Combined processing device for shoe lining

Abstract

The utility model relates to the technical field of combined processing devices, in particular to a shoe lining combined processing device which comprises a processing workshop, an electric transmission belt, a movement limiting assembly, cutting equipment, an air blower, a guide slope block and a smashing assembly. An electric transmission belt for driving the shoe lining material to move forwards is mounted on the inner side of the processing workshop; a movement limiting assembly for centering shoe lining materials is arranged at the upper end of the electric transmission belt; and a cutting device for cutting and pressing the shape required by the shoe lining material is mounted in the middle of the processing workshop. Through the bidirectional driving mechanism and the limiting plate of the movable limiting assembly, automatic centering of materials is achieved, the accuracy of material positioning of cutting equipment is guaranteed, and the consistency of the contours of finished products is higher; the blower is introduced to forcibly blow and separate, so that the demolding difficulty caused by static electricity or adhesion in the traditional processing is avoided; the crushing assembly crushes and collects the remaining materials in real time, and the crushed particles can be recycled or used as other raw materials.

Description

Technical Field

[0001] This utility model relates to the field of composite processing equipment technology, and in particular to a composite processing equipment for shoe linings. Background Technology

[0002] The composite processing equipment for shoe linings is being developed in the footwear industry. As the requirements for shoe quality and production efficiency continue to increase, and as footwear technology continues to innovate and consumers pursue personalized shoes, the materials and designs of shoe linings are becoming more and more diversified. Traditional shoe lining processing methods may involve multiple tedious manual steps, resulting in low production efficiency.

[0003] Traditional shoe lining processing relies on manual labor or semi-automated equipment, which has the following drawbacks: First, material positioning depends on manual labor, and manually adjusting the material position to ensure cutting accuracy is inefficient and prone to errors. Second, the material is prone to sticking together after cutting, which requires manual peeling, which not only increases working time but also damages the finished product. Furthermore, the leftover material is usually discarded or piled up, resulting in resource waste and environmental pollution.

[0004] Therefore, in order to address the problems of inaccurate material positioning, easy adhesion of materials after cutting, and the fact that the leftover materials are usually discarded or piled up in the traditional shoe lining processing method, a composite processing device for shoe lining can be designed. Utility Model Content

[0005] To overcome the problems of inaccurate material positioning in traditional shoe lining processing methods, the tendency of materials to stick together after cutting, and the fact that the leftover materials are usually discarded or piled up.

[0006] The technical solution is as follows: A composite processing device for shoe linings includes a processing workshop, an electric drive belt, a movement restriction component, a cutting device, a blower, a guide ramp, and a crushing component; an electric drive belt for moving the shoe lining material forward is installed inside the processing workshop; a movement restriction component for centering the shoe lining material is provided at the upper end of the electric drive belt; a cutting device for cutting and pressing the shoe lining material into the required shape is installed in the middle of the processing workshop; a blower for helping the molded material to fall off is provided at the front end of the inner side of the processing workshop; a guide ramp for discharging the molded material is provided at the lower end of the blower; and a crushing component for crushing the remaining material is provided at the front end of the processing workshop.

[0007] Furthermore, the movement restriction assembly includes a mounting box, a bidirectional drive mechanism, a connecting arm, and a limiting plate; the bidirectional drive mechanism is installed inside the mounting box.

[0008] Furthermore, a connecting arm is fixedly connected to the outside of the threaded sleeve of the bidirectional drive mechanism; the connecting arm adopts an "L" shaped structure; and a long strip-shaped limiting plate is welded to the front end of the connecting arm.

[0009] Furthermore, the guide ramp is installed on the bottom surface of the processing workshop; a limit slider is provided at the lower end of the guide ramp; a limit groove is opened on the bottom surface of the processing workshop; the limit slider and the limit groove are slidably connected; and a cleaning brush for cleaning the surface of the electric drive belt is provided at the upper end of the guide ramp.

[0010] Furthermore, the crushing assembly includes a support frame, a drive roller assembly, a collection box, an electric crushing roller assembly, and a discharge channel; the drive roller assembly for clamping and guiding the shoe lining material is installed inside the support frame.

[0011] Furthermore, a collection box is fixedly connected to the lower end of the support frame; an electric crushing roller assembly corresponding to the position of the drive roller assembly is installed on the upper side of the inner side of the collection box.

[0012] Furthermore, the front end of the collection box is connected to a discharge channel; the lower end of the collection box adopts an inclined design with the end closer to the discharge channel being lower and the end farther away from the discharge channel being higher.

[0013] The beneficial effects are: This utility model achieves automatic material centering through the bidirectional drive mechanism and limiting plate of the moving restriction component, ensuring the accuracy of material positioning by the cutting equipment and resulting in higher consistency of the finished product outline;

[0014] The introduction of a blower for forced air separation avoids demolding difficulties caused by static electricity or adhesion in traditional processing, improving production efficiency. Combined with the inclined surface design of the guide ramp, it ensures that the molded material is removed without damage.

[0015] The crushing component crushes and collects the residue in real time, solving the problem of residue accumulation occupying space. The crushed particles can be reused or used as raw materials for other materials, reducing production costs.

[0016] This device enables automated composite processing of feeding, cutting, separation, and crushing, adapting to materials of different specifications and improving production flexibility. Attached Figure Description

[0017] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0018] Figure 2 This is another three-dimensional structural diagram of the present invention;

[0019] Figure 3 This is a cross-sectional three-dimensional structural diagram of the present invention;

[0020] Figure 4 This is a schematic diagram of the three-dimensional structure of the guide ramp block of this utility model.

[0021] Figure 5 This is a three-dimensional structural diagram of the crushing component of this utility model.

[0022] In the attached diagram, the following are the reference numerals: 1. Processing workshop; 2. Electric drive belt; 301. Mounting box; 302. Bidirectional drive mechanism; 303. Connecting arm; 304. Limiting plate; 4. Cutting equipment; 5. Blower; 6. Guide ramp; 701. Support frame; 702. Drive roller assembly; 703. Collection box; 704. Electric crushing roller assembly; 705. Discharge channel; 8. Limiting slider; 9. Limiting groove; 10. Cleaning brush. Detailed Implementation

[0023] The present invention will now be described in detail with reference to the accompanying drawings and specific embodiments.

[0024] Example 1

[0025] like Figures 1-5 As shown, a composite processing device for shoe lining includes a processing workshop 1, an electric drive belt 2, a movement restriction component, a cutting device 4, a blower 5, a guide ramp 6, and a crushing component. The processing workshop 1 is equipped with an electric drive belt 2 for moving the shoe lining material forward. The upper end of the electric drive belt 2 is equipped with a movement restriction component for centering the shoe lining material. The processing workshop 1 is equipped with a cutting device 4 for cutting and pressing the shoe lining material into the required shape. The processing workshop 1 is equipped with a blower 5 at the front end to help the molded material fall off. The lower end of the blower 5 is equipped with a guide ramp 6 for discharging the molded material. The processing workshop 1 is equipped with a crushing component at the front end to crush any remaining material.

[0026] The movement restriction assembly includes a mounting box 301, a bidirectional drive mechanism 302, a connecting arm 303, and a limiting plate 304; the bidirectional drive mechanism 302 is installed inside the mounting box 301.

[0027] The bidirectional drive mechanism 302 has a connecting arm 303 fixedly connected to the outside of the threaded sleeve; the connecting arm 303 adopts an "L" shaped structure; and a long strip-shaped limiting plate 304 is welded to the front end of the connecting arm 303.

[0028] The crushing assembly includes a support frame 701, a drive roller assembly 702, a collection box 703, an electric crushing roller assembly 704, and a discharge channel 705; the drive roller assembly 702 for clamping and guiding the shoe lining material is installed inside the support frame 701.

[0029] A collection box 703 is fixedly connected to the lower end of the support frame 701; an electric crushing roller group 704 corresponding to the position of the drive roller group 702 is installed on the upper side of the inner side of the collection box 703.

[0030] The front end of the collection box 703 is connected to the discharge channel 705; the lower end of the collection box 703 is designed with an inclination, with the end closer to the discharge channel 705 being lower and the end farther away from the discharge channel 705 being higher.

[0031] When using this composite processing device, the shoe lining material to be processed is laid flat on the electric transmission belt 2, and the material moves forward with the electric transmission belt 2; the bidirectional drive mechanism 302 drives the connecting arm 303 to move the limiting plate 304 laterally, and adjusts the distance between the two limiting plates 304 according to the width of the material to ensure that the material is always conveyed in the center and to ensure cutting accuracy.

[0032] When the material moves to the middle position of the processing workshop 1, the cutting equipment 4 punches and cuts the material according to the preset mold shape to form the required lining outline. When it reaches the end of the electric drive belt 2, the blower 5 blows air downwards to separate the formed material from the excess material.

[0033] The cut residue continues to move forward with the electric drive belt 2 and enters the drive roller group 702 of the support frame 701 of the crushing component. The drive roller group 702 clamps the residue and guides it to the electric crushing roller group 704. Next, the electric crushing roller group 704 crushes the residue into particles and falls into the collection box 703. The inclined design at the bottom of the collection box 703 allows the debris to slide automatically to the discharge channel 705.

[0034] Example 2

[0035] Based on Example 1, such as Figure 4 As shown, it also includes a guide ramp 6 installed on the bottom surface of the processing workshop 1; a limit slider 8 is provided at the lower end of the guide ramp 6; a limit groove 9 is opened on the bottom surface of the processing workshop 1; the limit slider 8 and the limit groove 9 are slidably connected; and a cleaning brush 10 for cleaning the surface of the electric drive belt 2 is provided at the upper end of the guide ramp 6.

[0036] When using this composite processing device, the separated molding material slides out of the processing workshop 1 along the inclined surface of the guide ramp 6 and falls into the container pre-placed by the staff. During the material transfer process, the cleaning brush 10 continuously brushes away the debris on the surface of the electric drive belt 2. The guide ramp 6 is independently designed, and the limiting groove 9 of the guide ramp 6 can be slid out of the limiting slider 8 for cleaning.

Claims

1. A composite processing device for shoe insole, comprising a processing workshop (1); characterized in that: It also includes the electric drive belt (2), the movement restriction assembly, the cutting device (4), the hair dryer (5), the guide slope block (6), the crushing assembly; the inside of the processing workshop (1) is provided with the electric drive belt (2) for driving the insole material to move forward; the upper end of the electric drive belt (2) is provided with the movement restriction assembly for centering the insole material; the middle position of the processing workshop (1) is provided with the cutting device (4) for cutting and pressing the required shape of the insole material; the inside of the processing workshop (1) is provided with the hair dryer (5) for helping the forming material to fall off; the lower end of the hair dryer (5) is provided with the guide slope block (6) for discharging the forming material; the front end of the processing workshop (1) is provided with the crushing assembly for crushing the remaining materials.

2. The shoe insole composite processing apparatus according to claim 1, wherein The movement restriction assembly comprises a mounting box (301), a bidirectional driving mechanism (302), a connecting arm (303) and a limiting plate (304); the inside of the mounting box (301) is provided with the bidirectional driving mechanism (302).

3. The shoe insole composite processing apparatus according to claim 2, wherein The connecting arm (303) is fixedly connected to the outside of the threaded sleeve of the bidirectional driving mechanism (302); the connecting arm (303) adopts an "L" type structure; the front end of the connecting arm (303) is welded with a limiting plate (304) in a strip shape.

4. The shoe insole composite processing apparatus according to claim 1, wherein The guide slope block (6) is installed on the bottom surface of the processing workshop (1); the lower end of the guide slope block (6) is provided with a limiting sliding block (8); the bottom surface of the processing workshop (1) is provided with a limiting sliding groove (9); the limiting sliding block (8) and the limiting sliding groove (9) are slidably connected; the upper end of the guide slope block (6) is provided with a cleaning brush (10) for cleaning the surface of the electric drive belt (2).

5. The shoe insole composite processing apparatus according to claim 1, wherein The crushing assembly comprises a support frame (701), a driving roller group (702), a collecting box (703), an electric crushing roller group (704) and a discharge channel (705); the inside of the support frame (701) is provided with the driving roller group (702) for clamping and guiding the insole material.

6. The shoe insole composite processing apparatus according to claim 5, wherein The lower end of the support frame (701) is fixedly connected with the collecting box (703); the inside of the collecting box (703) is provided with the electric crushing roller group (704) corresponding to the position of the driving roller group (702) at the upper end.

7. The shoe insole composite processing apparatus according to claim 5, wherein The front end of the collecting box (703) is communicated with the discharge channel (705); the lower end surface of the collecting box (703) adopts an inclined design close to the one end of the discharge channel (705) and far away from the other end of the discharge channel (705).

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