An automatic integrated machine for injection molding inserts
By designing an automatic integrated machine for injection molding inserts, the automation functions of the robot arm and insert loading module are used to solve the problem of low production efficiency caused by manual placement of insert injection molding, and an efficient and automated production process is achieved.
Patent Information
- Application Number
- CN202411878417.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-19
- Publication Date
- 2025-04-04
AI Technical Summary
The placement of insert injection molding in the mold usually depends on manual operation, resulting in an extended injection molding cycle and it is difficult to meet the degree of automation required for large-scale production.
An automatic integrated injection molding insert machine is designed, including an insert loading module, a feeding module, an injection molding machine, a scissor station, a product collection box, a robot arm and an electric cabinet box. Through the transportation of the robot arm and the automatic switching and placement of the insert loading module, automated production is achieved.
Through automated production processes, manual intervention is reduced, testing efficiency and product quality are improved, and the efficiency and material utilization of large-scale production are promoted.
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Figure CN119748753A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the field of mold injection manufacturing, and in particular to an automatic integrated injection molding insert machine. Background Art
[0002] Insert molding refers to the molding process of placing a pre-prepared insert of a material in the mold and then injecting plastic resin, so that the molten material and the insert are bonded and solidified to form an integrated product. During insert molding, the insert is generally placed in the mold manually, which greatly increases the injection molding cycle. The above method can still be used for small-batch production or products with complex structures, but large-scale production requires a higher degree of automation to improve production efficiency and reduce material loss.
[0003] Therefore, it is necessary to provide an automatic integrated injection molding machine to solve the above problems. Summary of the invention
[0004] To achieve the above object, the present invention provides the following technical solution: an automatic integrated injection molding machine, comprising:
[0005] Insert loading module;
[0006] A feeding module connected to one end of the insert loading module;
[0007] An injection molding machine is arranged in parallel on one side of the insert loading module and is spaced apart from the insert loading module;
[0008] A scissor station is installed between the injection molding machine and the insert loading module and is spaced apart from the injection molding machine;
[0009] A product collection box connected to one end of the scissor station and located at one end of the insert loading module connected to the feeding module;
[0010] A robot arm is arranged between the insert loading module and the injection molding machine, and is located at the other end of the scissor station connected to the product collection box, and there are intervals between the robot arm and the scissor station, the insert loading module and the injection molding machine;
[0011] The electric cabinet is connected with the insert loading module, the feeding module, the scissor station, the injection molding machine and the robot arm through lines.
[0012] Further, preferably, the feeding module comprises:
[0013] A material bin, arranged at the other end of the feeding module connected to the insert loading module;
[0014] A tray disassembly mechanism, connected to one end of the silo and connected to the insert loading module;
[0015] A pre-disassembly opening is located below the silo and connected to the disassembly mechanism;
[0016] The jacking mechanism is connected with the pre-disassembly plate opening and is located below the silo.
[0017] Further, as a preference, multiple layers of trays are provided inside the silo.
[0018] Further, preferably, the insert feeding module comprises:
[0019] A camera detection unit is arranged on the bottom plate of the insert feeding module and is located at the other end of the tray dismantling mechanism connected to the pre-dismantling opening, with a gap between the tray dismantling mechanism and the camera detection unit;
[0020] A three-axis robot is arranged on the bottom plate of the insert loading module and is spaced apart from the camera detection unit. On the bottom plate space of the insert loading module, the positions are the tray removal mechanism, the camera detection unit and the three-axis robot in sequence, and there is a space between the three.
[0021] A servo machine is arranged on the bottom plate of the insert feeding module and below the three-axis robot;
[0022] A material unloading mechanism, mounted on the servo machine;
[0023] A length detection unit is mounted on the bottom plate of the insert feeding module and straddles the servo machine and is located at the other end of the three-axis robot close to the camera detection unit;
[0024] A sprue discharge part is provided at the end of the servo machine farthest from the three-axis robot and is connected to the bottom plate of the insert loading module;
[0025] The defective product box is arranged at the other end of the camera detection unit which is symmetrical with the servo motor as the axis.
[0026] Further, preferably, the robot arm comprises:
[0027] Clamp bracket;
[0028] Top insert cylinders, multiple groups of which are mounted on one end surface of the fixture bracket;
[0029] Finished clamping jaws, multiple groups of which are mounted on one side of the clamp bracket;
[0030] Optical fiber amplifiers, multiple groups of which are mounted on one end surface of the fixture bracket and are located in the middle of the same surface of the fixture bracket as the top insert cylinder;
[0031] The insert clamping jaw is first connected to the top insert cylinder and passes through the fixture bracket.
[0032] Further, preferably, the finished clamping jaw comprises:
[0033] Gripper head;
[0034] A guide rail is disposed above the clamping jaw head and is parallel to the top insert cylinder;
[0035] A mechanical clamp is connected to the clamp head and the guide rail.
[0036] Further, preferably, the robot arm further comprises:
[0037] A clamping claw cylinder is connected to the fixture bracket and is located opposite to the top insert cylinder. The clamping claw cylinder is perpendicular to the top insert cylinder and is connected to the insert clamping claw.
[0038] An optical fiber detector, one end of which is connected to the insert clamping jaw, the other end of which is connected to the top insert cylinder and passes through the fixture bracket;
[0039] A top mold column is provided on both sides of the insert clamping jaws.
[0040] Further, preferably, the motion range of the robot arm includes the feeding module, the injection molding machine and the scissor station.
[0041] Furthermore, preferably, the unloading mechanism is provided with a plurality of groups of carrier stations, and the carrier stations are composed of positioning components and fixed cylinders; and the three-axis robot is provided with a clamping claw.
[0042] Compared with the prior art, the present invention provides an automatic integrated injection molding machine, which has the following beneficial effects:
[0043] In the embodiment of the present invention, the robot arm is used to transport various manufacturing components, thereby realizing the automated transformation of the traditional manufacturing mode. Moreover, the insert loading module is used to complete the automatic switching and placement of the material tray, thereby reducing the labor. Through the application of various detection components and visual analysis, the detection efficiency and quality are greatly improved, thereby promoting the production. BRIEF DESCRIPTION OF THE DRAWINGS
[0044] Figure 1 It is a schematic diagram of an automatic integrated machine for injection molding inserts;
[0045] Figure 2 It is a top view schematic diagram of an automatic integrated machine for injection molding inserts;
[0046] Figure 3 It is a schematic diagram of a feeding module of an automatic integrated injection molding machine;
[0047] Figure 4It is a schematic diagram of a feeding module of an automatic integrated machine for injection molding inserts;
[0048] Figure 5 It is a top view schematic diagram of an insert feeding module of an automatic integrated injection molding insert machine;
[0049] Figure 6 It is a partial schematic diagram of an insert feeding module of an automatic integrated injection molding insert machine;
[0050] Figure 7 for Figure 6 A partially enlarged schematic diagram of
[0051] Figure 8 It is a partial schematic diagram of a robot arm of an automatic integrated machine for injection molding inserts;
[0052] Fig. 9 for Figure 8 Schematic diagram from top view;
[0053] Fig.10 A schematic diagram of an insert clamping jaw of an automatic integrated injection molding insert machine;
[0054] Fig.11 It is a partially enlarged schematic diagram of an insert clamping jaw of an automatic integrated injection molding insert machine;
[0055] In the figure: 1. Insert loading module; 11. Unloading mechanism; 12. Length detection unit; 13. Three-axis robot; 14. Camera detection unit; 15. Gate discharge unit; 16; Servo; 17. Defective product box; 2. Feeding module; 21. Bin; 22. Disassembly mechanism; 23. Pre-disassembly of the plate; 24. Lifting mechanism; 3. Robot arm; 31. Clamp bracket; 32. Top insert cylinder; 33. Finished product clamp; 331. Clamp head; 332. Mechanical clamp; 333. Guide rail; 34. Fiber optic amplifier; 35. Clamp cylinder; 36. Insert clamp; 37. Fiber optic detector; 38. Top mold column; 4. Injection molding machine; 5. Scissor station; 6. Product collection box; 7. Electric cabinet. DETAILED DESCRIPTION
[0056] See also Figures 1 to 11 In an embodiment of the present invention, an automatic integrated injection molding machine includes:
[0057] Insert feeding module 1;
[0058] A feeding module 2 connected to one end of the insert loading module 1;
[0059] An injection molding machine 4 is arranged in parallel on one side of the insert loading module 1 and is spaced apart from the insert loading module 1;
[0060] A scissor station 5 is installed between the injection molding machine 4 and the insert loading module 1 and is spaced apart from the injection molding machine 4;
[0061] A product collection box 6, connected to one end of the scissor station 5, and located at one end of the insert loading module 1 connected to the feeding module 2;
[0062] The robot arm 3 is arranged between the insert loading module 1 and the injection molding machine 4, and is located at the other end of the scissor station 5 connected to the product collection box 6, and there are intervals between the robot arm 3 and the scissor station 5, the insert loading module 1 and the injection molding machine 4;
[0063] The electric cabinet box 7 is connected with the insert loading module 1, the feeding module 2, the scissor station 5, the injection molding machine 4 and the robot arm 3 through lines.
[0064] In this embodiment, Figure 3 and 4 , the feeding module 2 comprises:
[0065] A material bin 21 is provided at the other end of the feeding module 2 connected to the insert loading module 1;
[0066] The tray disassembly mechanism 22 is connected to one end of the silo 21 and is connected to the insert loading module 1;
[0067] The pre-disassembly opening 23 is located below the silo 21 and connected to the disassembly mechanism 22;
[0068] The lifting mechanism 24 is connected to the pre-disassembly opening 23 and is located below the silo 21 .
[0069] It should be noted that multiple layers of material trays are arranged inside the material bin 21 .
[0070] As a preferred embodiment, the material tray filled with inlays is manually placed into the material bin 21, and the fool-proof limit mechanism of the material bin 21 ensures that the position and direction of the material tray are accurate, and the lifting mechanism 24 sends the material tray of the bottom layer of the material bin 21 to the pre-disassembly tray opening 23. After confirmation that it is in place, the tray removal mechanism 22 is allowed to move forward to clamp the material tray. After clamping is confirmed, the material tray is moved to the rear, and after the rear placement operation is completed, the tray removal mechanism 22 sends the material tray back to the pre-disassembly tray opening 23. After the return of the material tray is confirmed, the tray removal mechanism 22 returns to the safe position, and the lifting mechanism 24 descends to send the material tray of the second lowest layer to the pre-disassembly tray opening 23, and the tray removal mechanism 22 moves forward to clamp the material tray, and the cycle is repeated in sequence until all the material trays with inlays in the material bin 21 are empty. After the trays are empty, the lifting mechanism 24 reaches the initial position, and a prompt sound is issued, waiting for the worker to remove the empty tray and put a new tray with inlays.
[0071] In this embodiment, Figures 5 to 7 , the insert feeding module 1 comprises:
[0072] The camera detection unit 14 is arranged on the bottom plate of the insert feeding module 1 and is located at the other end of the tray dismantling mechanism 22 connected to the pre-dismantling opening 23, and there is a gap between the tray dismantling mechanism 22;
[0073] The three-axis robot 13 is arranged on the bottom plate of the insert loading module 1, and there is a gap between it and the camera detection unit 14. On the bottom plate space of the insert loading module 1, the positions are the tray disassembly mechanism 22, the camera detection unit 14 and the three-axis robot 13 in sequence, and there is a gap between them;
[0074] It should be noted that the three-axis robot 13 is provided with a clamping claw, which can remove the inserts from the tray one by one.
[0075] A servo machine 16 is disposed on the bottom plate of the insert loading module 1 and below the three-axis robot 13;
[0076] The unloading mechanism 11 is mounted on the servo machine 16;
[0077] The length detection unit 12 is mounted on the bottom plate of the insert loading module 1 and straddles the servo 16 , and is located at the other end of the three-axis robot 13 close to the camera detection unit 14 ;
[0078] The nozzle discharge part 15 is provided at the end of the servo 16 farthest from the three-axis robot 13 and is connected to the bottom plate of the insert loading module 1;
[0079] The defective product box 17 is disposed at the other end of the camera detection unit 14 which is symmetrical with respect to the servo motor 16 as an axis.
[0080] As a preferred embodiment, the length detection unit 12 can perform length detection by a GT sensor.
[0081] As a preferred embodiment, the three-axis robot 13 moves to the tray pick-up position, and starts to pick up the first insert from the first column on the left side of the tray, and then moves down in sequence. After the three-axis robot 13 picks up the insert and confirms the clamping, it moves the insert to the camera detection unit 14 to detect the insert diameter. After the rotation angle is detected, the three-axis robot 13 moves to the unloading mechanism 11 and releases the insert onto the unloading mechanism 11. If the camera detection unit 14 determines that it is a defective product, the three-axis robot 13 releases the insert into the defective product box 17.
[0082] It should be noted that the unloading mechanism 11 is provided with a plurality of carrier stations, and the carrier stations are composed of positioning components and fixed cylinders.
[0083] As a preferred embodiment, the positioning assembly is used to ensure the installation angle of the insert and protect the unloading mechanism 11 from causing damage to the insert during operation, and the clamping claws of the three-axis robot 13 are synchronized with the positioning assembly; the fixed cylinder is closed when the unloading mechanism 11 moves and opened when it stops. After the insert is installed at the carrier station, the unloading mechanism 11 moves to the length detection unit 12, and the length detection unit 12 detects the length of the insert in turn. After the detection is completed, the qualified products are moved to the rear by the unloading mechanism 11, and the unqualified products are first moved by the unloading mechanism 11 to the bottom of the three-axis robot 13, and then clamped into the defective product box 17 by the three-axis robot 13.
[0084] In this embodiment, Figure 8 and 9 , the robot arm 3 comprises:
[0085] A clamp support 31;
[0086] A plurality of top insert cylinders 32 are mounted on one end surface of the fixture bracket 31;
[0087] Finished product clamping jaws 33, multiple groups of which are mounted on one side of the clamp bracket 31;
[0088] Optical fiber amplifiers 34, multiple groups of which are mounted on one end surface of the fixture bracket 31 and are located in the middle of the same surface of the fixture bracket 31 as the top insert cylinder 32;
[0089] The insert clamping jaw 36 is first connected to the top insert cylinder 32 and passes through the fixture bracket 31 .
[0090] In this embodiment, Figure 8 , the finished clamping jaw 33 comprises:
[0091] Gripping jaw head 331;
[0092] A guide rail 333 is disposed above the clamping jaw head 331 , and the guide rail 333 is parallel to the top insert cylinder 32 ;
[0093] The mechanical clamp 332 is connected to the clamp head 331 and the guide rail 333 .
[0094] In this embodiment, Figures 9-11 , the robot arm 3 also includes:
[0095] The clamping jaw cylinder 35 is connected to the fixture bracket 31 and is located opposite to the top insert cylinder 32. The clamping jaw cylinder 35 is perpendicular to the top insert cylinder 32 and is connected to the insert clamping jaw 36.
[0096] An optical fiber detector 37, one end of which is connected to the insert clamp 36, and the other end of which is connected to the top insert cylinder 32, and passes through the fixture bracket 31;
[0097] The top mold column 38 is arranged on both sides of the insert clamping jaw 36 .
[0098] It should be noted that the insert clamp 36 is mainly used to remove embedded inserts, the top insert cylinder 32 controls the height and position of the insert clamp 36, the clamp cylinder 35 controls the opening and closing of the insert clamp 36, and the finished product clamp 33 is mainly used to take and place injection molded products.
[0099] It should be noted that the motion range of the robot arm 3 includes the feeding module 2 , the injection molding machine 4 and the scissor station 5 .
[0100] As a preferred embodiment, the robot arm 3 clamps the insert from the unloading mechanism 11. At this time, the clamping claw cylinder 35 controls the insert clamping claw 36 to release. After clamping the insert on the unloading mechanism 11, the clamping claw cylinder 35 is closed, and the robot arm 3 is moved to the mold on the injection molding machine 4, and the insert is placed in the mold mounting hole. The insert clamping claw 36 is released, and the top insert cylinder 32 starts to advance, and the mold position is confirmed to be roughly accurate through the top mold column 38. Subsequently, the light condition of the optical fiber detector 37 is used to determine whether the insert is installed in place. After that, after the detection and confirmation that the insert is in place, the robot arm 3 retreats and moves out of the mold to a safe position, allowing the injection molding machine to close the mold, and the robot arm 3 returns to the top of the unloading mechanism 11, and then clamps the insert, and the clamping confirmation is completed. Move to the standby position and wait. When the injection molding machine has completed the mold opening, the robot arm 3 enters the mold and moves to the finished product clamp 33 to clamp the product. After the clamping is confirmed, the mold is allowed to eject the product. When the injection molding machine has completed the ejection, the robot arm 3 retreats and moves to the insert installation position away from the mold. The insert is installed on the mold again. After confirming that it is installed in place, the robot moves to the safe position and allows the injection molding machine to close the mold. After that, the robot arm 3 moves to the scissor station 5 and the product shearing is completed. The robot arm 3 moves to the sprue discharge part 15 to release the material head. After the release, it moves to the top of the unloading mechanism 11 to take the insert again. This cycle of production is repeated.
[0101] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.
Claims
1. An automatic integrated machine for injection molding inserts, characterized in that: include: Insert loading module (1); A feeding module (2) connected to one end of the insert loading module (1); An injection molding machine (4), arranged in parallel on one side of the insert loading module (1) and spaced apart from the insert loading module (1); a scissor station (5), installed between the injection molding machine (4) and the insert loading module (1), and spaced apart from the injection molding machine (4); A product collection box (6) connected to one end of the scissor station (5) and located at one end of the insert loading module (1) connected to the feeding module (2); The robot arm (3) is arranged between the insert loading module (1) and the injection molding machine (4), and is located at the other end of the scissor station (5) connected to the product collection box (6), and there is a gap between the robot arm (3) and the scissor station (5), the insert loading module (1) and the injection molding machine (4); The electric cabinet box (7) is connected to the insert loading module (1), the feeding module (2), the scissor station (5), the injection molding machine (4) and the robot arm (3) through lines.
2. The automatic integration machine for injection molding inserts according to claim 1, characterized in that: The feeding module (2) comprises: A material bin (21), arranged at the other end of the feeding module (2) connected to the insert loading module (1); A tray disassembly mechanism (22) connected to one end of the material bin (21) and connected to the insert loading module (1); A pre-disassembly opening (23) is located below the silo (21) and is connected to the disassembly mechanism (22); The lifting mechanism (24) is connected to the pre-disassembly opening (23) and is located below the silo (21).
3. The automatic integration machine for injection molding inserts according to claim 2, characterized in that: The material bin (21) is provided with multiple layers of material trays inside.
4. The automatic integration machine for injection molding inserts according to claim 2, characterized in that: The insert loading module (1) comprises: A camera detection unit (14) is arranged on the bottom plate of the insert loading module (1) and is located at the other end of the tray dismantling mechanism (22) connected to the pre-dismantling opening (23), with a gap between the tray dismantling mechanism (22); A three-axis robot (13) is arranged on the bottom plate of the insert loading module (1) and is spaced apart from the camera detection unit (14); on the bottom plate space of the insert loading module (1), the positions are the tray disassembly mechanism (22), the camera detection unit (14) and the three-axis robot (13) in sequence, and there is a space between the three; A servo machine (16) is arranged on the bottom plate of the insert loading module (1) and below the three-axis robot (13); A material unloading mechanism (11) is mounted on the servo machine (16); A length detection unit (12) is mounted on the bottom plate of the insert loading module (1) and across the servo machine (16), and is located at the other end of the three-axis robot (13) close to the camera detection unit (14); A sprue discharge portion (15) is provided at the end of the servo machine (16) farthest from the three-axis robot (13) and is connected to the bottom plate of the insert loading module (1); The defective product box (17) is arranged at the other end of the camera detection unit (14) symmetrically with the servo motor (16) as an axis.
5. The automatic integration machine for injection molding inserts according to claim 1, characterized in that: The robot arm (3) comprises: A fixture support (31); A plurality of top insert cylinders (32) are mounted on one end surface of the fixture bracket (31); Finished clamping jaws (33), multiple groups of which are mounted on a side surface of the clamping bracket (31); Optical fiber amplifiers (34), multiple groups of which are mounted on one end surface of the fixture bracket (31) and are located in the middle of the same surface of the fixture bracket (31) as the top insert cylinder (32); The insert clamping claw (36) is first connected to the top insert cylinder (32) and passes through the clamp bracket (31).
6. The automatic integration machine for injection molding inserts according to claim 5, characterized in that: The finished clamping jaw (33) comprises: Gripping jaw head (331); A guide rail (333) is arranged above the clamping jaw head (331), and the guide rail (333) is parallel to the top insert cylinder (32); A mechanical clamp (332) is connected to the clamp head (331) and the guide rail (333).
7. The automatic integration machine for injection molding inserts according to claim 5, characterized in that: The robot arm (3) further comprises: A clamping claw cylinder (35) is connected to the clamp support (31) and is located opposite to the top insert cylinder (32). The clamping claw cylinder (35) is perpendicular to the direction of the top insert cylinder (32) and is connected to the insert clamping claw (36); An optical fiber detector (37), one end of which is connected to the insert clamp (36), and the other end of which is connected to the top insert cylinder (32) and passes through the fixture bracket (31); Top mold columns (38) are arranged on both sides of the insert clamping jaws (36).
8. The automatic integration machine for injection molding inserts according to claim 1, characterized in that: The range of motion of the robot arm (3) includes the feeding module (2), the injection molding machine (4) and the scissor station (5).
9. The automatic integration machine for injection molding inserts according to claim 4, characterized in that: The unloading mechanism (11) is provided with a plurality of groups of carrier stations, each of which is composed of a positioning assembly and a fixed cylinder; and the three-axis robot (13) is provided with a clamping claw.