Flexible module shoemaking production line
By designing a series conveyor mechanism and a material distribution platform, combined with an alarm module and a smart workshop system, the problem of untimely material delivery in traditional shoe production lines has been solved, achieving efficient and flexible shoe production and reducing labor and site costs.
Patent Information
- Application Number
- CN202520656962.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-09
- Publication Date
- 2026-03-03
- Estimated Expiration
- 2035-04-09
AI Technical Summary
In traditional shoe production lines, each piece of equipment operates independently, resulting in untimely material delivery, inconvenient operation, low production efficiency, and irregular equipment arrangement, leading to wasted space.
The shoe manufacturing equipment is connected in series using a series conveyor mechanism. The material is conveniently transported through a material distribution platform and flow rails. Alarm modules are installed on the equipment to improve response speed. The management is optimized by combining the intelligent workshop digital control system.
It improves the convenience and timeliness of material delivery, enhances shoe production efficiency, reduces labor costs and space requirements, and increases the flexibility and responsiveness of the production line.
Smart Images

Figure CN223958398U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of shoemaking technology, specifically to a flexible module shoemaking production line. Background Technology
[0002] Traditional shoe production lines typically consist of modules arranged sequentially from upstream to downstream, including lasting, lasting, heel counter, marking, marking, transfer, sole cleaning, applying sole treatment agent, applying upper treatment agent, sole glue, upper glue, sole assembly, sole pressing, and last removal. However, in these traditional production lines, the various shoe-making equipment within each module is generally independent, requiring manual handling of materials such as lasts, uppers, and soles between modules. This leads to problems such as untimely material handling, inconvenient operation, and low production efficiency. Furthermore, the irregular arrangement of the various shoe-making equipment easily results in significant waste of space. Utility Model Content
[0003] The technical problem this invention aims to solve is to provide a flexible modular shoe manufacturing production line. This flexible modular shoe manufacturing production line enables more convenient, faster, and more timely material transfer, thereby improving shoe manufacturing efficiency and reducing labor costs. The technical solution adopted is as follows:
[0004] A flexible modular shoe manufacturing production line includes multiple shoe manufacturing equipment, characterized in that: it also includes a series conveying mechanism, which is composed of multiple conveying units arranged sequentially along its conveying direction, with a material placement platform between two adjacent conveying units; each of the shoe manufacturing equipment is arranged sequentially along the conveying direction of the series conveying mechanism, and each material placement platform corresponds to the workstation position of the corresponding shoe manufacturing equipment.
[0005] During operation, staff can be stationed near each shoe-making production equipment to handle the corresponding shoe-making process. The various conveyor units of the series conveyor mechanism are used to move materials such as shoe lasts, uppers, and soles between the different shoe-making production equipment, transferring them to their respective workstations. When a material is transferred to the position corresponding to a workstation on a particular shoe-making production equipment, it leaves the previous conveyor unit and falls onto the corresponding material placement platform, where it pauses. A staff member then places the material from the platform onto the workstation of the shoe-making production equipment. After the shoe-making process is completed on that equipment, the material is placed onto the next conveyor unit, which then transfers it to the workstation of the next shoe-making production equipment. This process allows materials to be transferred to each shoe-making production equipment sequentially to complete each shoe-making process, ultimately finishing the shoe production. This flexible modular shoe production line connects various shoe production equipment in series through a series conveying mechanism, and sequentially conveys materials such as shoe uppers and soles to the material placement platform corresponding to the workstation of each shoe production equipment. This makes the material conveying more convenient, faster, and more timely, thereby improving shoe production efficiency and reducing labor input and labor costs.
[0006] As a preferred embodiment of this utility model, the material placement platform includes a base and multiple flow bars. The base is disposed between two adjacent conveying units, and the flow bars are arranged side by side on the top of the base. Typically, the flow bars gradually slope downwards from front to back along the conveying direction of the adjacent conveying units. During operation, the material falls onto the flow bars of the material placement platform after being conveyed by the preceding conveying unit, and slides along the flow bars towards the following conveying unit to avoid clogging the material subsequently conveyed by the preceding conveying unit.
[0007] As a preferred embodiment of this utility model, guardrails are provided on both sides of the series conveying mechanism. The guardrails can block and limit the material on the series conveying mechanism, preventing it from falling off one side.
[0008] As a preferred embodiment of this utility model, the series conveying mechanism is U-shaped, with each shoe-making production device positioned on its outer side. Typically, the shoe-making production devices are arranged closely together in sequence along the conveying direction of the series conveying mechanism. During operation, workers can stand on the inner side of the series conveying mechanism, allowing one person to handle multiple shoe-making processes, thus reducing labor costs. This ensures an orderly arrangement of the shoe-making production devices, a compact overall structure, and advantages such as small footprint, strong visual management, and the ability for one person to handle multiple shoe-making processes, thereby saving labor and space requirements.
[0009] As a further preferred embodiment of this utility model, the series conveying mechanism includes a first material conveying section, a second material conveying section, and a third material conveying section. The first and third material conveying sections are arranged in a front-to-back direction and side-by-side. The second material conveying section is arranged in a left-to-right direction and is positioned between the first and third material conveying sections. The inlet end of the second material conveying section corresponds to the outlet end of the first material conveying section, and the outlet end of the second material conveying section corresponds to the inlet end of the third material conveying section. Each of the first, second, and third material conveying sections is composed of multiple conveying units. During operation, the first material conveying section first conveys the material, then the second material conveying section conveys the material, and finally the third material conveying section conveys the material.
[0010] As a further preferred embodiment of this utility model, the plurality of shoe manufacturing equipment are a toe and heel shaping machine, a lasting machine, a softening, lasting and lacing machine, a backstrap machine, a marking machine, a roughening machine, a first activation machine, a shoe oven, a second activation machine, a hydraulic molding machine, a wrinkle-removing and shaping machine, a freeze-setting machine, a last-pulling machine, and a needle-detecting machine. The toe and heel shaping machine, lasting machine, softening, lasting and lacing machine, backstrap machine, marking machine, and roughening machine are arranged sequentially along the conveying direction of the first material conveying section. The first activation machine, shoe oven, and second activation machine are arranged sequentially along the conveying direction of the second material conveying section. The hydraulic molding machine, wrinkle-removing and shaping machine, freeze-setting machine, last-pulling machine, and needle-detecting machine are arranged sequentially along the conveying direction of the third material conveying section. During operation, the first material conveying section sequentially transfers materials to the toe and heel shaping machine, lasting machine, softening, lasting, and lacing machine, heel counter, marking machine, and roughening machine; the second material conveying section sequentially transfers materials to the first activation machine, shoe-making oven, and second activation machine; the third material conveying section sequentially transfers materials to the hydraulic molding machine, wrinkle removal and shaping machine, freeze-setting machine, last-pulling machine, and needle detection machine; the toe and heel shaping machine completes the shoe-making process of shaping athletic shoes and casual shoes; the lasting machine completes the shoe-making process of stitching the midsole; the softening, lasting, and lacing machine completes the shoe-making process of softening, lasting, and lacing the uppers of athletic shoes and casual shoes; the heel counter is used to complete the shoe-making process of finishing the midsoles of general shoes with heel heights below 180mm and soft-soled shoes; the marking machine completes the adhesive bonding of the laces and outsole of leather shoes, hiking shoes, athletic shoes, and casual shoes. The shoemaking process includes: marking the baseline for craft shoes; a roughing machine for roughening and grinding the soles; first and second activation machines for activating the glue in various sports shoes, casual shoes, and leather shoes; a shoe drying oven for drying and activating the glue on the soles and uppers of various sports shoes, casual shoes, and leather shoes; a hydraulic molding machine for bonding or assembling the outsoles and uppers of casual shoes and various sports shoes; a wrinkle-removing and shaping machine for quickly removing wrinkles and shaping the surface of sports shoes, casual shoes, and leather shoes; a freeze-setting machine for cooling and shaping sports shoes, casual shoes, leather shoes, and work shoes; a last-removing machine for removing the lasts after shaping various leather shoes, sports shoes, and casual shoes; and a needle detection machine for detecting broken needle residue in all shoes.
[0011] In practical applications, the aforementioned shoe toe and heel shaping machine can be an intelligent dual-heat and dual-cool integrated shoe toe and heel shaping machine; the aforementioned heel counter machine can be a hydraulic automatic heel counter machine; the aforementioned marking machine can be a pressure-visual marking machine; the aforementioned roughing machine can be a dust-collecting manual roughing and grinding shoe platform; the aforementioned first activation machine and second activation machine can be intelligent gate activation machines; the aforementioned shoe drying oven can be an intelligent double-layer rotating six-position infrared drying oven; the aforementioned hydraulic forming machine can be a single-station hydraulic all-around forming machine; the aforementioned wrinkle removal and shaping machine can be a single-station closed-type heat shaping machine, which can adjust the height of the air knife according to the shoe shape height, accurately locate the surface wrinkles of the sole base and quickly remove wrinkles; the aforementioned freeze shaping machine can be a single-station closed-type cold shaping machine; the aforementioned last-setting machine can be an intelligent pneumatic last-setting machine; and the aforementioned needle detection machine can be a conveyor-type needle detector.
[0012] As a further preferred embodiment of this utility model, the flexible module shoe production line further includes an upper rack and a sole rack. The upper rack is positioned in front of the toe and heel shaping machine, and the sole rack is positioned between the roughing machine and the first activation machine. The sole rack is used to store materials such as soles, facilitating workers to place them on the tandem conveyor mechanism and transfer them to the toe and heel shaping machine for the first shoe-making process. The upper rack is used to store materials such as uppers, facilitating workers to retrieve them for activation treatment on the first activation machine.
[0013] As a further preferred embodiment of this utility model, the softening, lasting, and lacing machine is symmetrically arranged with the last-pulling machine. The flexible modular shoe production line also includes a last return device, which is located inside the series conveying mechanism and between the last-pulling machine and the softening, lasting, and lacing machine. The last return device can be a conveyor belt or a trolley. The last return device is used for conveying shoe lasts between the last-pulling machine and the softening, lasting machine in the production line.
[0014] As a preferred embodiment of this utility model, each of the aforementioned shoe-making production equipment is equipped with an alarm module. The alarm module generally includes a buzzer and an alarm button. When a problem occurs in the shoe-making process of the shoe-making production equipment, the worker can press the alarm button to activate the buzzer, notifying on-site management personnel to come and assist in handling the problem, thereby increasing the flexibility and response speed of the production line.
[0015] Typically, the aforementioned flexible modular shoe production line also includes a smart workshop digital control system. This smart workshop digital control system is suitable for equipment maintenance and related equipment asset management. It integrates functional modules such as industrial field data acquisition, object modeling, computing and storage, visualization, and remote operation and maintenance. With the help of modules such as computing engines and AI algorithms, it can quickly enable enterprises to realize business functions such as equipment cloudification, data visualization, and data mining.
[0016] Compared with the prior art, this utility model has the following advantages:
[0017] (1) This flexible modular shoe production line connects various shoe production equipment in series through a series conveying mechanism, which can conveniently convey materials such as shoe uppers and soles to the workstations of each shoe production equipment in sequence, making the conveying of materials such as shoe uppers and soles more convenient, faster and more timely, thereby improving shoe production efficiency; the position of each shoe production equipment can be changed at any time according to different shoe styles and processes, flexibly meeting the current small and diverse orders; as the economy develops, people's requirements for shoes become more diversified, and the demand for customization and small-batch production increases, so this flexible modular shoe production line has a broad market prospect.
[0018] (2) In this flexible modular shoe production line, the serial conveying mechanism is arranged in a U-shape, and each shoe production equipment is set on the outside of the serial conveying mechanism. The overall structure is compact, and the staff can stand on the inside of the serial conveying mechanism. One person is responsible for multiple shoe production processes. It has the advantages of small footprint, strong visual management, and one person being responsible for multiple processes, thus saving labor and space requirements.
[0019] (3) This flexible modular shoe production line is equipped with alarm modules on each shoe production equipment. When there is a problem in the shoe production process of the shoe production equipment, the staff can notify the on-site management personnel to come to the site to assist in handling the problem through the alarm module, thereby increasing the flexibility and response speed of the production line. Attached Figure Description
[0020] Figure 1 This is a schematic diagram of a preferred embodiment of the present invention.
[0021] Figure 2 This is a schematic diagram of the cooperation between the material placement platform and two adjacent conveying units in a preferred embodiment of this utility model. Detailed Implementation
[0022] like Figures 1-2 As shown, this flexible modular shoe production line includes a series conveying mechanism 1 and multiple shoe production equipment. The series conveying mechanism 1 is composed of multiple conveying units 11 arranged sequentially along its conveying direction. A material placement platform 12 is provided between two adjacent conveying units 11. The series conveying mechanism 1 is arranged in a U-shape. Each shoe production equipment is located outside the series conveying mechanism 1 and arranged sequentially along the conveying direction of the series conveying mechanism 1. Each material placement platform 12 corresponds to the work position of the corresponding shoe production equipment.
[0023] In this embodiment, the series conveying mechanism 1 includes a first material conveying section 101, a second material conveying section 102, and a third material conveying section 103. The first material conveying section 101 and the third material conveying section 103 are arranged in a front-to-back direction and side-by-side. The second material conveying section 102 is arranged in a left-to-right direction between the first material conveying section 101 and the third material conveying section 103. The inlet end of the second material conveying section 102 corresponds to the outlet end of the first material conveying section 101, and the outlet end of the second material conveying section 102 corresponds to the inlet end of the third material conveying section 103. The first material conveying section 101, the second material conveying section 102, and the third material conveying section 103 are all composed of multiple conveying units 11. The multiple shoe manufacturing equipment are a toe and heel shaping machine 201, a lasting machine 202, a softening, lasting, and lacing machine 203, a heel counter 204, a marking machine 205, a roughening machine 206, a first activation machine 207, a shoe drying oven 208, a second activation machine 209, and a third activation machine 200. The following machines are arranged sequentially along the conveying direction of the first material conveying section 101: 209 (chemical molding machine), 210 (hydraulic molding machine), 211 (wrinkle removal and shaping machine), 212 (cryogenic shaping machine), 213 (lasting machine), 214 (needle inspection machine); 201 (toe and heel shaping machine), 202 (lastening machine), 203 (softening, lasting, and lacing machine), 204 (back lasting machine), 205 (marking machine), and 206 (roughening machine); 207 (first activation machine), 208 (shoe drying oven), and 209 (second activation machine) along the conveying direction of the second material conveying section 102. The hydraulic molding machine 210, wrinkle-removing and shaping machine 211, cryogenic shaping machine 212, last-setting machine 213, and needle-detecting machine 214 are arranged sequentially along the conveying direction of the third material conveying section 103; the shoe softening, last-setting, and shoe-lacing integrated machine 203 and the last-setting machine 213 are arranged symmetrically on the left and right sides. The flexible module shoe production line also includes a shoe last return device 215, which is located inside the series conveying mechanism 1 and between the last-setting machine 213 and the softening, last-setting, and shoe-lacing integrated machine 203. Specifically, the shoe toe and heel shaping machine 201 is an intelligent dual-heat and dual-cool shoe toe and heel shaping machine; the heel counter 204 is a hydraulic automatic heel counter 204; the marking machine 205 is a pressure-visual marking machine; and the roughing machine 206 is a dust-collecting manual roughing and grinding platform. The first activation machine 207 and the second activation machine 209 are intelligent gate activation machines. The shoe drying oven 208 is an intelligent double-layer rotating six-position infrared drying oven. The hydraulic forming machine 210 is a single-station hydraulic all-around forming machine. The wrinkle removal and shaping machine 211 is a single-station closed-type heat shaping machine, which can adjust the height of the air knife according to the shoe height to accurately locate and quickly remove wrinkles on the surface of the sole base. The freeze shaping machine 212 is a single-station closed-type cold shaping machine. The last-setting machine 213 is an intelligent pneumatic last-setting machine. The needle detection machine 214 is a conveyor-type needle detection machine. The shoe last return device 215 is a trolley.
[0024] In this embodiment, each shoe-making production machine is equipped with an alarm module (not shown in the figure). The alarm module generally includes a buzzer and an alarm button. When there is a problem in the shoe-making process of the shoe-making production machine, the worker can press the alarm button to make the buzzer sound an alarm, notifying the on-site management personnel to come to the scene to assist in handling the problem, thereby increasing the flexibility and response speed of the production line.
[0025] In this embodiment, the material placement platform 12 includes a base 121 and a plurality of flow bars 122. The base 121 is disposed between two adjacent conveying units 11, and the flow bars 122 are arranged side by side on the top of the base 121. Typically, the flow bars 122 gradually slope downward from front to back along the conveying direction of the adjacent conveying unit 11. During operation, the material is conveyed by the preceding conveying unit 11 and falls onto the flow bars 122 of the material placement platform 12, and slides along the flow bars 122 toward the following conveying unit 11 to avoid clogging the material subsequently conveyed by the preceding conveying unit 11.
[0026] In this embodiment, guardrails 13 are provided on both sides of the series conveying mechanism 1. The guardrails 13 can block and limit the material on the series conveying mechanism 1, preventing it from falling off one side.
[0027] In this embodiment, the flexible modular shoe production line also includes an upper rack 3 and a sole rack 4. The upper rack 3 is positioned in front of the toe and heel shaping machine 201, and the sole rack 4 is positioned between the roughing machine 206 and the first activation machine 207. The sole rack 4 is used to store materials such as soles, making it convenient for workers to place them on the serial conveyor mechanism 1 and transfer them to the toe and heel shaping machine 201 for the first shoe-making process. The upper rack 3 is used to store materials such as uppers, making it convenient for workers to take them to the first activation machine 207 for activation treatment.
[0028] In this embodiment, the flexible modular shoe production line also includes a smart workshop digital control system 5. This smart workshop digital control system 5 is suitable for equipment maintenance and related equipment asset management. It integrates functional modules such as industrial field data acquisition, object modeling, computing and storage, visualization, and remote operation and maintenance. With the help of modules such as computing engine and AI algorithm, it can quickly enable enterprises to realize business functions such as equipment cloudification, data visualization, and data mining.
[0029] The working principle of this flexible modular shoe production line is briefly described below:
[0030] Staff are stationed near each shoe-making production equipment station. Staff can stand inside the serial conveyor mechanism 1, and one person can be responsible for multiple shoe-making processes.
[0031] During operation, each conveying unit 11 of the first material conveying section 101 is used to transfer materials to the shoe toe and heel shaping machine 201, the lasting machine 202, the softening, lasting, and shoelace-tying integrated machine 203, the heel counter 204, the marking machine 205, and the roughening machine 206, respectively; each conveying unit 11 of the second material conveying section 102 is used to transfer materials to the first activation machine 207, the shoe-making oven 208, and the second activation machine 209, respectively; each conveying unit 11 of the third material conveying section 103 is used to transfer materials to the hydraulic molding machine 210, the wrinkle-removing and shaping machine 211, the cryogenic shaping machine 212, and the last-setting machine, respectively. Machine 213, needle detector 214; when materials are transferred to the material placement platform 12 corresponding to each shoe-making production equipment station, the staff places the materials from the material placement platform 12 onto the shoe-making production equipment station, where the shoe-making production equipment completes the shoe-making process: toe and heel shaping machine 201 is used to complete the shoe-making process of shaping sports shoes and casual shoes; lasting machine 202 is used to complete the shoe-making process of stitching the midsole; softening, lasting, and lacing machine 203 is used to complete the shoe-making process of softening, lasting, and lacing the uppers of sports shoes and casual shoes; heel counter 204 is used to complete the heel height adjustment. The shoemaking process includes: a general midsole and soft-soled shoe upper manufacturing process with a thickness of less than 180mm; a marking machine 205 for marking baselines on leather shoes, hiking shoes, sports shoes, and casual shoes with lace-up outsoles using adhesive bonding techniques; a roughening machine 206 for roughening and grinding the soles; a first activation machine 207 and a second activation machine 209 for activating the adhesive in various sports shoes, casual shoes, and leather shoes; a shoe drying oven 208 for drying and activating the adhesive on the soles and uppers of various sports shoes, casual shoes, and leather shoes; and a hydraulic molding machine 210 for finishing casual shoes and various other types of shoes. The shoe-making process includes: outsole and upper bonding or outsole assembly for athletic shoes; a wrinkle-removing and shaping machine 211 for rapid wrinkle removal and shaping of the surface of athletic shoes, casual shoes, and leather shoes; a freeze-setting machine 212 for cooling and shaping of athletic shoes, casual shoes, leather shoes, and work shoes; a last-pulling machine 213 for removing the lasts after shaping of various leather shoes, athletic shoes, and casual shoes; a needle-detecting machine 214 for detecting broken needle residue in all shoes; and a last-transfer device 215 for transferring lasts between the last-pulling machine and the softening last-feeding machine in the production line. After the shoe-making process is completed on the materials, the workers place the materials on the next conveyor unit 11, which then transfers them to the next workstation of the next shoe-making production equipment. This allows materials to be transferred to each shoe-making production equipment to complete each shoe-making process sequentially, ultimately completing the shoe production.
[0032] Furthermore, it should be noted that the names of the various parts of the specific embodiments described in this specification may differ. All equivalent or simple variations made to the structure, features, and principles of this utility model patent are included within the protection scope of this utility model patent. Those skilled in the art to which this utility model pertains may make various modifications or additions to the described specific embodiments or use similar methods to replace them, as long as they do not deviate from the structure of this utility model or exceed the scope defined by the claims, they should all fall within the protection scope of this utility model.
Claims
1. A flexible modular shoe manufacturing production line, comprising multiple shoe manufacturing equipment, characterized in that: It also includes a series conveying mechanism, which is composed of multiple conveying units arranged sequentially along its conveying direction, with a material placement platform between two adjacent conveying units; each of the shoe-making production equipment is arranged sequentially along the conveying direction of the series conveying mechanism, and each material placement platform corresponds to the workstation position of the corresponding shoe-making production equipment.
2. The flexible module shoe production line according to claim 1, characterized in that: The material handling platform includes a base and multiple flow bars. The base is disposed between two adjacent conveying units, and each flow bar is arranged side by side on the top of the base.
3. The flexible module shoe production line according to claim 1, characterized in that: Guardrails are installed on both sides of the series conveying mechanism.
4. The flexible module shoe production line according to claim 1, characterized in that: The series conveying mechanism is U-shaped, and each of the shoe-making production devices is located on the outside of the series conveying mechanism.
5. A flexible module shoe production line according to claim 4, characterized in that: The series conveying mechanism includes a first material conveying section, a second material conveying section, and a third material conveying section. The first and third material conveying sections are arranged in a front-to-back direction and side-by-side. The second material conveying section is arranged in a left-to-right direction and is located between the first and third material conveying sections. The inlet end of the second material conveying section corresponds to the outlet end of the first material conveying section, and the outlet end of the second material conveying section corresponds to the inlet end of the third material conveying section. The first, second, and third material conveying sections are each composed of multiple conveying units.
6. A flexible module shoe production line according to claim 5, characterized in that: The aforementioned shoe manufacturing equipment includes a toe and heel shaping machine, a lasting machine, a softening, lasting, and lacing machine, a backstrap machine, a marking machine, a roughening machine, a first activation machine, a shoe oven, a second activation machine, a hydraulic molding machine, a wrinkle-removing and shaping machine, a freeze-setting machine, a last-pulling machine, and a needle-detecting machine. The toe and heel shaping machine, lasting machine, softening, lasting, and lacing machine, backstrap machine, marking machine, and roughening machine are arranged sequentially along the conveying direction of the first material conveying section. The first activation machine, shoe oven, and second activation machine are arranged sequentially along the conveying direction of the second material conveying section. The hydraulic molding machine, wrinkle-removing and shaping machine, freeze-setting machine, last-pulling machine, and needle-detecting machine are arranged sequentially along the conveying direction of the third material conveying section.
7. A flexible module shoe production line according to claim 6, characterized in that: The flexible module shoe production line also includes an upper frame and a sole frame. The upper frame is located in front of the toe and heel shaping machine, and the sole frame is located between the roughing machine and the first activation machine.
8. A flexible module shoe production line according to claim 6, characterized in that: The softening last, inserting, and lacing machine is symmetrically arranged with the last-pulling machine. The flexible module shoe production line also includes a last return device, which is located inside the series conveying mechanism and between the last-pulling machine and the softening last, inserting, and lacing machine.
9. A flexible module shoe production line according to claim 1, characterized in that: Each of the aforementioned shoe-making production equipment is equipped with an alarm module.