Full-automatic cutting machine for conveniently driving workpiece

Abstract

The application provides a full-automatic cutting machine for conveniently driving material feeding, relates to the technical field of driving material feeding, and comprises a material conveying table, a feeding mechanism for conveniently feeding is arranged on the material conveying table, a material conveying mechanism for conveniently conveying material is arranged on the material conveying table, a transmission mechanism for conveniently operating the material conveying mechanism is arranged on the material conveying table, the feeding mechanism comprises a material stacking table and a supporting rod, two material guiding tables are fixedly installed at the side ends of the material stacking table, L-shaped supporting frames are fixedly installed at the two side ends of the material stacking table and the material guiding tables, a side plate is fixedly installed at the side end of the material conveying table, and springs are fixedly installed between the supporting rod and the side plate. The second material conveying plate and the first material conveying plate are provided with material grooves at the upper ends, and the material grooves are designed in an arc shape, so that the shaking and falling of the pipe material caused by the movement of the first material conveying plate and the second material conveying plate can be effectively avoided when the pipe material is filled.

Description

Technical Field

[0001] This invention belongs to the field of transmission and feeding technology, and more specifically, it relates to a fully automatic cutting machine that facilitates transmission and material processing. Background Technology

[0002] Pipe materials come in a wide variety of types and can be used to transport fluids and powdery solids, exchange heat energy, manufacture mechanical parts and containers, and can also be used to manufacture building structural frames, columns and mechanical supports. In the processing of pipe materials, they need to be cut to the appropriate size, and in the process of processing and cutting pipe materials, a large number of pipe materials need to be transferred and transported.

[0003] Existing pipe transportation methods have the following disadvantages:

[0004] Because the surface of the pipe is smooth and it is easy to roll without being restricted, the traditional method of transporting multiple pipes by conveyor belt may cause the pipes to slip or roll on the conveyor belt, resulting in the pipes falling off, affecting the transportation efficiency of the pipes and possibly causing damage to the pipes.

[0005] Some conveyor belt conveyor solutions use ropes or similar materials to pack the pipes before transporting them to prevent them from swaying or shifting. This process of bundling and transporting large quantities of pipes is labor-intensive, and the bundling process itself also results in low efficiency.

[0006] Therefore, in view of this, we have studied and improved the existing structure and its shortcomings, and provided a fully automatic cutting machine that facilitates the transmission of materials, in order to achieve a more practical purpose. Summary of the Invention

[0007] To address the aforementioned technical problems, this invention provides a fully automatic cutting machine for convenient transmission of processed materials, thereby resolving the aforementioned issues.

[0008] A fully automatic cutting machine for convenient material transmission includes a conveyor table, a feeding mechanism for easy loading, a material conveying mechanism for easy transport, and a transmission mechanism for easy operation of the material conveying mechanism. The feeding mechanism includes a stacking platform and a support rod. Two guide platforms are fixedly installed on the side end of the stacking platform. L-shaped support frames are fixedly installed on both sides of the stacking platform and the guide platforms. Side plates are fixedly installed on the side end of the conveyor table. Springs are fixedly installed between the support rod and the side plates. The material conveying mechanism includes a first conveyor plate, a second conveyor plate, and a rectangular plate. Material troughs are formed at the upper ends of both the first and second conveyor plates. The rectangular plate is located at the lower end of the second conveyor plate. Two through slots are formed at the upper end of the plate. The transmission mechanism includes a transmission toothed belt, a motor, a second rotating rod, and guide plates. At least two transmission rollers are fixedly installed on both sides of the inner wall of the transfer table. There are two transmission toothed belts, which are respectively sleeved on the two transmission rollers. The motor is fixedly installed at the upper end of the side plate, and a first rotating rod is fixedly installed at the upper end of the motor. There are two guide plates, both of which are fixedly installed on the inner wall of the transfer table. Two rectangular slides are formed at the upper end of the transfer table. Circular grooves are formed through the side ends of the inner walls of the two rectangular slides. Reciprocating screws are rotatably installed on the inner walls of the two circular grooves. The two reciprocating screws have opposite thread directions. A fifth gear is fixedly installed at the circumferential end of the multi-screw. Two rollers are also fixedly installed at the two ends of the inner sidewall of the conveyor table. A first gear is rotatably installed at the circumferential end of each of the two rollers. An arc-shaped top plate is fixedly installed at the upper end of the support rod, and the arc-shaped top plate is slidably installed between two L-shaped support frames. A telescopic rod is fixedly installed between the support rod and the side plate, and the telescopic rod is located on the inner sidewall of the spring. Side rods are fixedly installed at both ends of the support rod. A second crossbar is fixedly installed at the side ends of each of the two side rods. A first crossbar is fixedly installed at the side ends of each of the two side rods. The ends of the first and second crossbars are both beveled. A second gear is fixedly installed at the circumferential end of the first rotating rod. The upper end of the side plate is fixed... Two uprights are installed, each with a cylindrical groove extending through its side end. A second rotating rod is rotatably mounted on the inner wall of each cylindrical groove. A fourth gear is fixedly mounted on the circumferential end of each of the two second rotating rods, and both fourth gears mesh with the second gears. A third gear is also fixedly mounted on the circumferential end of each of the two second rotating rods. Z-shaped plates are fixedly mounted on both sides of the first material transfer plate. Rectangular sliders are fixedly mounted on the lower ends of each of the two Z-shaped plates. Threaded grooves are extending through the side ends of each of the two rectangular sliders. The lower end of the first material transfer plate is fixedly connected to the upper end of the transmission toothed belt. Fixed rods are fixedly mounted on the side ends of each of the two Z-shaped plates, and first push blocks are fixedly mounted on the lower ends of each of the two fixed rods.The end of the first pusher block is beveled.

[0009] Preferably, a slide rail is provided through the side end of the guide plate, and two fixing columns are fixedly installed at the lower end of the second material transfer plate, with the same receiving rod fixedly installed at the lower end of the two fixing columns.

[0010] Preferably, the two fixed columns are slidably installed on the inner sidewalls of the two slots, and two movable columns are fixedly installed on both ends of the receiving rod. The same movable block is fixedly installed on the circumferential end of each pair of movable columns, and the two movable blocks are slidably installed on the inner sidewalls of the two slide rails.

[0011] Preferably, a second push block is fixedly installed on the side end of the rectangular plate, the end of the second push block is beveled, and two moving rods are fixedly installed on the lower end of the rectangular plate. The two ends of the two moving rods are fixedly connected to the ends of the lower sections of the two transmission toothed belts. Each moving rod has two slots at its lower end, and each moving rod is slidably installed on the guide plate through the slots.

[0012] Compared with the prior art, the present invention has the following beneficial effects:

[0013] In this invention, two material trays, a second material transfer plate and a first material transfer plate, are provided. The upper ends of both the second and first material transfer plates are provided with material grooves. The arc-shaped design of the material grooves can effectively prevent the material from shaking and falling due to the movement of the first and second material transfer plates when the pipe is being filled. Furthermore, the pipe is placed in the material grooves for material transfer, and the pipe will not be displaced or cause blockages. This ensures the stability and efficiency of the material transfer.

[0014] In this invention, by setting up a second gear, a second rotating rod, a third gear, a fourth gear, and a fifth gear in cooperation, and driven by a single motor, the reciprocating screws on both sides can be driven to rotate simultaneously, and the thread directions of the reciprocating screws on both sides are opposite. This ensures that the rectangular sliders on both sides slide simultaneously within the rectangular groove, ensuring the stability of the first material transfer plate during reciprocating movement. It also avoids the first material transfer plate from jamming due to asynchronous operation of the two rectangular sliders within the rectangular groove, and avoids the energy consumption of multiple motor drives. At the same time, it realizes the reciprocating movement of the second material transfer plate. The structure is compact, efficient, and energy-saving.

[0015] In this invention, two material trays, a first material transfer plate and a second material transfer plate, are set up to operate alternately. When the first material transfer plate moves away from the stacking platform after filling, it can drive the second material transfer plate on the rectangular plate to move closer to the stacking platform through the cooperation of the transmission toothed belt, transmission roller, circular roller and the first gear, realizing the alternating movement of the first material transfer plate and the second material transfer plate. When the first material transfer plate is transferring and unloading, it can drive the second material transfer plate to move and reset to fill. When the first material transfer plate completes the unloading and reset, it can drive the second material transfer plate after filling to transfer and unload, thereby realizing the reciprocating material transfer of the double material trays and improving the material transfer efficiency of the automatic cutting machine.

[0016] In this invention, a guide plate, a slide rail, and a movable block are arranged in coordination. The slide rail is U-shaped with a sunken middle section. This allows the movable block to sink within the slide rail when the first and second material transfer plates alternately move to the middle position, thereby causing the second material transfer plate to sink. When the first and second material transfer plates alternately move to the middle position, the second material transfer plate moves below the first material transfer plate, avoiding collisions between the two plates. While achieving alternating material transfer, the invention ensures that the first and second material transfer plates operate independently without interfering with each other.

[0017] In this invention, by setting up a support rod, an arc-shaped top plate, and a guide platform in cooperation, during the alternating reciprocating movement of the first and second transfer plates, the first or second push block can contact the second or first crossbar respectively, thereby pushing the arc-shaped top plate on the support rod to move upward, lifting the tube material in the guide platform, and rolling it into the material trough on the first or second transfer plate under gravity. This achieves automatic feeding during the alternating reciprocating feeding of the first and second transfer plates, eliminating the need for manual handling and feeding, and ensuring that the feeding amount is relatively fixed and uniform each time, which is convenient for material transmission and transportation. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the material transfer table structure of the present invention;

[0019] Figure 2 This is a schematic diagram of the stacking platform structure of the present invention;

[0020] Figure 3 This is a schematic diagram of the arc-shaped top plate structure of the present invention;

[0021] Figure 4 This is a schematic diagram of the side plate structure of the present invention;

[0022] Figure 5 This is a schematic diagram of the first material transfer plate structure of the present invention;

[0023] Figure 6 This is a schematic diagram of the guide plate structure of the present invention;

[0024] Figure 7 This is a schematic diagram of the structure of the second transfer plate of the present invention;

[0025] Figure 8 This is a schematic diagram of the second pusher structure of the present invention;

[0026] Figure 9 This is a schematic diagram of the transmission toothed belt structure of the present invention.

[0027] In the diagram, the correspondence between component names and attached drawing numbers is as follows: 1. Transfer table; 11. Rectangular chute; 12. Circular chute; 13. Drive roller; 14. Circular roller; 15. First gear; 16. Drive toothed belt; 2. Stacking platform; 21. L-shaped support frame; 22. Guide platform; 3. Support rod; 31. Arc-shaped top plate; 32. Side rod; 33. First crossbar; 34. Spring; 35. Telescopic rod; 36. Second crossbar; 4. Side plate; 41. Vertical pole; 42. Columnar groove; 43. Motor; 45. First rotating rod; 46. ... 47. Second rotating rod; 48. Third gear; 49. Fourth gear; 5. First transfer plate; 51. Material trough; 52. Z-shaped plate; 53. Rectangular slider; 54. Threaded groove; 55. Fixed rod; 56. First push block; 57. Reciprocating screw; 58. Fifth gear; 6. Guide plate; 61. Slide rail; 72. Second transfer plate; 73. Fixed column; 74. Receiving rod; 75. Movable column; 86. Movable block; 87. Rectangular plate; 88. Second push block; 89. Hole and slot; 80. Moving rod; 81. Slot. Detailed Implementation

[0028] The embodiments of the present invention will be described in further detail below with reference to the accompanying drawings and examples. The following examples are for illustrative purposes only and should not be construed as limiting the scope of the invention.

[0029] Please see Figures 1 to 9This invention provides a technical solution including a material transfer platform 1, a material transfer mechanism for facilitating material loading, a material transfer mechanism for facilitating material transport, and a transmission mechanism for facilitating the operation of the material transport mechanism. The material loading mechanism includes a stacking platform 2 and a support rod 3. Two guide platforms 22 are fixedly installed on the side end of the stacking platform 2. L-shaped support frames 21 are fixedly installed on both sides of the stacking platform 2 and the guide platforms 22. A side plate 4 is fixedly installed on the side end of the material transfer platform 1. A spring 34 is fixedly installed between the support rod 3 and the side plate 4. The material transport mechanism includes a first material transfer plate 5 and a second material transfer plate. 7 and rectangular plate 8, the upper ends of the first material transfer plate 5 and the second material transfer plate 7 are provided with material troughs 51, which can be used to stack pipe materials on the stacking platform 2. The motor 43 is started to drive the first rotating rod 45 to rotate. With the cooperation of multiple gears, the first material transfer plate 5 can move. The first material transfer plate 5 can move to one side and drive the second material transfer plate 7 to the other side through the transmission toothed belt 16. In this way, when the first material transfer plate 5 moves to one side to transfer and unload material, the second material transfer plate 7 can move to the opposite side of the stacking platform 2 to load material. This is repeated to realize the alternating transfer of material between the first material transfer plate 5 and the second material transfer plate 7.

[0030] A rectangular plate 8 is located at the lower end of the second transfer plate 7. Two through slots 82 are formed at the upper end of the rectangular plate 8. The transmission mechanism includes a transmission toothed belt 16, a motor 43, a second rotating rod 47, and guide plates 6. At least two transmission rollers 13 are fixedly installed on both sides of the inner wall of the transfer platform 1. There are two transmission toothed belts 16, each sleeved on one of the two transmission rollers 13. The motor 43 is fixedly installed on the upper end of the side plate 4, and a first rotating rod 45 is fixedly installed on the upper end of the motor 43. There are two guide plates 6, both fixedly installed on the inner wall of the transfer platform 1. Two rectangular slides 11 are formed at the upper end of the transfer platform 1. Circular grooves 12 are formed through the side ends of the inner walls of the two rectangular slides 11. The inner wall of the circular groove 12 is rotatably mounted with reciprocating screws 57, the two reciprocating screws 57 have opposite thread directions, and the circumferential ends of the two reciprocating screws 57 are fixedly mounted with fifth gears 58. Circular rollers 14 are also fixedly mounted on both sides of the inner wall of the conveyor table 1, and the circumferential ends of the two circular rollers 14 are rotatably mounted with first gears 15. An arc-shaped top plate 31 is fixedly mounted on the upper end of the support rod 3, and the arc-shaped top plate 31 is slidably mounted between two L-shaped support frames 21. A telescopic rod 35 is also fixedly mounted between the support rod 3 and the side plate 4, and the telescopic rod 35 is located on the inner wall of the spring 34. Side rods 32 are fixedly mounted on both sides of the support rod 3, and second crossbars 36 are fixedly mounted on the side ends of the two side rods 32. A first crossbar 33 is fixedly installed. The ends of the first crossbar 33 and the second crossbar 36 are both beveled. During the alternating movement of the first transfer plate 5 and the second transfer plate 7, automatic feeding of the material troughs 51 on the first transfer plate 5 and the second transfer plate 7 can be achieved with the cooperation of the feeding mechanism. When the user stacks materials on the stacking platform 2, the size and length of the stacking platform 2 can be designed according to the actual material transfer volume. After the material is stacked on the stacking platform 2, some of the material will move into the guide platform 22. When the first transfer plate 5 moves closer to the stacking platform 2, the first transfer plate 5 drives the Z-shaped plates 52 on both sides to move. The movement of the Z-shaped plates 52 drives the fixed rods 55 on both sides to move. The movement of the fixed rods 55 will drive the first push block 56 to move. When the second crossbar 36 is contacted, it will push the second crossbar 36 to move upward. The upward movement of the second crossbar 36 will drive the support rod 3 to move upward. The upward movement of the support rod 3 will drive the arc-shaped top plate 31 to move upward. The upward movement of the support rod 3 will push the tube material in the guide platform 22 upward, and then roll it into the material trough 51 on the first transfer plate 5. When the first transfer plate 5 moves away, the spring 34 pulls the arc-shaped top plate 31 on the support rod 3 to move downward and reset. The tube material in the stacking platform 2 will roll back into the guide platform 22. When the second transfer plate 7 moves closer to the stacking platform 2, the second push block 81 on the rectangular plate 8 will move closer to the stacking platform 2. When the second push block 81 moves and contacts the first crossbar 33,This will also push the arc-shaped top plate 31 on the support rod 3 upward, thereby feeding the second material transfer plate 7;

[0031] A second gear 46 is fixedly installed at the circumferential end of the first rotating rod 45. Two uprights 41 are fixedly installed at the upper end of the side plate 4. Columnar grooves 42 are formed through the side ends of the two uprights 41. Second rotating rods 47 are rotatably installed on the inner walls of both columnar grooves 42. Fourth gears 49 are fixedly installed at the circumferential ends of both second rotating rods 47, and both fourth gears 49 mesh with the second gears 46. Third gears 48 are also fixedly installed at the circumferential ends of the two second rotating rods 47. Z-shaped plates 52 are fixedly installed at both ends of the first material transfer plate 5. Material is loaded through the material trough 51 on the first material transfer plate 5. The material trough 51 has an arc-shaped design. After loading… The user can start the motor 43. The start of the motor 43 drives the first rotating rod 45 to rotate. The rotation of the first rotating rod 45 drives the second gear 46 to rotate. The second gear 46 meshes with the two fourth gears 49. The rotation of the second gear 46 drives the fourth gear 49 to rotate. The rotation of the fourth gear 49 drives the two second rotating rods 47 to rotate. The rotation of the second rotating rods 47 drives the third gears 48 on both sides to rotate. The rotation of the third gears 48 drives the fifth gears 58 on both sides to rotate. The rotation of the fifth gears 58 on both sides drives the two reciprocating screws 57 to rotate. The rotation of the two reciprocating screws 57 drives the rectangular slider 53 to slide in the rectangular slide groove 11 through the threaded groove 54.

[0032] Rectangular sliders 53 are fixedly installed at the lower ends of both Z-shaped plates 52. Threaded grooves 54 are opened through the side ends of both rectangular sliders 53. The lower end of the first transfer plate 5 is fixedly connected to the upper end of the transmission toothed belt 16. Fixed rods 55 are fixedly installed at the side ends of both Z-shaped plates 52. First push blocks 56 are fixedly installed at the lower ends of both fixed rods 55. The end of the first push block 56 is beveled. A slide rail 61 is opened through the side end of the guide plate 6. Two fixed posts 71 are fixedly installed at the lower end of the second transfer plate 7. The same receiving rod 72 is fixedly installed at the lower ends of the two fixed posts 71. The two fixed posts 71 are slidably installed on the inner walls of the two slots 82. Two movable posts 73 are fixedly installed at both ends of the receiving rod 72. The same movable block 74 is fixedly installed at the circumferential end of each pair of movable posts 73. The two movable blocks 74 are slidably installed on the inner walls of the two slide rails 61. When the rectangular plate 8 resets and moves, driving the second transfer plate 7 to move, the rectangular... The plate 8 moves, driving the fixed column 71 to move through the slot 82. The movement of the fixed column 71 drives the support rod 72 located below the rectangular plate 8 to move. The movement of the support rod 72 drives the movable columns 73 on both sides to move. The movement of the movable columns 73 drives the movable blocks 74 on both sides to move. The movable blocks 74 slide within the slide rail 61. When the movable blocks 74 move to a position close to the middle of the slide rail 61, the movable blocks 74 move downward along the track of the slide rail 61. The downward movement of the movable blocks 74 drives the support rod 72 to move downward through the movable column 73. The downward movement of the support rod 72 drives the second material transfer plate 7 to move downward through the fixed column 71. This avoids collisions when the alternating movement of the first material transfer plate 5 and the second material transfer plate 7 is interrupted. When the first material transfer plate 5 and the second material transfer plate 7 move to a position close to the middle, the second material transfer plate 7 can automatically sink. When the movable blocks 74 move away from the middle of the slide rail 61, the movable blocks 74 can move upward along the track of the slide rail 61 to reset, thereby driving the second material transfer plate 7 to reset.

[0033] A second push block 81 is fixedly installed on the side end of the rectangular plate 8. The end of the second push block 81 is beveled. Two moving rods 83 are fixedly installed on the lower end of the rectangular plate 8. The two ends of the two moving rods 83 are fixedly connected to the ends of the lower sections of the two transmission toothed belts 16. Each moving rod 83 has two slots 84 at its lower end. Each moving rod 83 is slidably mounted on the guide plate 6 through the slots 84. When the first conveyor plate 5 moves, it will drive the transmission toothed belt 16 to move. The first conveyor plate 5 will drive the upper section of the transmission toothed belt 16 to move. The movement of the transmission toothed belt 16 will drive each transmission roller 13 to rotate. The movement of the transmission toothed belt 16 will also drive the first gear. When the transmission belt 16 rotates, the upper section of the transmission belt 16 moves, which in turn drives the lower section of the transmission belt 16 to move to the other side. Since the two ends of the two moving rods 83 are fixedly connected to the ends of the lower sections of the two transmission belts 16, the movement of the lower section of the transmission belt 16 will drive each moving rod 83 to move to one side of the stacking platform 2. The sliding of the moving rods 83 on the two guide plates 6 will drive the rectangular plate 8 to move. The movement of the rectangular plate 8 will drive the second transfer plate 7 to move through the fixed column 71. Thus, when the first transfer plate 5 moves away from the stacking platform 2, it can drive the second transfer plate 7 to move closer to the stacking platform 2, realizing the cross movement of the first transfer plate 5 and the second transfer plate 7.

[0034] Working principle:

[0035] The first step is that when the user transfers the pipe material to the cutting machine for cutting, the pipe material can be stacked on the stacking platform 2. The motor 43 is started to drive the first rotating rod 45 to rotate. With the cooperation of multiple gears, the first transfer plate 5 moves. The first transfer plate 5 moves to one side and can drive the second transfer plate 7 to the other side through the transmission toothed belt 16. In this way, when the first transfer plate 5 moves to one side for material transfer and unloading, the second transfer plate 7 can move to the opposite side of the stacking platform 2 for material loading. This process is repeated to realize the alternating transfer of material between the first transfer plate 5 and the second transfer plate 7.

[0036] In the second step, when the user is transferring materials, the material is loaded through the material trough 51 on the first material transfer plate 5. The material trough 51 is arc-shaped. After loading, the user can start the motor 43. The motor 43 starts and drives the first rotating rod 45 to rotate. The rotation of the first rotating rod 45 drives the second gear 46 to rotate. The second gear 46 meshes with two fourth gears 49. The rotation of the second gear 46 drives the fourth gear 49 to rotate. The rotation of the fourth gear 49 drives the two second rotating rods 47 to rotate. The rotation of the second rotating rods 47 drives the third gears 48 on both sides to rotate. The rotation of the third gears 48 drives the fifth gears 58 on both sides to rotate. The rotation of the fifth gears 58 on both sides drives the two reciprocating screws 57 to rotate. The rotation of the two reciprocating screws 57 drives the rectangular slider 53 to slide in the rectangular slide groove 11 through the threaded groove 54. The movement of the rectangular slider 53 drives the two Z-shaped plates 52 to move. The movement of the Z-shaped plates 52 drives the first material transfer plate 5 loaded with tube material to move away from the stacking platform 2, thereby transferring materials.

[0037] This device is equipped with two material trays: a second material transfer plate 7 and a first material transfer plate 5. Both the second material transfer plate 7 and the first material transfer plate 5 have a material groove 51 at their upper ends. The material groove 51 has an arc-shaped design, which can effectively prevent the material from shaking and falling when the first material transfer plate 5 and the second material transfer plate 7 move. When the material is placed in the material groove 51 for material transfer, the material will not be displaced and cause blockages. This ensures the stability of the material and the efficiency of material transfer.

[0038] This device, through the coordinated operation of a second gear 46, a second rotating rod 47, a third gear 48, a fourth gear 49, and a fifth gear 58, and driven by a motor 43, can simultaneously rotate the reciprocating screws 57 on both sides. The threads of the reciprocating screws 57 on both sides are in opposite directions, thus ensuring the simultaneous sliding motion of the rectangular sliders 53 on both sides within the rectangular groove 11. This guarantees the stability of the first material transfer plate 5 during reciprocating movement, preventing the two rectangular sliders 53 within the rectangular groove 11 from running asynchronously and causing the first material transfer plate 5 to jam. It also avoids the energy consumption of multiple motors 43. Simultaneously, it achieves the reciprocating movement of the second material transfer plate 7. The device features a compact structure, high efficiency, and low energy consumption.

[0039] Thirdly, when the first conveyor plate 5 moves, it drives the transmission belt 16 to move. The first conveyor plate 5 drives the upper section of the transmission belt 16 to move, and the movement of the transmission belt 16 drives each transmission roller 13 to rotate. The movement of the transmission belt 16 also drives the first gear 15 to rotate. The movement of the upper section of the transmission belt 16 drives the lower section of the transmission belt 16 to move to the other side. Since the two ends of the two moving rods 83 are fixedly connected to the ends of the two lower sections of the transmission belt 16, the movement of the lower section of the transmission belt 16 drives each moving rod 83 to move towards the material pile. When one side of platform 2 moves, the sliding rod 83 on the two guide plates 6 will drive the rectangular plate 8 to move. The movement of the rectangular plate 8 will drive the second transfer plate 7 to move through the fixed column 71. Thus, when the first transfer plate 5 moves away from the stacking platform 2, it can drive the second transfer plate 7 to move closer to the stacking platform 2, realizing the cross movement of the first transfer plate 5 and the second transfer plate 7. Thus, when the first transfer plate 5 moves to the side away from the stacking platform 2 for unloading and cutting, the second transfer plate 7 can move to the side of the first transfer plate 5 for loading pipe material.

[0040] This device uses two material trays, a first material transfer plate 5 and a second material transfer plate 7, to operate alternately. When the first material transfer plate 5 is filled and moves away from the stacking platform 2 for material transfer, the transmission belt 16, transmission roller 13, circular roller 14 and the first gear 15 work together to drive the second material transfer plate 7 on the rectangular plate 8 to move closer to the stacking platform 2, realizing the alternating movement of the first material transfer plate 5 and the second material transfer plate 7. When the first material transfer plate 5 is transferring and unloading material, it can drive the second material transfer plate 7 to move and reset for filling. When the first material transfer plate 5 completes the unloading and reset, it can drive the second material transfer plate 7 after filling to transfer and unload material, thereby realizing the reciprocating material transfer of the double material trays and improving the material transfer efficiency of the automatic cutting machine.

[0041] Fourthly, when the rectangular plate 8 resets and moves, causing the second transfer plate 7 to move, the rectangular plate 8 moves, driving the fixed column 71 to move through the slot 82. The fixed column 71 moves, driving the receiving rod 72 located below the rectangular plate 8 to move. The moving rod 72 moves the movable columns 73 on both sides, which in turn move the movable blocks 74 on both sides. The movable blocks 74 slide within the slide rail 61. When the movable blocks 74 move to a position close to the middle of the slide rail 61, they move downwards along the track of the slide rail 61. The downward movement of block 74 drives the downward movement of receiving rod 72 via movable column 73. The downward movement of receiving rod 72 drives the downward movement of second material transfer plate 7 via fixed column 71. This avoids collisions when the alternating movement of first material transfer plate 5 and second material transfer plate 7 is interrupted. When the first material transfer plate 5 and second material transfer plate 7 move to the middle position, the second material transfer plate 7 can automatically sink. When movable block 74 moves away from the middle section of slide rail 61, movable block 74 can move upward along the track of slide rail 61 to reset, thereby driving the second material transfer plate 7 to reset.

[0042] This device uses a guide plate 6, a slide rail 61, and a movable block 74 in combination. The slide rail 61 is U-shaped with a sunken middle section. This allows the movable block 74 to sink within the slide rail 61 when the first transfer plate 5 and the second transfer plate 7 alternately move to the middle position. This, in turn, causes the second transfer plate 7 to sink. When the first transfer plate 5 and the second transfer plate 7 alternately move to the middle position, the second transfer plate 7 moves below the first transfer plate 5, avoiding collisions between the second transfer plate 7 and the first transfer plate 5. While achieving alternating material transfer, this device ensures that the first transfer plate 5 and the second transfer plate 7 operate independently without interfering with each other.

[0043] Fifthly, during the alternating movement of the first transfer plate 5 and the second transfer plate 7, automatic feeding of the material troughs 51 on both plates can be achieved with the cooperation of the feeding mechanism. When the user stacks materials on the stacking platform 2, the dimensions and length of the stacking platform 2 can be designed according to the actual material transfer volume. After the materials are stacked on the stacking platform 2, some of the materials will move into the guide platform 22. When the first transfer plate 5 moves closer to the stacking platform 2, it drives the Z-shaped plates 52 on both sides to move. The movement of the Z-shaped plates 52 drives the fixed rods 55 on both sides to move. The movement of the fixed rods 55 drives the first push block 56 to move. When the first push block 56 contacts the second crossbar 36, it pushes the second crossbar 36 upward. The support rod 3 will move upward, which will cause the arc-shaped top plate 31 to move upward. The upward movement of the support rod 3 will push the tube material in the guide platform 22 upward, and then roll it into the material trough 51 on the first transfer plate 5. When the first transfer plate 5 moves away, the spring 34 pulls the arc-shaped top plate 31 on the support rod 3 to move downward and reset. The tube material in the stacking platform 2 will roll back into the guide platform 22. When the second transfer plate 7 moves closer to the stacking platform 2, the second push block 81 on the rectangular plate 8 will move closer to the stacking platform 2. When the second push block 81 moves and contacts the first crossbar 33, it will also push the arc-shaped top plate 31 on the support rod 3 to move upward, and then feed the second transfer plate 7. This realizes automatic feeding when the first transfer plate 5 and the second transfer plate 7 alternately feed material.

[0044] This device, through the cooperation of a support rod 3, an arc-shaped top plate 31, and a guide platform 22, allows the material to be automatically fed during the alternating reciprocating movement of the first transfer plate 5 and the second transfer plate 7. The first push block 56 or the second push block 81 can contact the second crossbar 36 or the first crossbar 33 respectively, thereby pushing the arc-shaped top plate 31 on the support rod 3 upward, lifting the tube material in the guide platform 22, and rolling it into the material trough 51 on the first transfer plate 5 or the second transfer plate 7 under gravity. This achieves automatic feeding during the alternating reciprocating feeding of the first transfer plate 5 and the second transfer plate 7, eliminating the need for manual handling and feeding. The feeding amount is relatively fixed and uniform each time, which facilitates material transportation.

[0045] The embodiments of the present invention are given for illustrative and descriptive purposes only, and are not intended to be exhaustive or to limit the invention to the forms disclosed. Many modifications and variations will be apparent to those skilled in the art. The embodiments were chosen and described in order to better illustrate the principles and practical application of the invention, and to enable those skilled in the art to understand the invention and to design various embodiments with various modifications suitable for a particular purpose.

Claims

1. A fully automatic cutting machine for convenient material transmission, comprising a material conveying table (1), characterized in that: The material conveying platform (1) is provided with a material feeding mechanism to facilitate material feeding, a material conveying mechanism to facilitate material transportation, and a transmission mechanism to facilitate the operation of the material transportation mechanism. The material conveying mechanism includes a first conveying plate (5), a second conveying plate (7) and a rectangular plate (8). The upper ends of the first conveying plate (5) and the second conveying plate (7) are provided with material troughs (51). The rectangular plate (8) is located at the lower end of the second conveying plate (7). The upper end of the rectangular plate (8) has two through holes (82). The transmission mechanism includes a transmission toothed belt (16), a motor (43), a second rotating rod (47) and a guide plate (6). At least two transmission rollers (13) are fixedly installed on both sides of the inner wall of the material transfer table (1). There are two transmission toothed belts (16), and the two transmission toothed belts (16) are respectively sleeved on the transmission rollers (13) on both sides. The feeding mechanism includes a stacking platform (2) and a support rod (3). Two guide platforms (22) are fixedly installed on the side end of the stacking platform (2). L-shaped support frames (21) are fixedly installed on both sides of the stacking platform (2) and the guide platforms (22). A side plate (4) is fixedly installed on the side end of the transfer platform (1). Two rectangular slides (11) are opened on the upper end of the transfer platform (1). A circular groove (12) is opened through the side end of the inner wall of the two rectangular slides (11). A reciprocating screw (57) is rotatably installed on the inner wall of the two circular grooves (12). A spring is fixedly installed between the support rod (3) and the side plate (4). (34), the two reciprocating screws (57) have opposite thread directions, and the fifth gear (58) is fixedly installed at the circumferential end of each reciprocating screw (57). The two sides of the inner wall of the conveying table (1) are also fixedly installed with rollers (14). The two rollers (14) are rotatably installed with first gears (15) at the circumferential end of each roller. The upper end of the support rod (3) is fixedly installed with an arc-shaped top plate (31). The arc-shaped top plate (31) is slidably installed between two L-shaped support frames (21). The telescopic rod (35) is also fixedly installed between the support rod (3) and the side plate (4). The telescopic rod (35) is located on the inner wall of the spring (34). The motor (43) is fixedly installed on the upper end of the side plate (4). A first rotating rod (45) is fixedly installed on the upper end of the motor (43). A second gear (46) is fixedly installed on the circumferential end of the first rotating rod (45). Two uprights (41) are fixedly installed on the upper end of the side plate (4). A cylindrical groove (42) is opened through the side end of the two uprights (41). A second rotating rod (47) is rotatably installed on the inner side wall of each of the two cylindrical grooves (42). Both sides of the first conveyor plate (5) are fixedly installed with... The device is equipped with Z-shaped plates (52), and rectangular sliders (53) are fixedly installed at the lower ends of the two Z-shaped plates (52). Threaded grooves (54) are opened through the side ends of the two rectangular sliders (53). The lower end of the first transfer plate (5) and the upper end of the transmission toothed belt (16) are fixedly connected. Fixing rods (55) are fixedly installed at the side ends of the two Z-shaped plates (52). First push blocks (56) are fixedly installed at the lower ends of the two fixing rods (55). The end of the first push block (56) is a beveled surface. The guide plate (6) has a slide rail (61) extending through its side end. The lower end of the second material transfer plate (7) is fixedly equipped with two fixed columns (71). The lower ends of the two fixed columns (71) are fixedly equipped with the same receiving rod (72). The two fixed columns (71) are slidably installed on the inner side walls of the two slots (82). The two ends of the receiving rod (72) are fixedly equipped with two movable columns (73). The circumferential ends of each pair of movable columns (73) are fixedly equipped with the same movable block (74). The two movable blocks (74) The rectangular plate (8) is slidably installed on the inner side wall of the two slide rails (61). The side end of the rectangular plate (8) is fixedly installed with a second push block (81). The end of the second push block (81) is a beveled surface. The lower end of the rectangular plate (8) is fixedly installed with two moving rods (83). The two sides of the moving rods (83) are fixedly connected to the lower ends of the two transmission toothed belts (16). The lower end of each moving rod (83) has two slots (84). Each moving rod (83) is slidably installed on the guide plate (6) through the slots (84).

2. The fully automatic cutting machine for convenient transmission of processed materials as described in claim 1, characterized in that: Side rods (32) are fixedly installed on both ends of the support rod (3), and second crossbars (36) are fixedly installed on the side ends of the two side rods (32), and first crossbars (33) are fixedly installed on the side ends of the two side rods (32). The ends of the first crossbar (33) and the second crossbar (36) are both beveled.

3. The fully automatic cutting machine for convenient transmission of processed materials as described in claim 2, characterized in that: The number of guide plates (6) is two, and both guide plates (6) are fixedly installed on the inner side wall of the material transfer table (1). The circumferential ends of the two second rotating rods (47) are fixedly installed with fourth gears (49). Both of the fourth gears (49) mesh with the second gear (46); A third gear (48) is also fixedly installed at the circumferential ends of the two second rotating rods (47).

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