeding tray 12, it will be blocked by the chopping blade. Under the action of the blocking force, the sector magnetic block 30 connected to the clamping and transferring part 32 will rotate in the sector opening. When the connection between the chopping blade and the stirring shaft is not firm, the chopping blade can move, so the generated resistance is small or no resistance is generated. At this time, the solidification connection effect between the chopping blade and the stirring shaft can be obtained by detecting the rotation distance of the sector magnetic block 30 by the displacement detection part 34, achieving the effect of identifying unqualified products;

[0049] When the electric push rod 16 drives the die base 4 to move upward, the formed chopping blade and the stirring shaft are moved upward to be demolded from the lower die barrel part 3, and continue to move until they stop at the corresponding height of the deburring and scraping blade 37, so that the straight spur gear 18 meshes with the rotating gear. Driven by the rotating motor 19, the die base 4 is driven to rotate, thereby driving the formed chopping blade and the stirring shaft to rotate. During the rotation, the injection molding burrs at the connection between the chopping blade and the stirring shaft are removed by the deburring and scraping blade 37, realizing the post-forming treatment.

[0050] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, making equivalent replacements or changes, should be covered within the protection scope of the present invention.

Claims

1. A molding device for an intelligent blender, comprising a molding and injection table (1) and an injection device, characterized in that, An assembly die base (2) is provided on the molding and injection platform (1). A lower die barrel part (3) is provided on the assembly die base (2). A die base (4) that cooperates with the lower die barrel part (3) is connected inside the assembly die base (2) through an electric control driving part. The molding and injection platform (1) is connected to an upper injection platform (5) through a support part. The upper injection platform (5) is connected to an outer assembly sleeve (7) through a mold closing push rod (6). The outer assembly sleeve (7) is connected to an upper die barrel part (8) through a pressure linkage part. The upper die barrel part (8) is connected to an injection device through an injection pipeline. The upper die barrel part (8) is connected to the lower die barrel part (3) through a mold closing part; A plurality of corresponding slots (9) are formed at the bottom of the outer assembly sleeve (7). A deflection assembly part is connected to the inner wall of the corresponding slot (9) through a torsion transmission disk (10). An assembly power device for driving the torsion transmission disk (10) is arranged inside the outer assembly sleeve (7); The assembly die base (2) is connected to a plurality of vertical rotating shafts (11) through a feeding driving device. A feeding disk (12) is arranged on the vertical rotating shaft (11). A plurality of molding feeding parts are uniformly arranged on the feeding disk (12). A cooling cover body (13) is arranged on the assembly die base (2). A deburring scraping edge (37) is arranged on the side wall of the cooling cover body (13). A positioning rib (14) for guiding the deflection assembly part is arranged on the cooling cover body (13). A feeding window (15) through which the molding feeding part penetrates is formed in the side wall of the cooling cover body (13) at the bottom of the positioning rib (14); The molding feeding part includes a fan-shaped opening formed in the feeding disk (12). A fan-shaped magnetic block (30) is arranged inside the fan-shaped opening. The fan-shaped magnetic block (30) is connected to a clamping and rotating material part (32) through an elastic telescopic rod (31). A clamping interface is formed on the clamping and rotating material part (32); Magnetic repulsion fixing seats (33) are arranged on both sides of the fan-shaped opening. The magnetic repulsion fixing seats (33) and the opposite side walls of the fan-shaped magnetic block (30) are magnetically repulsive. A displacement detection part (34) for measuring the moving distance of the fan-shaped magnetic block (30) is arranged on the magnetic repulsion fixing seat (33).

2. The molding device for an intelligent blender according to claim 1, wherein, The electric control driving part includes a transmission opening formed in the molding and injection platform (1). An electric push rod (16) is arranged inside the molding and injection platform (1). The output end of the electric push rod (16) is rotatably connected to a pushing rotating shaft (17). The end of the pushing rotating shaft (17) penetrates through the side wall of the assembly die base (2) and extends upward, and is fixedly connected to the die base (4).

3. The forming device for an intelligent blender according to claim 2, wherein, A straight gear (18) is fixedly connected to the outer side wall of the pushing rotating shaft (17). A rotating motor (19) is arranged on the inner wall of the transmission opening. The output end of the rotating motor (19) is fixedly connected to a rotating gear that meshes with the straight gear (18).

4. An apparatus for forming an intelligent blender according to claim 1, wherein, The pressure linkage member includes a sliding rectangular opening (20) formed in the inner side wall of the outer assembly sleeve (7). A sliding rectangular block (21) is fixedly connected to the outer side wall of the upper die barrel member (8). The sliding rectangular block (21) is located within the sliding rectangular opening (20) and is connected to the inner wall of the sliding rectangular opening (20) by a pressure sustaining spring.

5. The molding device for an intelligent blender according to claim 1, characterized in that, The die closing member includes a docking opening formed in the lower die barrel member (3). A docking die bar (22) adapted to the docking opening is provided at the bottom of the upper die barrel member (8). An insertion opening (23) for inserting the chopping blade is formed at the bottom of the docking die bar (22).

6. The forming device for an intelligent blender according to claim 1, characterized in that, The deviation assembly member includes a feeding rod (24) connected to the torque transmission disc (10). A torque transmission member (25) is provided at the end of the feeding rod (24). The torque transmission member (25) is adapted to the forming feeding member.

7. An forming device for an intelligent blender according to claim 1, characterized in that, The assembly power device includes an annular opening formed in the outer assembly sleeve (7). A torsion gear ring (26) is rotatably connected to the inner wall of the annular opening. The torsion gear ring (26) is meshed with a plurality of torsion gears (27). The torsion gears (27) are connected to the torque transmission disc (10) through torsion shafts (28). A torsion regulation motor (29) is provided on the inner side wall of the outer assembly sleeve (7). The output end of the torsion regulation motor (29) is connected to a regulation gear.

8. An apparatus for forming an intelligent blender according to claim 1, wherein, The feeding driving device includes a driving gear ring (35) rotatably provided on the forming injection molding table (1). The vertical rotating shaft (11) is rotatably provided on the forming injection molding table (1) and is meshed with the driving gear ring (35) through a feeding gear (36) provided on the outer side wall.

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