Multi-size carbon crystal plate splicing equipment

Abstract

The utility model relates to the technical field of carbon crystal plates, discloses multi-size carbon crystal plate splicing equipment, and aims to solve the technical problems that in the prior art, only carbon crystal plates with fixed sizes can be clamped, and the clamping position cannot be flexibly adjusted, so that the splicing precision is not high, and the product quality is influenced. The splicing equipment comprises a rectangular supporting frame, longitudinal moving plates are slidably connected to the two sides of the interior of the rectangular supporting frame correspondingly, a movable splicing table is arranged at the tops of the longitudinal moving plates, L-shaped moving plates are slidably connected to the two ends of the top of the splicing table correspondingly, and clamping assemblies used for clamping carbon crystal plates are arranged in the L-shaped moving plates; through a series of design, the side faces and the tops of the carbon crystal plates can be clamped, the clamping efficiency is improved, the carbon crystal plates of different sizes can be flexibly clamped, and the carbon crystal plates can move transversely and longitudinally in the splicing process.

Description

Technical Field

[0001] The utility model relates to the technical field of carbon crystal plates, in particular to a multi-size carbon crystal plate splicing device. Background Art

[0002] Carbon crystal plate is a high-tech material, commonly used in the manufacture of high-end electronic products and optical equipment. It is made of carbon fiber and resin composite, with the advantages of light weight, high strength, corrosion resistance, etc. Carbon crystal plate has good thermal conductivity and electrical conductivity, can effectively dissipate heat, and has high mechanical strength, and can be made into various shapes and sizes.

[0003] Carbon crystal plates often need to be spliced ​​during production and processing to meet the needs of different sizes and shapes. Existing carbon crystal plate splicing equipment has some limitations. It can only clamp carbon crystal plates of fixed sizes and cannot flexibly adjust the clamping position, resulting in low splicing accuracy and affecting product quality. Therefore, a multi-size carbon crystal plate splicing equipment is designed to change the above technical defects. Utility Model Content

[0004] In order to overcome the technical defects of the prior art, the utility model provides a multi-size carbon crystal plate splicing device, which aims to solve the technical problem that the prior art can only clamp carbon crystal plates of fixed sizes and cannot flexibly adjust the clamping position, resulting in low splicing accuracy and affecting product quality.

[0005] The technical solution adopted by the utility model is: a multi-size carbon crystal plate splicing device, which includes a rectangular support frame, both sides of the interior of the rectangular support frame are slidably connected with longitudinal movable plates, a movable splicing table is arranged on the top of the longitudinal movable plates, both ends of the top of the splicing table are slidably connected with L-shaped movable plates, a clamping assembly for clamping the carbon crystal plate is arranged inside the L-shaped movable plate, and a moving mechanism for moving the two L-shaped movable plates is arranged at the bottom of the splicing table.

[0006] The operation of the driving motor causes the first transverse threaded rod and the second transverse threaded rod to rotate. The rotation of the first transverse threaded rod and the second transverse threaded rod enables the rectangular movable plate to move inside the splicing table, and the movement directions of the two rectangular movable plates are opposite, thereby enabling the two L-shaped movable plates to move toward the carbon crystal plate; the movement of the L-shaped movable plate enables the rectangular clamping block to fit with the carbon crystal plate, and the movement of the L-shaped movable plate enables the transverse sliding column to slide inside the L-shaped movable plate. At this time, the rigid spring is contracted under force, and the movement of the transverse sliding column enables the vertical sliding through the oblique rotating column. The column can descend inside the L-shaped movable plate, and the descent of the vertical sliding column enables the rectangular pressing block to descend, so that the rectangular clamping block can clamp both sides of the carbon crystal plate, and the rectangular pressing block can clamp the top of the carbon crystal plate, thereby improving the clamping efficiency of the carbon crystal plate and being able to adapt to carbon crystal plates of different sizes; the operation of the longitudinal cylinder enables the longitudinal movable plate to slide on the outside of the longitudinal light rod, so that the splicing table can be moved, and through the operation of the transverse cylinder, the splicing table can be moved transversely to adjust the transverse position of the carbon crystal plate to facilitate the splicing of the carbon crystal plate.

[0007] Preferably, longitudinal light rods are fixed at both ends of the rectangular support frame, and the longitudinal light rods pass through the interior of the longitudinal movable plate and are slidably connected to the longitudinal movable plate, so that the longitudinal movable plate can slide on the outside of the longitudinal light rods and the moving trajectory of the longitudinal movable plate can be guided by the longitudinal light rods.

[0008] Furthermore, the moving mechanism includes a U-shaped frame, the U-shaped frame is fixed to the bottom of the splicing table, one end of the U-shaped frame is bolted to a driving motor, a first transverse threaded rod is fixed to the output end of the driving motor, a second transverse threaded rod is fixed to the end of the first transverse threaded rod away from the driving motor, the thread rotation directions of the first transverse threaded rod and the second transverse threaded rod are opposite, the outer sides of the first transverse threaded rod and the second transverse threaded rod are threadedly connected to a rectangular moving plate, and the top of the rectangular moving plate is fixedly connected to the L-shaped moving plate.

[0009] Furthermore, a transverse slide groove is opened inside the splicing table, and the rectangular movable plate is located inside the transverse slide groove and is slidably connected to the splicing table through the transverse slide groove. Through the setting of the transverse slide groove, the rectangular movable plate can slide inside the splicing table, thereby guiding the moving trajectory of the rectangular movable plate.

[0010] Furthermore, the clamping assembly includes a transverse sliding column, the internal sliding connection of the L-shaped movable plate is connected to the transverse sliding column, a rectangular clamping block is fixed to one end of the transverse sliding column, a rigid spring is arranged between the rectangular clamping block and the L-shaped movable plate and on the outside of the transverse sliding column, the end of the transverse sliding column away from the rectangular clamping block is rotatably connected to an oblique rotating column through a pin shaft, the top of the oblique rotating column is rotatably connected to a vertical sliding column, and a rectangular pressing block is fixed to one end of the vertical sliding column.

[0011] Furthermore, vertical sliders are fixed on both sides of the vertical sliding column, and a vertical sliding groove is opened inside the L-shaped movable plate. The vertical sliding column and the L-shaped movable plate are slidingly connected through the vertical sliders and the vertical sliding grooves. Through the setting of the vertical sliders and the vertical sliding grooves, the vertical sliding column can slide vertically inside the L-shaped movable plate.

[0012] Furthermore, transverse cylinders are provided on both sides of the longitudinal movable plate, a vertical movable column is fixed to the output end of the transverse cylinder, the top of the vertical movable column is fixedly connected to the splicing table, a rectangular slider is fixed to the end of the vertical movable column close to the longitudinal movable plate, a rectangular slide groove adapted to the rectangular slider is provided inside the longitudinal movable plate, the vertical movable column and the longitudinal movable plate are slidably connected through the matching rectangular slider and the rectangular slide groove, longitudinal cylinders are fixed to both ends of one side of the rectangular support frame, and the output end of the longitudinal cylinder is fixedly connected to the longitudinal movable plate.

[0013] The beneficial effects of the utility model are:

[0014] The utility model can clamp the side and top of the carbon crystal plate through a series of designs, improve the clamping efficiency, prevent the carbon crystal plate from moving during splicing, flexibly clamp carbon crystal plates of different sizes, and enable the carbon crystal plate to move horizontally and vertically during the splicing process, thereby improving the splicing efficiency and quality of the carbon crystal plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0016] Figure 2 This is a schematic diagram of the structure of the longitudinal moving plate and the transverse cylinder of the utility model;

[0017] Figure 3 This is a structural cross-sectional view of the interior of the longitudinal movable plate of the utility model;

[0018] Figure 4 This is a schematic diagram of the structure of the transverse sliding column and the rectangular clamping block of the utility model;

[0019] Figure 5 This is a structural cross-sectional view of the interior of the splicing table of the utility model;

[0020] Figure 6 It is a structural cross-sectional view of the interior of the L-shaped movable plate of the utility model.

[0021] Explanation of the reference numerals in the accompanying drawings: 1. rectangular support frame; 2. splicing table; 3. longitudinal movable plate; 4. transverse cylinder; 5. vertical movable column; 6. longitudinal cylinder; 7. longitudinal light rod; 8. U-shaped frame; 9. driving motor; 10. first transverse threaded rod; 11. second transverse threaded rod; 12. rectangular movable plate; 13. L-shaped movable plate; 14. rectangular clamping block; 15. transverse sliding column; 16. rigid spring; 17. oblique rotating column; 18. rectangular pressing block; 19. vertical sliding column. DETAILED DESCRIPTION

[0022] The utility model is further described below in conjunction with the accompanying drawings:

[0023] like Figure 1-6 As shown, this embodiment provides a multi-size carbon crystal plate splicing device, which includes a rectangular support frame 1, both sides of the interior of the rectangular support frame 1 are slidably connected with longitudinal movable plates 3, a movable splicing table 2 is arranged on the top of the longitudinal movable plate 3, both ends of the top of the splicing table 2 are slidably connected with L-shaped movable plates 13, a clamping assembly for clamping the carbon crystal plate is arranged inside the L-shaped movable plate 13, and a moving mechanism for moving the two L-shaped movable plates 13 is arranged at the bottom of the splicing table 2;

[0024] A longitudinal light rod 7 is fixed at both ends of the rectangular support frame 1. The longitudinal light rod 7 passes through the interior of the longitudinal moving plate 3 and is slidably connected to the longitudinal moving plate 3, so that the longitudinal moving plate 3 can slide on the outside of the longitudinal light rod 7, and the moving trajectory of the longitudinal moving plate 3 can be guided by the longitudinal light rod 7;

[0025] The moving mechanism includes a U-shaped frame 8, the U-shaped frame 8 is fixed to the bottom of the splicing table 2, a driving motor 9 is fixed to one end of the U-shaped frame 8 with bolts, a first transverse threaded rod 10 is fixed to the output end of the driving motor 9, a second transverse threaded rod 11 is fixed to the end of the first transverse threaded rod 10 away from the driving motor 9, the first transverse threaded rod 10 and the second transverse threaded rod 11 have opposite thread rotation directions, the outer sides of the first transverse threaded rod 10 and the second transverse threaded rod 11 are both threadedly connected to a rectangular moving plate 12, and the top of the rectangular moving plate 12 is fixedly connected to the L-shaped moving plate 13;

[0026] A transverse slide groove is provided inside the splicing table 2, and the rectangular movable plate 12 is located inside the transverse slide groove and is slidably connected to the splicing table 2 through the transverse slide groove. Through the setting of the transverse slide groove, the rectangular movable plate 12 can slide inside the splicing table 2, thereby guiding the moving track of the rectangular movable plate 12;

[0027] The operation of the driving motor 9 causes the first transverse threaded rod 10 and the second transverse threaded rod 11 to rotate, and the rotation of the first transverse threaded rod 10 and the second transverse threaded rod 11 enables the rectangular movable plate 12 to move inside the splicing table 2, and the moving directions of the two rectangular movable plates 12 are opposite, thereby enabling the two L-shaped movable plates 13 to move toward the carbon crystal plate;

[0028] In addition, the clamping assembly includes a transverse sliding column 15, the interior of the L-shaped movable plate 13 is slidably connected with the transverse sliding column 15, one end of the transverse sliding column 15 is fixed with a rectangular clamping block 14, a rigid spring 16 is provided between the rectangular clamping block 14 and the L-shaped movable plate 13 and on the outside of the transverse sliding column 15, one end of the transverse sliding column 15 away from the rectangular clamping block 14 is rotatably connected with an oblique rotating column 17 through a pin shaft, the top of the oblique rotating column 17 is rotatably connected with a vertical sliding column 19, and one end of the vertical sliding column 19 is fixed with a rectangular pressing block 18;

[0029] Vertical sliders are fixed on both sides of the vertical sliding column 19, and a vertical slide groove is provided inside the L-shaped movable plate 13. The vertical sliding column 19 and the L-shaped movable plate 13 are slidably connected through the vertical sliders and the vertical slide grooves. Through the vertical sliders and the vertical slide grooves, the vertical sliding column 19 can slide vertically inside the L-shaped movable plate 13.

[0030] The movement of the L-shaped moving plate 13 enables the rectangular clamping block 14 to fit with the carbon crystal plate. The movement of the L-shaped moving plate 13 enables the transverse sliding column 15 to slide inside the L-shaped moving plate 13. At this time, the rigid spring 16 is forced to shrink. The movement of the transverse sliding column 15 enables the vertical sliding column 19 to descend inside the L-shaped moving plate 13 through the oblique rotating column 17. The descent of the vertical sliding column 19 enables the rectangular pressing block 18 to descend, thereby enabling the rectangular clamping block 14 to clamp both sides of the carbon crystal plate, and the rectangular pressing block 18 to clamp the top of the carbon crystal plate, thereby improving the clamping efficiency of the carbon crystal plate and being able to adapt to carbon crystal plates of different sizes.

[0031] Transverse cylinders 4 are provided on both sides of the longitudinal movable plate 3, and a vertical movable column 5 is fixed to the output end of the transverse cylinder 4. The top of the vertical movable column 5 is fixedly connected to the splicing table 2, and a rectangular slider is fixed to the end of the vertical movable column 5 close to the longitudinal movable plate 3. A rectangular slide groove adapted to the rectangular slider is provided inside the longitudinal movable plate 3. The vertical movable column 5 and the longitudinal movable plate 3 are slidably connected through the cooperation of the rectangular slider and the rectangular slide groove. Longitudinal cylinders 6 are fixed to both ends of one side of the rectangular support frame 1, and the output end of the longitudinal cylinder 6 is fixedly connected to the longitudinal movable plate 3.

[0032] The operation of the longitudinal cylinder 6 enables the longitudinal movable plate 3 to slide on the outside of the longitudinal light rod 7, thereby enabling the splicing table 2 to move. Through the operation of the transverse cylinder 4, the splicing table 2 can move transversely to adjust the transverse position of the carbon crystal plate to facilitate the splicing of the carbon crystal plate.

[0033] Working principle: When the splicing device of the present technical solution is used, the operation of the driving motor 9 causes the first transverse threaded rod 10 and the second transverse threaded rod 11 to rotate, and the rotation of the first transverse threaded rod 10 and the second transverse threaded rod 11 enables the rectangular movable plate 12 to move inside the splicing table 2, and the moving directions of the two rectangular movable plates 12 are opposite, thereby enabling the two L-shaped movable plates 13 to move toward the carbon crystal plate;

[0034] The movement of the L-shaped moving plate 13 enables the rectangular clamping block 14 to fit with the carbon crystal plate. The movement of the L-shaped moving plate 13 enables the transverse sliding column 15 to slide inside the L-shaped moving plate 13. At this time, the rigid spring 16 is forced to shrink. The movement of the transverse sliding column 15 enables the vertical sliding column 19 to descend inside the L-shaped moving plate 13 through the oblique rotating column 17. The descent of the vertical sliding column 19 enables the rectangular pressing block 18 to descend, thereby enabling the rectangular clamping block 14 to clamp both sides of the carbon crystal plate, and the rectangular pressing block 18 to clamp the top of the carbon crystal plate, thereby improving the clamping efficiency of the carbon crystal plate and being able to adapt to carbon crystal plates of different sizes.

[0035] The operation of the longitudinal cylinder 6 enables the longitudinal movable plate 3 to slide on the outside of the longitudinal light rod 7, thereby enabling the splicing table 2 to move. Through the operation of the transverse cylinder 4, the splicing table 2 can move transversely to adjust the transverse position of the carbon crystal plate to facilitate the splicing of the carbon crystal plate.

[0036] The above shows and describes the basic principles, main features and advantages of the invention. Those skilled in the art should understand that the invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the invention. Without departing from the spirit and scope of the invention, the invention may have various changes and improvements, which shall fall within the scope of the invention to be protected. The scope of protection of the invention shall be defined by the attached claims and their equivalents.

Claims

1. A multi-size carbon crystal plate splicing device, the splicing device comprising a rectangular support frame (1), both sides of the interior of the rectangular support frame (1) are slidably connected to longitudinal movable plates (3), a movable splicing platform (2) is arranged on the top of the longitudinal movable plate (3), both ends of the top of the splicing platform (2) are slidably connected to L-shaped movable plates (13), a clamping assembly for clamping the carbon crystal plate is arranged inside the L-shaped movable plate (13), and a moving mechanism for moving the two L-shaped movable plates (13) is arranged at the bottom of the splicing platform (2).

2. The multi-size carbon crystal plate splicing device according to claim 1, characterized in that: Longitudinal light rods (7) are fixed at both ends of the interior of the rectangular support frame (1), and the longitudinal light rods (7) penetrate the interior of the longitudinal movable plate (3) and are slidably connected to the longitudinal movable plate (3).

3. The multi-size carbon crystal plate splicing device according to claim 1, characterized in that: The moving mechanism comprises a U-shaped frame (8), the bottom of the splicing platform (2) is fixed with the U-shaped frame (8), one end of the U-shaped frame (8) is bolted with a driving motor (9), the output end of the driving motor (9) is fixed with a first transverse threaded rod (10), the end of the first transverse threaded rod (10) away from the driving motor (9) is fixed with a second transverse threaded rod (11), the first transverse threaded rod (10) and the second transverse threaded rod (11) have opposite thread rotation directions, the outer sides of the first transverse threaded rod (10) and the second transverse threaded rod (11) are both threadedly connected with a rectangular moving plate (12), and the top of the rectangular moving plate (12) is fixedly connected to an L-shaped moving plate (13).

4. The multi-size carbon crystal plate splicing device according to claim 3 is characterized in that: A transverse sliding groove is provided inside the splicing platform (2), and the rectangular movable plate (12) is located inside the transverse sliding groove and is slidably connected to the splicing platform (2) via the transverse sliding groove.

5. The multi-size carbon crystal plate splicing device according to claim 3 is characterized in that: The clamping assembly comprises a transverse sliding column (15), the interior of the L-shaped movable plate (13) is slidably connected to the transverse sliding column (15), one end of the transverse sliding column (15) is fixed with a rectangular clamping block (14), a rigid spring (16) is provided between the rectangular clamping block (14) and the L-shaped movable plate (13) and located on the outside of the transverse sliding column (15), one end of the transverse sliding column (15) away from the rectangular clamping block (14) is rotatably connected to an oblique rotating column (17) via a pin, the top of the oblique rotating column (17) is rotatably connected to a vertical sliding column (19), and one end of the vertical sliding column (19) is fixed with a rectangular pressing block (18).

6. The multi-size carbon crystal plate splicing device according to claim 5, characterized in that: Vertical sliding blocks are fixed on both sides of the vertical sliding column (19), a vertical sliding groove is provided inside the L-shaped movable plate (13), and the vertical sliding column (19) and the L-shaped movable plate (13) are slidably connected via the vertical sliding blocks and the vertical sliding groove.

7. The multi-size carbon crystal plate splicing device according to claim 1, characterized in that: Both sides of the longitudinal movable plate (3) are provided with transverse cylinders (4), the output end of the transverse cylinder (4) is fixed with a vertical movable column (5), the top of the vertical movable column (5) is fixedly connected to the splicing table (2), the end of the vertical movable column (5) close to the longitudinal movable plate (3) is fixed with a rectangular slider, the interior of the longitudinal movable plate (3) is provided with a rectangular slide groove adapted to the rectangular slider, the vertical movable column (5) and the longitudinal movable plate (3) are slidably connected through the cooperation of the rectangular slider and the rectangular slide groove, and longitudinal cylinders (6) are fixed at both ends of one side of the rectangular support frame (1), and the output end of the longitudinal cylinder (6) is fixedly connected to the longitudinal movable plate (3).

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