A shoe production line with individually operating jigs

Abstract

The present application relates to the field of shoemaking assembly line, specifically to a shoemaking assembly line with a tooling plate working independently, comprising a tooling plate, a first conveyor belt and a conveying platform, a first conveyor belt is arranged above the conveying platform, and the tooling plate is arranged above the first conveyor belt, further comprising: a support table, which is arranged at the middle position of the first conveyor belt; a driving assembly, which is arranged on one side above the support table and fixedly connected with the support table; a transmission assembly, which is arranged above the support table and connected with the driving assembly; an adjusting assembly, which is arranged on the other side above the support table and connected with the support table; and a conveying assembly, which is arranged above the first conveyor belt and close to the side of the support table away from the driving assembly. By arranging the driving assembly, the transmission assembly and the adjusting assembly, the tooling plate can be separated from the first conveyor belt under the normal operation of the first conveyor belt, so as to improve the production efficiency.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of shoe production line, in particular to a shoe production line with a separate work tool plate. BACKGROUND

[0002] In traditional shoe production, each process is usually completed on an independent workbench, and material turnover is required between workbenches, resulting in a relatively long production cycle. To solve this problem, more and more shoe factories have begun to use the flow line method for production.

[0003] In the existing shoe production line, some processes need to take the items on the tool plate of the flow line off the tool plate, and then put them back on the flow line after completing the corresponding action. During the operation of the flow line, if defective products appear during production, the flow line needs to be stopped and the defective products need to be removed from the tool plate. The above-mentioned actions need to be completed by manual labor, which greatly reduces the production efficiency and increases the labor intensity of workers, making them prone to fatigue and affecting production efficiency.

[0004] In view of this, in order to overcome the above technical problems, the present application designs a shoe production line with a separate work tool plate, which solves the above technical problems. SUMMARY

[0005] The technical problem to be solved by the present application is that defective products appear during production, which requires stopping the production line and recycling the defective products, greatly reducing production efficiency and increasing the labor intensity of workers, making them prone to fatigue and affecting production efficiency.

[0006] In order to achieve the above-mentioned purpose, the present application provides the following technical scheme:

[0007] The present application provides a shoe production line with a separate work tool plate, which comprises a tool plate, a first conveyor belt and a conveying platform, the conveying platform is provided with a first conveyor belt above, the first conveyor belt is provided with a tool plate above, and further comprises:

[0008] The support table is located at the middle position of the first conveyor belt;

[0009] The driving assembly is located on one side above the support table and is fixedly connected with the support table, and is used to provide power;

[0010] The transmission assembly is located above the support table, the transmission assembly is connected with the driving assembly, and the transmission assembly is used to transmit the tool plate;

[0011] The adjusting assembly is located on the other side above the support table and is connected with the support table, and the adjusting assembly cooperates with the transmission assembly to adjust the angle of the transmission assembly;

[0012] A conveying component, located above the first conveyor belt and near the support platform on the side away from the active component, is used to receive the tooling plate above the conveying component.

[0013] Preferably, in the shoe manufacturing production line with a tooling plate for separate operation, the support platform is L-shaped, and a protrusion is provided on one side of the support platform, with the active component fixedly connected to the protrusion.

[0014] Preferably, in the shoe manufacturing production line with a separately working tooling plate, the active component includes:

[0015] Motor No. 1 is fixedly connected to the protrusion of the support platform, and a pulley is fixedly connected to the output shaft of Motor No. 1.

[0016] Gear No. 1, which is located above motor No. 1 and rotatably connected to the support platform;

[0017] The first belt is connected to the first motor and the first gear.

[0018] Preferably, in the shoe manufacturing production line with a separately working tooling plate, the transmission component further includes:

[0019] Gear No. 2 meshes with Gear No. 1, and Gear No. 2 is fixedly connected to sprocket No. 1;

[0020] Gear No. 3, with Gear No. 2 meshing between Gear No. 3 and Gear No. 1; there are three Gear No. 3; Gear No. 2 meshes between the two Gear No. 3 on the side closer to Gear No. 1, and Gear No. 3 on the side farther from Gear No. 1 does not contact each other; the diameter of Gear No. 3 is larger than the diameter of Gear No. 2.

[0021] The first connecting rod is rotatably connected at one end to the second gear. The second and third gears are multiple sets, and the first and second gears cooperate with each other to achieve transmission. The first connecting rod is rotatably connected to multiple sets of second and third gears.

[0022] Preferably, in the shoe manufacturing production line with a separately working tooling plate, the adjustment component further includes:

[0023] The fourth gear meshes with the third gear in the transmission assembly, which is located near the adjustment assembly.

[0024] Gear No. 5, which meshes with Gear No. 4;

[0025] Link 2, one end of which is hinged to Link 1, and Link 2 is rotatably connected to Gear 4 and Gear 5;

[0026] Link 3, one end of which is hinged to link 2, the other end of which is hinged to the support platform, and link 3 is fixedly connected to gear 5. Link 3 is provided with sprocket 1 at the end of link 3 near the support platform, and sprocket 1 is fixedly connected to link 3.

[0027] A chain, one end of which meshes with a gear and the other end of which meshes with a sixth gear.

[0028] Preferably, in the shoe manufacturing production line with a separately working tooling plate, the conveying assembly H further includes:

[0029] A support frame, which is L-shaped, has a protrusion on one side;

[0030] Two motors are provided, and each motor is fixedly connected to the protrusion of the support frame. A pulley is fixedly connected to the output shaft of the motor.

[0031] Gear No. 6, which is located to the side of motor No. 2 and is rotatably connected to the support frame;

[0032] The No. 2 belt is connected to the No. 2 motor and the No. 6 gear respectively;

[0033] The second conveyor belt is rotatably connected to the sixth gear and meshes with the tooling plate.

[0034] Preferably, in the shoe manufacturing production line with a separately working tooling plate, an electrically telescopic column is provided below the support platform.

[0035] Preferably, in the shoe manufacturing production line with a tooling plate that works independently, the No. 1 motor, the No. 2 motor, and the electric telescopic column are electrically connected to the same controller.

[0036] Preferably, the shoe manufacturing production line with a tooling plate for individual operation has a first chain, a second chain, and a third chain on the tooling plate. The first chain meshes with a first conveyor belt, the second chain meshes with the first conveyor belt, and the third chain meshes with a first gear and multiple sets of third gears.

[0037] Preferably, the shoe production line has a tooling plate with separate working parts, and the tooling plate is provided with two baffles.

[0038] The beneficial effects of this invention are as follows:

[0039] 1. The present invention relates to a shoe manufacturing production line with a tooling plate for separate operation. In existing shoe manufacturing production lines, some processes require removing items from the tooling plate located on the production line, completing the corresponding actions, and then placing them back into the production line. During the operation of the production line, if a defective product is found during production, the production line needs to be stopped and the defective product removed from the tooling plate. This design, by setting up an active component, a transmission component, and an adjustment component, enables the tooling plate to detach from the first conveyor belt while the first conveyor belt is operating normally, thereby improving work efficiency.

[0040] 2. The present invention relates to a shoe manufacturing production line with a tooling plate for individual work. During the production process, it is necessary to manually remove defective products from the tooling plate, which greatly reduces production efficiency and increases the labor intensity of workers. This design reduces labor costs and improves production efficiency by setting up a conveyor assembly so that the tooling plate can be placed on the placement rack via a second conveyor belt. Attached Figure Description

[0041] To more clearly illustrate the specific embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the specific embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of the present invention. For those skilled in the art, other drawings can be obtained from these drawings without creative effort.

[0042] Figure 1 This is a top view of the tooling plate of the present invention;

[0043] Figure 2 This is a bottom schematic diagram of the tooling plate of the present invention;

[0044] Figure 3 This is a structural schematic diagram of the working state of the present invention;

[0045] Figure 4 This is a schematic diagram of the structure of the present invention in its non-working state;

[0046] Figure 5 This is the invention Figure 3 Top view;

[0047] Figure 6 This is a schematic diagram of the transmission component of the present invention;

[0048] Figure 7 This is a schematic diagram of the gear connection of the present invention;

[0049] Figure 8 This is a schematic diagram of the connection between the No. 2 gear, the No. 1 connecting rod, and the gear of the present invention.

[0050] In the diagram: Tooling plate 1, Conveyor belt 1, Conveyor platform 3, Support platform 4, Active component 5, Transmission component 6, Adjustment component 7, Conveyor component 8, Motor 1 9, Gear 1 10, Belt 1 11, Gear 2 12, Gear 3 13, Link 1 14, Gear 4 15, Gear 5 16, Link 2 17, Link 3 18, Support frame 19, Motor 2 20, Gear 6 21, Belt 2 22, Conveyor belt 2 23, Electric telescopic column 24, Chain 1 25, Chain 2 26, Chain 3 27, Baffle plate 28, Sprocket 2 29, Sprocket 1 30, Chain 31. Detailed Implementation

[0051] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.

[0052] This invention provides a shoe manufacturing production line with a tooling plate that has its own working mechanism. This solves the problem that when a defective product appears during the production process, the entire conveyor belt needs to be stopped, and the defective product needs to be manually removed from the tooling plate 1 before the conveyor belt can be restarted, which reduces the overall production efficiency.

[0053] To solve the aforementioned technical problems, the present invention is conceived as follows: During the transport of the tooling plate 1 on the first conveyor belt 2, a support platform 4 is set at the middle position of the first conveyor belt 2. The support platform 4 is equipped with an active component 5, a transmission component 6, and an adjustment component 7. Utilizing the gear and linkage structure between the three components, the tooling plate 1 is lifted, allowing it to detach from the first conveyor belt 2 while it is in operation and be transmitted to the transmission component 8. The transmission component 8 then moves the tooling plate 1 to a fixed position, thereby improving production efficiency.

[0054] To better understand the above technical solutions, the following will provide a detailed explanation of the technical solutions in conjunction with the accompanying drawings and specific implementation methods.

[0055] A shoe manufacturing production line with a tooling plate for individual operation includes a tooling plate 1, a primary conveyor belt 2, and a conveyor platform 3. The primary conveyor belt 2 is positioned above the conveyor platform 3, and the tooling plate 1 is positioned above the primary conveyor belt 2. The line also includes:

[0056] Support platform 4, which is located in the middle of conveyor belt 2;

[0057] Active component 5, which is located on one side above the support platform 4 and is fixedly connected to the support platform 4, is used to provide power;

[0058] The transmission component 6 is located above the support platform 4 and is connected to the active component 5. The transmission component 6 is used to transmit the tooling plate 1.

[0059] Adjustment component 7 is located on the other side above support platform 4 and connected to support platform 4. Adjustment component 7 cooperates with transmission component 6 to adjust the angle of transmission component 6.

[0060] The conveying component 8 is located above the first conveyor belt 2 and near the support platform 4 on the side away from the active component 5, and is used to receive the tooling plate 1 above the transmission component 6.

[0061] In the current production line field, when tooling plate 1 moves on conveyor platform 3 via conveyor belt 2, if a defective product appears on tooling plate 1, conveyor belt 2 needs to be stopped, the defective product removed from tooling plate 1, and then conveyor belt 2 restarted to transport tooling plate 1. This process causes other tooling plates 1 to also stop and wait, affecting production efficiency. Therefore, this invention sets a support platform 4 in the middle of conveyor platform 3. The support platform 4 is equipped with an active component 5, a transmission component 6, and an adjustment component 7. By setting a transmission component 8 above conveyor belt 2 and close to the support platform 4 away from the active component 5, the active component 5, in cooperation with the transmission component 6 and the adjustment component 7, allows tooling plate 1 to detach from conveyor belt 2, pass through the transmission component 6, and be transported to the transmission component 8 to reach a fixed position. Throughout the entire process, conveyor belt 2 operates normally.

[0062] In one specific embodiment of the present invention, the support platform 4 is L-shaped, and a protrusion is provided on one side of the support platform 4. The active component 5 is fixedly connected to the protrusion.

[0063] The protruding part of the support platform 4 is fixedly connected to the active component 5, and the end away from the protruding part is rotatably connected to one end of the adjustment component 7. The active component 5 and the adjustment component 7 are fixed by the support platform 4.

[0064] In one specific embodiment of the present invention, the active component 5 includes:

[0065] Motor 9 is fixedly connected to the protrusion of the support platform 4, and a pulley is fixedly connected to the output shaft of motor 9.

[0066] Gear 10, which is located above motor 9 and rotatably connected to support platform 4;

[0067] The first belt is connected to the first motor 9 and the first gear 10.

[0068] When the defective product tooling plate 1 reaches the support platform 4 via the first conveyor belt 2, the first motor 9 is manually activated. A pulley is fixedly connected to the output shaft of the first motor 9. The first motor 9 provides power to rotate the pulley, which drives the first gear 10 to rotate via the first belt 11, thus providing power to the transmission component 6.

[0069] In one specific embodiment of the present invention, the transmission component 6 further includes:

[0070] Second gear 12 meshes with first gear 10, and second sprocket 29 is fixedly connected to second gear 12;

[0071] Gear No. 3 13, gear No. 2 12 meshes between gear No. 3 13 and gear No. 10; there are three gears No. 3 13; gear No. 2 12 meshes between the two gears No. 3 13 on the side closer to gear No. 12, and gear No. 3 13 on the side farther away from gear No. 12 does not contact each other; the diameter of gear No. 3 13 is larger than the diameter of gear No. 2 12.

[0072] The first connecting rod 14 is rotatably connected to the second gear 12 at one end. The second gear 12 and the third gear 13 are multiple sets, and the first gear 10 and the second gear 12 cooperate with each other to achieve transmission. The first connecting rod 14 is rotatably connected to multiple sets of second gear 12 and third gear 13.

[0073] When gear 10 rotates, it meshes with gear 12, which is close to it. Since gear 12's rotating shaft is mounted on the side wall of support platform 4, gear 12 also begins to rotate. Gear 13 meshes with gear 12, so gear 13 also begins to rotate. In other words, gears 12 and 13 on connecting rod 14 also rotate due to meshing. Figure 7 It is known that gear 2 12 and gear 3 13 rotate in opposite directions. Therefore, in order to allow tooling plate 1 to be transported smoothly, the diameter of gear 3 13 is set to be larger than the diameter of gear 2 12. That is, when tooling plate 1 is transported to the transmission assembly 6, it only meshes with multiple sets of gear 3 13. Multiple sets of gear 2 12 only play the role of transmitting power and do not contact tooling plate 1. Connecting rod 14 is rotatably connected to multiple sets of gear 2 12 and gear 3 13. The function of connecting rod 14 is to support multiple sets of gear 2 12 and gear 3 13 without affecting the rotation of multiple sets of gear 2 12 and gear 3 13.

[0074] In one specific embodiment of the present invention, the adjustment component 7 further includes:

[0075] The fourth gear 15 meshes with the third gear 13 in the transmission assembly 6, which is located near the adjustment assembly 7.

[0076] Gear No. 5 16, which meshes with Gear No. 4 15;

[0077] Second connecting rod 17, one end of which is hinged to first connecting rod 14, and second connecting rod 17 is rotatably connected to fourth gear 15 and fifth gear 16;

[0078] Link 18 No. 3, one end of which is hinged to Link 17 No. 2, and the other end of which is hinged to Support Platform 4. Link 18 No. 3 is fixedly connected to Gear 16 No. 5. Link 18 No. 3 is provided with Sprocket 30 No. 1 at the end of Link 18 near Support Platform, and Sprocket 30 No. 1 is fixedly connected to Link 18 No. 3.

[0079] Chain 31, one end of which engages with sprocket 29 and the other end of which engages with sprocket 30.

[0080] When gear 10 rotates, it drives gear 12, which meshes with gear 10, to rotate. Figure 8 As shown, the rotation of gear 12 causes the rotation of sprocket 29, which is fixedly connected to gear 12, to also rotate. This causes the chain 31, which meshes with sprocket 29, to move, which in turn causes the first sprocket 30, which meshes with chain 31, to also rotate. The rotation of sprocket 30 causes the third connecting rod 18, which is fixedly connected to the first sprocket 30, to rotate around the hinge point between the third connecting rod 18 and the support platform 4. This causes the fifth gear 16, which is fixedly connected to the third connecting rod 18, to also move along with the rotation of the third connecting rod 18. Since the fifth gear 16 meshes with the fourth gear 15, when the fifth gear 16 rotates around the hinge point between the third connecting rod 18 and the support platform 4, it causes the fourth gear 15, which meshes with it, to rotate around the center of the fourth gear 15. Furthermore, the third gear 13 on the second connecting rod 17... Because it meshes with gear 15 (number 4), gear 13 on connecting rod 17 (number 2) also rotates. Simultaneously, since one end of connecting rod 18 is hinged to connecting rod 17 (number 2), when connecting rod 18 rotates, it causes the end of connecting rod 17 (number 2) hinged to connecting rod 17 (number 3) near connecting rod 18 to move along with connecting rod 18. Under the combined action of gear 18, gear 15, gear 16, and connecting rod 13, the following motion occurs: Figure 4 to Figure 3The movement is such that, since the first connecting rod 14 is hinged to the second connecting rod 17, when the end of the second connecting rod 17 near the first connecting rod 14 rises, it also causes the end of the first connecting rod 14 near the second connecting rod 17 to rise. Simultaneously, a second gear 12 is not positioned between the two third gears 13 at the end of the first connecting rod 14 near the second connecting rod 17 to prevent the rotation of the fourth gear 15 from causing the third gear 13 meshing with the fourth gear 15 to rotate and thus avoid the first gear 10. The rotation of multiple sets of second gears 12 and third gears 13 causes motion interference. Under the combined action of the active component 5, the transmission component 6, and the adjustment component 7, the end of the first connecting rod 14 near the adjustment component 7 will rise during the working process, while the end of the first connecting rod 14 away from the adjustment component 7 remains unchanged. At the same time, the second gears 12 and third gears 13, which are rotatably connected to the first connecting rod 14, also move with the movement of the first connecting rod 14. This allows the multiple sets of third gears 13, which are rotatably connected to the first connecting rod 14, to mesh with the tooling plate 1 and move the tooling plate 1 away from the first conveyor belt 2 towards the transmission component 8, without affecting the normal operation of the first conveyor belt 2. Thus, the rotation of the first gear 10 drives the second sprocket 29 to rotate, which in turn drives the third connecting rod 18 to move. This allows the third connecting rod 18 to lift the first connecting rod 14 when the first gear 10 moves and drives the tooling plate 1 above it, so that the tooling plate 1 can smoothly enter the next process.

[0081] In one specific embodiment of the present invention, the transmission component 8 further includes:

[0082] Support frame 19, the support frame 19 is L-shaped, and a protrusion is provided on one side of the support frame 19;

[0083] Two motors 20 are provided. Each motor 20 is fixedly connected to the protrusion of the support frame 19. A pulley is fixedly connected to the output shaft of the motor 20.

[0084] Gear No. 6 21, which is located to the side of motor No. 20 and is rotatably connected to support frame 19;

[0085] The second belt 22 is connected to the second motor 20 and the sixth gear 21 respectively;

[0086] The second conveyor belt 23 is rotatably connected to the sixth gear 21, and the second conveyor belt 23 meshes with the tooling plate 1.

[0087] The support frame 19 is positioned above the first conveyor belt 2 but does not contact it. The second motor 20 is fixedly connected to the protrusion of the support frame 19. The second motor 20 drives the second belt 22 to rotate through the pulley fixedly connected to the output shaft, which in turn drives the sixth gear 21 to rotate. The sixth gear 21 meshes with the second conveyor belt 23, driving the second conveyor belt 23 to rotate. The second conveyor belt 23 is placed obliquely on the support frame 19. When the tooling plate 1 is transported to one end of the second conveyor belt 23 near the transmission component 6, the tooling plate 1 will mesh with the second conveyor belt 23, thereby driving the tooling plate 1 to continue moving upward until the entire tooling plate 1 is placed on the transmission component 8. The second conveyor belt 23 is placed obliquely on the support frame 19 to facilitate better meshing of the tooling plate 1 on the transmission component 6 with the second conveyor belt 23.

[0088] In one specific embodiment of the present invention, an electric telescopic column 24 is provided below the support platform 4.

[0089] The electric telescopic column 24 can extend and retract via electrical control, raising or lowering the support platform 4 to a predetermined position. When the electric telescopic column 24 rises, it drives the support platform 4 to rise, causing the first gear 10 on the support platform 4 to mesh with multiple sets of second gears 12 and the tooling plate 1. The tooling plate 1 disengages from the first conveyor belt 2. Simultaneously, the next adjacent tooling plate 1 may also mesh with the first gear 10 and multiple sets of second gears 12 on the support platform 4 due to the support platform 4 not descending in time. During the descent of the electric telescopic column, the adjusting component also returns to its original position. Figure 4 The position shown allows the subsequent tooling plate 1, which may mesh with the first gear 10 and multiple sets of second gears 12 on the support platform 4, to return to the first conveyor belt 2 without affecting subsequent processing and the normal operation of the first conveyor belt 2.

[0090] In one specific embodiment of the present invention, the No. 1 motor 9, the No. 2 motor 20, and the electric telescopic column 24 are electrically connected to the same controller.

[0091] The entire process of this design is carried out simultaneously. Therefore, the No. 1 motor 9, the No. 2 motor 20, and the electric telescopic column 24 need to be started and operated at the same time. Thus, the No. 1 motor 9, the No. 2 motor 20, and the electric telescopic column 24 are controlled by being electrically connected to the same controller.

[0092] In one specific embodiment of the present invention, the tooling plate 1 is provided with a first chain 25, a second chain 26, and a third chain 27. The first chain 25 meshes with a first conveyor belt 2, the second chain 26 meshes with the first conveyor belt 2, and the third chain 27 meshes with a first gear 10 and multiple sets of third gears 13.

[0093] When tooling plate 1 is on conveyor belt 2, chain 25 and chain 26 engage with conveyor belt 2, allowing tooling plate 1 to move forward. When tooling plate 1 contains defective products, chain 27 engages with gear 10 and multiple sets of gears 13, causing chain 25 and chain 26 to disengage from conveyor belt 2. When tooling plate 1 is transported to conveyor assembly 8, chain 25 and chain 26 engage with conveyor belt 23, causing chain 27 to disengage from gear 10 and multiple sets of gears 13.

[0094] In one specific embodiment of the present invention, the tooling plate 1 is provided with two baffles 28.

[0095] The baffle 28 is installed on the tooling plate 1 to prevent items on the tooling plate 1 from falling off due to tilting.

[0096] Working Principle: In current assembly line applications, when tooling plate 1 moves on conveyor platform 3 via conveyor belt 2, if a defective product appears on tooling plate 1, conveyor belt 2 needs to be stopped, the defective product removed from tooling plate 1, and then conveyor belt 2 restarted to transport tooling plate 1. This process causes other tooling plates 1 to also stop and wait, affecting production efficiency. Therefore, this invention addresses this by setting a support platform 4 in the middle of conveyor platform 3. The support platform 4 is equipped with an active component 5, a transmission component 6, and an adjustment component 7. A transmission component 8 is set above conveyor belt 2, near the support platform 4, and away from the active component 5. Through the cooperation of the active component 5, transmission component 6, and adjustment component 7, tooling plate 1 can detach from conveyor belt 2, pass through transmission component 6, and be transported to transmission component 8 to reach a fixed position. Throughout the entire process, conveyor belt 2 operates normally.

[0097] The protruding part of the support platform 4 is fixedly connected to the active component 5, and the end away from the protruding part is rotatably connected to one end of the adjustment component 7. The active component 5 and the adjustment component 7 are fixed by the support platform 4.

[0098] When the defective product tooling plate 1 reaches the support platform 4 via the first conveyor belt 2, the first motor 9 is manually activated. A pulley is fixedly connected to the output shaft of the first motor 9. The first motor 9 provides power to rotate the pulley, which drives the first gear 10 to rotate via the first belt 11, thus providing power to the transmission component 6.

[0099] When gear 10 rotates, it drives gear 12, which meshes with gear 10, to rotate. Figure 8As shown, the rotation of gear 12 causes the rotation of sprocket 29, which is fixedly connected to gear 12, to also rotate. This, in turn, causes the chain 31, which meshes with sprocket 29, to move. This, in turn, causes the first sprocket 30, which meshes with chain 31, to also rotate. The rotation of sprocket 30 causes the third connecting rod 18, which is fixedly connected to sprocket 30, to rotate around the point where it is fixedly connected to sprocket 30. This causes the fifth gear 16, which is fixedly connected to the third connecting rod 18, to also rotate along with the rotation of the third connecting rod 18. Furthermore, the fifth gear 16 and the fourth gear 15... The gears mesh, causing gear 15 (number 4) to rotate. Since gear 13 (number 3) on connecting rod 17 meshes with gear 15, it also rotates. Simultaneously, because one end of connecting rod 18 is hinged to connecting rod 17, when connecting rod 18 rotates, it causes the end of connecting rod 17 (hinged to connecting rod 17) closest to connecting rod 18 to move along with it. Under the combined action of gears 13 (number 3), 15 (number 4), 16 (number 5), and connecting rod 13, the following motion occurs... Figure 4 to Figure 3 The movement of the first connecting rod 14 is caused by the hinge between the first connecting rod 14 and the second connecting rod 17. When the end of the second connecting rod 17 near the first connecting rod 14 rises, it also causes the end of the first connecting rod 14 near the second connecting rod 17 to rise. Simultaneously, a second gear 12 is not positioned between the two third gears 13 at the end of the first connecting rod 14 near the second connecting rod 17 to prevent motion interference between the rotation of the fourth gear 15 driving the rotation of the third gear 13 meshing with the fourth gear 15 and the rotation of the multiple sets of second gears 12 and third gears 13 driven by the rotation of the first gear 10. That is, under the combined action of the active component 5, the transmission component 6, and the adjustment component 7, the end of the first connecting rod 14 near the adjustment component 7 will rise during the working process, while the position of the end of the first connecting rod 14 away from the adjustment component 7 remains unchanged. At the same time, the second gear 12 and third gear 13 rotatably connected to the first connecting rod 14 also move with the movement of the first connecting rod 1, causing the multiple sets of third gears 13 rotatably connected to the first connecting rod 14 to move. It can engage with tooling plate 1 and cause tooling plate 1 to move away from conveyor belt 2 towards conveyor assembly 8, without affecting the normal operation of conveyor belt 2.

[0100] The support frame 19 is positioned above the first conveyor belt 2 but does not contact it. The second motor 20 is fixedly connected to the protrusion of the support frame 19. The second motor 20 drives the second belt 22 to rotate through the pulley fixedly connected to the output shaft, which in turn drives the sixth gear 21 to rotate. The sixth gear 21 meshes with the second conveyor belt 23, driving the second conveyor belt 23 to rotate. The second conveyor belt 23 is placed obliquely on the support frame 19. When the tooling plate 1 is transported to one end of the second conveyor belt 23 near the transmission component 6, the tooling plate 1 will mesh with the second conveyor belt 23, thereby driving the tooling plate 1 to continue moving upward until the entire tooling plate 1 is placed on the transmission component 8. The second conveyor belt 23 is placed obliquely on the support frame 19 to facilitate better meshing of the tooling plate 1 on the transmission component 6 with the second conveyor belt 23.

[0101] The electric telescopic column 24 can be electrically controlled to extend and retract, causing the support platform 4 to rise or fall to a predetermined position. When the electric telescopic column 24 rises, it drives the support platform 4 to rise, thereby causing the first gear 10 on the support platform 4 to mesh with multiple sets of second gears 12 and the tooling plate 1. The tooling plate 1 disengages from the first conveyor belt 2. When the electric telescopic column returns to its original position, the support platform 4 falls back to its original position. The first gear 10 and multiple sets of second gears 12 on the support platform 4 do not contact the tooling plate 1, and do not affect the normal operation of the first conveyor belt 2.

[0102] The entire process of this design is carried out simultaneously. Therefore, the No. 1 motor 9, the No. 2 motor 20, and the electric telescopic column 24 need to be started and operated at the same time. Thus, the No. 1 motor 9, the No. 2 motor 20, and the electric telescopic column 24 are controlled by being electrically connected to the same controller.

[0103] When tooling plate 1 is on conveyor belt 2, chain 25 and chain 26 engage with conveyor belt 2, allowing tooling plate 1 to move forward. When tooling plate 1 contains defective products, chain 27 engages with gear 10 and multiple sets of gears 13, causing chain 25 and chain 26 to disengage from conveyor belt 2. When tooling plate 1 is transported to conveyor assembly 8, chain 25 and chain 26 engage with conveyor belt 23, causing chain 27 to disengage from gear 10 and multiple sets of gears 13.

[0104] The baffle 28 is installed on the tooling plate 1 to prevent items on the tooling plate 1 from falling off due to tilting.

[0105] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A shoe manufacturing production line with a tooling plate for individual operation, comprising a tooling plate, a primary conveyor belt, and a conveyor platform, wherein the primary conveyor belt is positioned above the conveyor platform, and the tooling plate is positioned above the primary conveyor belt, characterized in that... Also includes: Support platform, located in the middle of conveyor belt number one; The active component, located on one side above and fixedly connected to the support platform, is used to provide power; The transmission component is located above the support platform and is connected to the active component. The transmission component is used to transmit the tooling plate. An adjustment component is located on the other side above the support platform and connected to the support platform. The adjustment component works with the transmission component to adjust the angle of the transmission component. The conveying component is located above the first conveyor belt and near the support platform on the side away from the active component. It is used to receive the tooling plate above the conveying component. The support platform is L-shaped, with a protrusion on one side, and the active component is fixedly connected to the protrusion. The active components include: a No. 1 motor, which is fixedly connected to the protrusion of the support platform, and a pulley is fixedly connected to the output shaft of the No. 1 motor; a No. 1 gear, which is located above the No. 1 motor and rotatably connected to the support platform; and a No. 1 belt, which is connected to the No. 1 motor and the No. 1 gear respectively. The transmission assembly also includes: a second gear, which meshes with a first gear and is fixedly connected to a second sprocket; a third gear, which meshes with a second gear in the middle of a first gear; there are three third gears; two third gears on the side closer to the first gear mesh with a second gear, while the two third gears on the side farther from the first gear do not contact each other; the diameter of the third gear is larger than the diameter of the second gear; a first connecting rod, one end of which is rotatably connected to a second gear; there are multiple sets of second and third gears, and the first and second gears cooperate with each other to achieve transmission; the first connecting rod is rotatably connected to multiple sets of second and third gears. The adjustment assembly also includes: a fourth gear, which meshes with a third gear in the transmission assembly located near the adjustment assembly; a fifth gear, which meshes with a fourth gear; a second connecting rod, one end of which is hinged to a first connecting rod, and the second connecting rod is rotatably connected to both the fourth and fifth gears; a third connecting rod, one end of which is hinged to a second connecting rod, and the other end of which is hinged to a support platform, and the third connecting rod is fixedly connected to a fifth gear; a first sprocket is located at the end of the third connecting rod near the support platform, and the first sprocket is fixedly connected to the third connecting rod; and a chain, one end of which meshes with a second sprocket, and the other end of which meshes with a first sprocket. The conveying assembly also includes: a support frame, which is L-shaped and has a protrusion on one side; two motors, which are fixedly connected to the protrusion on the support frame, and a pulley is fixedly connected to the output shaft of the motors; a gear, which is located to the side of the motors and rotatably connected to the support frame; a belt, which is connected to both the motors and the gears; and a conveyor belt, which is rotatably connected to the gears and meshes with the tooling plate. An electric telescopic column is installed below the support platform; The tooling plate is equipped with chain number one, chain number two, and chain number three. Chain number one meshes with conveyor belt number one, chain number two meshes with conveyor belt number one, and chain number three meshes with gear number one and multiple sets of gear number three.

2. A shoe manufacturing production line with a separately working tooling plate according to claim 1, characterized in that: Motor 1, Motor 2, and the electric telescopic column are electrically connected to the same controller.

3. A shoe manufacturing production line with a separately working tooling plate according to claim 1, characterized in that: The tooling plate is equipped with two baffles.

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