Membrane flattening mechanism and membrane traction conveyor

Abstract

The utility model discloses a diaphragm flattening mechanism and diaphragm traction conveying device, diaphragm flattening mechanism includes installation component, first blow pipe and second blow pipe, wherein, first blow pipe is connected on installation component and is used to access pressure gas and blows air to left edge of diaphragm in the process that diaphragm is pulled forward movement to blow flat left edge, second blow pipe is connected on installation component and is used to access pressure gas and blows air to right edge of diaphragm in the process that diaphragm is pulled forward movement to blow flat right edge. The utility model can blow flat left edge and right edge on diaphragm in the process that diaphragm moves, and then can make diaphragm flatten, can avoid the problem that diaphragm appears angle of folding and wrinkle in the process that diaphragm is folded in sequence.

Description

Technical Field

[0001] This utility model relates to a diaphragm flattening mechanism and a diaphragm traction and conveying device. Background Technology

[0002] Currently, membrane cutting and stacking machines are one of the key pieces of equipment in RO membrane production. These machines are primarily used for cutting and folding membrane sheets and grids. Chinese patent CN208406641U discloses an automatic integrated membrane cutting and stacking machine. However, in actual production, it has been found that some relatively dry membrane sheets, due to insufficient humidity, will curl at their left and right edges, forming left and right curled edges respectively. Most existing membrane cutting and stacking machines are unable to flatten these curled edges, leading to problems such as folds and wrinkles during subsequent stacking, which in turn affects the quality of the produced RO membrane. Summary of the Invention

[0003] The technical problem to be solved by this utility model is to overcome the defects of the prior art and provide a diaphragm flattening mechanism that can flatten the left and right rolled edges on the diaphragm during the movement of the diaphragm, thereby flattening the diaphragm and avoiding the problems of folds and wrinkles in the subsequent lamination process.

[0004] To solve the above-mentioned technical problems, the technical solution of this utility model is: a diaphragm flattening mechanism, including an installation component, a first air blowing pipe and a second air blowing pipe;

[0005] The first air blowing tube is connected to the mounting assembly and is used to introduce pressurized gas and blow air onto the left curled edge of the diaphragm to flatten the left curled edge as the diaphragm is pulled forward.

[0006] The second air blowing tube is connected to the mounting assembly and is used to introduce pressurized gas and blow air onto the right rolled edge of the diaphragm to flatten the right rolled edge as the diaphragm is pulled forward.

[0007] Furthermore, the first air tube is connected to the mounting assembly and is used to extend to the right side of the left rolled edge on the diaphragm as the diaphragm is pulled forward;

[0008] The first air blowing tube is provided with at least one first air blowing hole facing the left rolled edge;

[0009] The first air tube is used to receive pressurized gas and blow out the pressurized gas through the first air hole to flatten the left rolled edge on the diaphragm.

[0010] The second air tube is connected to the mounting assembly and is used to extend to the left side of the right rolled edge on the diaphragm as the diaphragm is pulled forward;

[0011] The second air tube is provided with at least one second air hole facing the right rolled edge;

[0012] The second air tube is used to receive pressurized gas and blow the pressurized gas out through the second air hole to flatten the right rolled edge on the diaphragm.

[0013] Furthermore, the first air tube and the second air tube are respectively used to contact the upper surface of the diaphragm and smooth out the wrinkles on the diaphragm through friction during the process of the diaphragm being pulled forward.

[0014] Furthermore, the first air blowing pipe extends in the front-to-back direction, and a plurality of first air blowing holes are sequentially and spaced apart on the first air blowing pipe;

[0015] The second air blowing pipe extends in the front-to-back direction, and a plurality of second air blowing holes are arranged sequentially at intervals on the second air blowing pipe.

[0016] Furthermore, the two ends of the first air tube are respectively provided with an upwardly bent first bend, and the two ends of the second air tube are respectively provided with an upwardly bent second bend.

[0017] Furthermore, the mounting assembly includes a mounting bracket, a first lifting cylinder, a second lifting cylinder, a first pipe clamp, and a second pipe clamp;

[0018] The first air blowing pipe is connected to the first pipe clamp, the first pipe clamp is connected to the first lifting cylinder, and the first lifting cylinder is connected to the mounting bracket and is used to drive the first pipe clamp and the first air blowing pipe to move up and down.

[0019] The second air-blowing pipe is connected to the second pipe clamp, the second pipe clamp is connected to the second lifting cylinder, and the second lifting cylinder is connected to the mounting bracket and is used to drive the second pipe clamp and the second air-blowing pipe to move up and down.

[0020] Furthermore, the first pipe clamp includes a first base and a first pressure plate;

[0021] The lower end of the first seat is provided with a first slot, the lower end of the first pressure plate is provided with a second slot, and the first air blowing pipe is installed between the first slot and the second slot;

[0022] The first pressure plate is locked onto the first base and clamps the first air pipe between the first slot and the second slot;

[0023] The first seat is connected to the first lifting cylinder so that the first lifting cylinder drives the first seat to rise and fall, thereby driving the first air blowing pipe to rise and fall.

[0024] The lower end face of the first seat and the lower end face of the first pressure plate are both higher than the bottom of the first air blowing pipe;

[0025] The second pipe clamp includes a second seat and a second pressure plate;

[0026] The lower end of the second seat is provided with a third groove, the lower end of the second pressure plate is provided with a fourth groove, and the second air blowing pipe is installed between the third groove and the fourth groove;

[0027] The second pressure plate is locked onto the second base and clamps the second air blowing pipe between the third slot and the fourth slot;

[0028] The second seat is connected to the second lifting cylinder so that the second lifting cylinder drives the second seat to rise and fall, thereby driving the second air blowing pipe to rise and fall.

[0029] The lower end face of the second seat and the lower end face of the second pressure plate are both higher than the bottom of the second air blowing pipe.

[0030] This utility model also provides a diaphragm traction and conveying device, which includes a conveying platform, a traction mechanism and a diaphragm flattening mechanism as described above;

[0031] The conveying platform is used to support the diaphragm;

[0032] The traction mechanism is used to clamp the front end of the diaphragm and pull the diaphragm forward on the conveying platform.

[0033] Furthermore, the traction mechanism includes a left clamping assembly, a right clamping assembly, and a moving assembly;

[0034] The left clamping assembly is connected to the movable assembly and is used to clamp the left end of the front end of the diaphragm;

[0035] The right clamping assembly is connected to the movable assembly and is used to clamp the right end of the front end of the diaphragm;

[0036] The moving component is used to drive the left clamping component and the right clamping component to move forward, thereby pulling the diaphragm forward on the conveying platform.

[0037] Furthermore, the left clamping assembly and the right clamping assembly respectively include a movable base, a transverse slide, a drive cylinder, and a finger cylinder;

[0038] The transverse slide block is slidably connected to the movable base along the width direction of the diaphragm;

[0039] The driving cylinder is connected to the movable seat, and the driving cylinder is connected to the transverse slide and is used to drive the transverse slide to move into place along the width direction of the diaphragm;

[0040] The finger cylinder is connected to the transverse slide and is used to clamp the front end of the diaphragm;

[0041] The movable seat is connected to the movable component so that the movable component drives the movable seat to move forward, thereby pulling the diaphragm clamped by the finger cylinder forward.

[0042] After adopting the above technical solution, the membrane flattening mechanism is used in the membrane cutting and stacking machine. When the membrane in the membrane cutting and stacking machine is pulled forward, the first air blowing pipe can be connected to pressurized gas and blow air onto the left rolled edge of the membrane to flatten the left rolled edge. The second air blowing pipe can be connected to pressurized gas and blow air onto the right rolled edge of the membrane to flatten the right rolled edge. This allows the membrane to be flattened during the movement, thereby avoiding the problems of folds and wrinkles in the membrane during the subsequent stacking process, and thus avoiding affecting the quality of the RO membrane produced. Attached Figure Description

[0043] Figure 1 This is a perspective view of the diaphragm flattening mechanism of this utility model;

[0044] Figure 2 This is a front view of the diaphragm flattening mechanism of this utility model;

[0045] Figure 3 This is a schematic diagram of the structure of the first air blowing pipe, the first lifting cylinder, and the first pipe clamp of this utility model.

[0046] Figure 4 This is a schematic diagram of the structure of the first pipe clamp of this utility model;

[0047] Figure 5 This is a schematic diagram of the structure of the diaphragm traction conveying device of this utility model. Figure 1 ;

[0048] Figure 6 This is a schematic diagram of the structure of the diaphragm traction conveying device of this utility model. Figure 2 ;

[0049] Figure 7 This is a schematic diagram of the right clamping component of this utility model;

[0050] In the diagram: 100. Mounting assembly; 1. First air blowing pipe; 2. Second air blowing pipe; 3. Diaphragm; 4. Left rolled edge; 5. Right rolled edge; 6. First air blowing hole; 7. Second air blowing hole; 8. First bending section; 9. Second bending section; 10. Mounting bracket; 11. First lifting cylinder; 12. Second lifting cylinder; 13. First pipe clamp; 14. Second pipe clamp; 15. First seat; 16. First pressure plate; 17. First slot; 18. Second slot; 19. Conveying platform; 20. Traction mechanism; 21. Left clamping assembly; 22. Right clamping assembly; 23. Moving assembly; 24. Moving seat; 25. Lateral slide; 26. Drive cylinder; 27. Finger cylinder; 28. Drive motor; 29. ​​Transmission shaft; 30. Left synchronous belt linear module; 31. Right synchronous belt linear module. Detailed Implementation

[0051] To make the contents of this utility model easier to understand, the present utility model will be further described in detail below with reference to specific embodiments and accompanying drawings.

[0052] Example 1: As Figures 1-4 As shown, a diaphragm flattening mechanism includes a mounting assembly 100, a first air blowing pipe 1, and a second air blowing pipe 2;

[0053] The first air blowing pipe 1 is connected to the mounting assembly 100 and is used to introduce pressurized gas and blow air onto the left rolled edge 4 on the diaphragm 3 to flatten the left rolled edge 4 during the process of the diaphragm 3 being pulled forward.

[0054] The second air blowing pipe 2 is connected to the mounting assembly 100 and is used to introduce pressurized gas and blow air onto the right rolled edge 5 on the diaphragm 3 to flatten the right rolled edge 5 as the diaphragm 3 is pulled forward.

[0055] Specifically, some drier membrane sheets 3, due to insufficient humidity, will form a left curl 4 at the left edge and a right curl 5 at the right edge. The membrane flattening mechanism of this embodiment is used in a membrane cutting and stacking machine. When the membrane sheet 3 in the membrane cutting and stacking machine is pulled forward, the first air blowing pipe 1 can be connected to pressurized gas and blow air onto the left curl 4 on the membrane sheet 3 to flatten the left curl 4. The second air blowing pipe 2 can be connected to pressurized gas and blow air onto the right curl 5 on the membrane sheet 3 to flatten the right curl 5. This allows the membrane sheet 3 to be flattened during movement, thereby avoiding the problems of folds and wrinkles in the membrane sheet 3 during subsequent stacking, and thus avoiding affecting the quality of the RO membrane produced.

[0056] like Figures 1-4 As shown, the first air tube 1 is connected to the mounting assembly 100 and is used to extend to the right side of the left rolled edge 4 on the diaphragm 3 during the process of the diaphragm 3 being pulled forward.

[0057] The first air blowing pipe 1 is provided with at least one first air blowing hole 6 facing the left rolled edge 4;

[0058] The first air tube 1 is used to receive pressurized gas and blow out the pressurized gas through the first air hole 6 to flatten the left rolled edge 4 on the diaphragm 3.

[0059] The second air tube 2 is connected to the mounting assembly 100 and is used to extend to the left side of the right rolled edge 5 on the diaphragm 3 as the diaphragm 3 is pulled forward;

[0060] The second air pipe 2 is provided with at least one second air hole 7 facing the right rolled edge 5;

[0061] The second air tube 2 is used to connect pressurized gas and blow out the pressurized gas through the second air hole 7 to flatten the right rolled edge 5 on the diaphragm 3.

[0062] Specifically, when the film 3 in the film cutting and stacking machine is pulled forward, the front-to-back position of the first air blowing pipe 1 remains unchanged and extends to the right side of the left rolled edge 4 on the film 3 as the film 3 moves forward. The front-to-back position of the second air blowing pipe 2 also remains unchanged and extends to the left side of the right rolled edge 5 on the film 3 as the film 3 moves forward. The pressurized gas connected to the first air blowing pipe 1 is blown out from the first air blowing hole 6 to flatten the left rolled edge 4 on the film 3, and the pressurized gas connected to the second air blowing pipe 2 is blown out from the second air blowing hole 7 to flatten the right rolled edge 5 on the film 3, thereby enabling the film 3 to be flattened during the movement.

[0063] like Figures 1-4 As shown, the first air tube 1 and the second air tube 2 are respectively used to contact the upper surface of the diaphragm 3 during the process of the diaphragm 3 being pulled forward and smooth out the wrinkles on the diaphragm 3 through friction; and the tail of the diaphragm 3 also has a rolled edge, which can also be smoothed out during the process of the diaphragm 3 moving forward by the first air tube 1 and the second air tube 2 contacting the upper surface of the diaphragm 3 respectively.

[0064] like Figures 1-4 As shown, the first air blowing pipe 1 extends in the front-to-back direction, and a plurality of first air blowing holes 6 are arranged sequentially at intervals on the first air blowing pipe 1.

[0065] The second air pipe 2 extends in the front-to-back direction, and a plurality of second air holes 7 are arranged sequentially at intervals on the second air pipe 2.

[0066] like Figures 1-4As shown, the first air pipe 1 has an upwardly bent first bend 8 at both ends, and the second air pipe 2 has an upwardly bent second bend 9 at both ends.

[0067] like Figures 1-4 As shown, the mounting assembly 100 may include a mounting bracket 10, a first lifting cylinder 11, a second lifting cylinder 12, a first pipe clamp 13, and a second pipe clamp 14;

[0068] The first air blowing pipe 1 is connected to the first pipe clamp 13, the first pipe clamp 13 is connected to the first lifting cylinder 11, and the first lifting cylinder 11 is connected to the mounting bracket 10 and is used to drive the first pipe clamp 13 and the first air blowing pipe 1 to move up and down.

[0069] The second air-blowing pipe 2 is connected to the second pipe clamp 14, which is connected to the second lifting cylinder 12. The second lifting cylinder 12 is connected to the mounting frame 10 and is used to drive the second pipe clamp 14 and the second air-blowing pipe 2 to move up and down. Specifically, the mounting frame 10 is used to connect to the frame of the film cutting and stacking machine. The height of the first air-blowing pipe 1 can be adjusted by the first lifting cylinder 11, and the height of the second air-blowing pipe 2 can be adjusted by the second lifting cylinder 12. The first air-blowing pipe 1 and the second air-blowing pipe 2 are adjusted to different heights according to the different curling degrees of the left curling edge 4 and the right curling edge 5. In this embodiment, the cylinder body of the first lifting cylinder 11 is connected to the mounting frame 10 by the first boom, the first pipe clamp 13 is connected to the piston rod of the first lifting cylinder 11, the cylinder body of the second lifting cylinder 12 is connected to the mounting frame 10 by the second boom, and the second pipe clamp 14 is connected to the piston rod of the second lifting cylinder 12.

[0070] like Figures 1-4 As shown, the first pipe clamp 13 may include a first base 15 and a first pressure plate 16;

[0071] The lower end of the first seat 15 is provided with a first slot 17, the lower end of the first pressure plate 16 is provided with a second slot 18, and the first air blowing pipe 1 is installed between the first slot 17 and the second slot 18.

[0072] The first pressure plate 16 is locked to the first seat 15 and the first slot 17 and the second slot 18 clamp the first air blowing pipe 1;

[0073] The first seat 15 is connected to the first lifting cylinder 11 so that the first lifting cylinder 11 drives the first seat 15 to rise and fall, thereby driving the first air blowing pipe 1 to rise and fall.

[0074] The lower end face of the first seat 15 and the lower end face of the first pressure plate 16 are both higher than the bottom of the first air tube 1, so that the bottom of the first air tube 1 can contact the upper surface of the diaphragm 3 and smooth the wrinkles on the diaphragm 3 by friction during the process of the diaphragm 3 being pulled forward.

[0075] The second pipe clamp 14 may include a second seat and a second pressure plate;

[0076] The lower end of the second seat is provided with a third groove, the lower end of the second pressure plate is provided with a fourth groove, and the second air blowing pipe 2 is installed between the third groove and the fourth groove;

[0077] The second pressure plate is locked onto the second base and clamps the second air blowing pipe 2 with the third slot and the fourth slot;

[0078] The second seat is connected to the second lifting cylinder 12 so that the second lifting cylinder 12 drives the second seat to rise and fall, thereby driving the second air blowing pipe 2 to rise and fall.

[0079] The lower end face of the second seat and the lower end face of the second pressure plate are both higher than the bottom of the second air tube 2, so that the bottom of the second air tube 2 can contact the upper surface of the diaphragm 3 and smooth the wrinkles on the diaphragm 3 by friction during the process of the diaphragm 3 being pulled forward.

[0080] Example 2: Figures 5-7 As shown, a diaphragm traction and conveying device includes a conveying platform 19, a traction mechanism 20, and a diaphragm flattening mechanism as described in Embodiment 1;

[0081] The conveying platform 19 is used to support the diaphragm 3;

[0082] The traction mechanism 20 is used to clamp the front end of the diaphragm 3 and pull the diaphragm 3 forward on the conveying platform 19. Specifically, the diaphragm traction conveying device of this application embodiment can be installed in a film cutting and stacking machine. When the traction mechanism 20 clamps the front end of the diaphragm 3 and pulls the diaphragm 3 forward on the conveying platform 19, the front-back position of the first air blowing pipe 1 remains unchanged and extends to the right side of the left rolled edge 4 on the diaphragm 3 as the diaphragm 3 moves forward. The front-back position of the second air blowing pipe 2 also remains unchanged and extends to the left side of the right rolled edge 5 on the diaphragm 3 as the diaphragm 3 moves forward. The pressurized gas connected to the first air blowing pipe 1 will be blown out from the first air blowing hole 6 to flatten the left rolled edge 4 on the diaphragm 3, and the pressurized gas connected to the second air blowing pipe 2 will be blown out from the second air blowing hole 7 to flatten the right rolled edge 5 on the diaphragm 3, thereby enabling the diaphragm 3 to be flattened during movement.

[0083] like Figures 5-7 As shown, the traction mechanism 20 may include a left clamping assembly 21, a right clamping assembly 22, and a moving assembly 23;

[0084] The left clamping assembly 21 is connected to the moving assembly 23 and is used to clamp the left end of the front end of the diaphragm 3;

[0085] The right clamping assembly 22 is connected to the moving assembly 23 and is used to clamp the right end of the front end of the diaphragm 3;

[0086] The moving component 23 is used to drive the left clamping component 21 and the right clamping component 22 to move forward, thereby pulling the diaphragm 3 forward on the conveying platform 19. Specifically, since the diaphragm 3 is pulled forward at its front end, when the first air pipe 1 and the second air pipe 2 respectively contact the upper surface of the diaphragm 3, the wrinkles on the diaphragm 3 can be smoothed backward by friction, thereby preventing wrinkles from appearing on the diaphragm 3.

[0087] like Figures 5-7 As shown, the left clamping assembly 21 and the right clamping assembly 22 may each include a movable base 24, a transverse slide 25, a drive cylinder 26, and a finger cylinder 27.

[0088] The transverse slide block 25 is slidably connected to the movable seat 24 along the width direction of the diaphragm 3;

[0089] The driving cylinder 26 is connected to the movable seat 24, and the driving cylinder 26 is connected to the transverse slide 25 and is used to drive the transverse slide 25 to move into place along the width direction of the diaphragm 3.

[0090] The finger cylinder 27 is connected to the transverse slide 25 and is used to clamp the front end of the diaphragm 3;

[0091] The movable seat 24 is connected to the movable component 23 so that the movable component 23 drives the movable seat 24 to move forward, thereby pulling the diaphragm 3 clamped by the finger cylinder 27 forward. Specifically, when the drive cylinder 26 drives the transverse slide 25 to move along the width direction of the diaphragm 3, it can adjust the position of the finger cylinder 27, thereby enabling the finger cylinder 27 to clamp diaphragms 3 of different widths. In this embodiment, the finger cylinder 27 in the left clamping component 21 is used to clamp the left end of the front end of the diaphragm 3, and the finger cylinder 27 in the right clamping component 22 is used to clamp the right end of the front end of the diaphragm 3.

[0092] In this embodiment, the moving component 23 includes a drive motor 28, a transmission shaft 29, a left synchronous belt linear module 30, and a right synchronous belt linear module 31;

[0093] The left clamping assembly 21 is connected to the left synchronous belt linear module 30, and the right clamping assembly 22 is connected to the right synchronous belt linear module 31;

[0094] The left synchronous belt linear module 30 and the right synchronous belt linear module 31 are connected by the drive shaft 29;

[0095] The drive motor 28 is connected to the left synchronous belt linear module 30 and drives the left synchronous belt linear module 30 to move, which in turn drives the right synchronous belt linear module 31 to move synchronously via the transmission shaft 29, thereby causing the left clamping assembly 21 and the right clamping assembly 22 to move forward synchronously, and thus pulling the diaphragm 3 forward. Specifically, the movable seat 24 in the left clamping assembly 21 is connected to the left synchronous belt linear module 30, and the movable seat 24 in the right clamping assembly 22 is connected to the right synchronous belt linear module 31.

[0096] In summary, the membrane flattening mechanism is used in a membrane cutting and stacking machine. When the membrane 3 in the membrane cutting and stacking machine is pulled forward, the first air blowing pipe 1 can be connected to pressurized gas and blow air onto the left rolled edge 4 on the membrane 3 to flatten the left rolled edge 4. The second air blowing pipe 2 can be connected to pressurized gas and blow air onto the right rolled edge 5 on the membrane 3 to flatten the right rolled edge 5. This allows the membrane 3 to be flattened during the movement, thereby avoiding the problems of folds and wrinkles in the membrane 3 during subsequent stacking, and thus avoiding affecting the quality of the RO membrane obtained in production.

[0097] The specific embodiments described above further illustrate the technical problems, technical solutions, and beneficial effects of this utility model. It should be understood that the above descriptions are merely specific embodiments of this utility model and are not intended to limit this utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. A membrane flattening mechanism, characterized by, Includes mounting components (100), a first air pipe (1), and a second air pipe (2); The first air blowing tube (1) is connected to the mounting assembly (100) and is used to introduce pressurized gas and blow air onto the left rolled edge (4) on the diaphragm (3) to flatten the left rolled edge (4) as the diaphragm (3) is pulled forward. The second air blowing tube (2) is connected to the mounting assembly (100) and is used to introduce pressurized gas and blow air onto the right rolled edge (5) on the diaphragm (3) to flatten the right rolled edge (5) as the diaphragm (3) is pulled forward.

2. The diaphragm flattening mechanism according to claim 1, characterized in that, The first air tube (1) is connected to the mounting assembly (100) and is used to extend to the right side of the left rolled edge (4) on the diaphragm (3) as the diaphragm (3) is pulled forward; The first air blowing pipe (1) is provided with at least one first air blowing hole (6) facing the left rolled edge (4); The first blowing tube (1) is used to receive pressurized gas and blow the pressurized gas out through the first blowing hole (6) to flatten the left rolled edge (4) on the diaphragm (3); The second air tube (2) is connected to the mounting assembly (100) and is used to extend to the left side of the right rolled edge (5) on the diaphragm (3) as the diaphragm (3) is pulled forward; The second air pipe (2) is provided with at least one second air hole (7) facing the right rolled edge (5); The second air tube (2) is used to receive pressurized gas and blow the pressurized gas out through the second air hole (7) to flatten the right rolled edge (5) on the diaphragm (3).

3. The membrane flattening mechanism of claim 2, wherein, The first air tube (1) and the second air tube (2) are respectively used to contact the upper surface of the diaphragm (3) during the process of the diaphragm (3) being pulled forward and smooth out the wrinkles on the diaphragm (3) by friction.

4. The diaphragm flattening mechanism according to claim 2, characterized in that, The first air blowing pipe (1) extends in the front-to-back direction, and a plurality of first air blowing holes (6) are arranged sequentially at intervals on the first air blowing pipe (1); The second air pipe (2) extends in the front-to-back direction, and a plurality of second air holes (7) are arranged sequentially at intervals on the second air pipe (2).

5. The membrane flattening mechanism of claim 2, wherein, The first air pipe (1) has an upwardly bent first bend (8) at both ends, and the second air pipe (2) has an upwardly bent second bend (9) at both ends.

6. The membrane flattening mechanism of claim 1, wherein, The mounting assembly (100) includes a mounting bracket (10), a first lifting cylinder (11), a second lifting cylinder (12), a first pipe clamp (13), and a second pipe clamp (14); The first air blowing pipe (1) is connected to the first pipe clamp (13), the first pipe clamp (13) is connected to the first lifting cylinder (11), and the first lifting cylinder (11) is connected to the mounting bracket (10) and is used to drive the first pipe clamp (13) and the first air blowing pipe (1) to move up and down. The second air pipe (2) is connected to the second pipe clamp (14), the second pipe clamp (14) is connected to the second lifting cylinder (12), the second lifting cylinder (12) is connected to the mounting bracket (10) and is used to drive the second pipe clamp (14) and the second air pipe (2) to move up and down.

7. The diaphragm flattening mechanism according to claim 6, characterized in that, The first pipe clamp (13) includes a first base (15) and a first pressure plate (16); The lower end of the first seat (15) is provided with a first slot (17), the lower end of the first pressure plate (16) is provided with a second slot (18), and the first air blowing pipe (1) is installed between the first slot (17) and the second slot (18). The first pressure plate (16) is locked to the first seat (15) and the first slot (17) and the second slot (18) clamp the first air pipe (1); The first seat (15) is connected to the first lifting cylinder (11) so that the first lifting cylinder (11) drives the first seat (15) to rise and fall, thereby driving the first air pipe (1) to rise and fall. The lower end face of the first seat (15) and the lower end face of the first pressure plate (16) are both higher than the bottom of the first air blowing pipe (1); The second pipe clamp (14) includes a second seat and a second pressure plate; The lower end of the second seat is provided with a third slot, the lower end of the second pressure plate is provided with a fourth slot, and the second air blowing pipe (2) is installed between the third slot and the fourth slot; The second pressure plate is locked onto the second seat and the third slot and the fourth slot clamp the second air blowing pipe (2); The second seat is connected to the second lifting cylinder (12) so that the second lifting cylinder (12) drives the second seat to rise and fall, thereby driving the second air pipe (2) to rise and fall; The lower end face of the second seat and the lower end face of the second pressure plate are both higher than the bottom of the second air blowing pipe (2).

8. A membrane traction delivery device, characterized by, It includes a conveying platform (19), a traction mechanism (20), and a diaphragm flattening mechanism as described in any one of claims 1 to 7; The conveying platform (19) is used to support the diaphragm (3); The traction mechanism (20) is used to clamp the front end of the diaphragm (3) and pull the diaphragm (3) forward on the conveying platform (19).

9. The membrane skiving conveyor of claim 8, wherein, The traction mechanism (20) includes a left clamping assembly (21), a right clamping assembly (22), and a moving assembly (23); The left clamping assembly (21) is connected to the moving assembly (23) and is used to clamp the left end of the front end of the diaphragm (3); The right clamping assembly (22) is connected to the moving assembly (23) and is used to clamp the right end of the front end of the diaphragm (3); The moving component (23) is used to drive the left clamping component (21) and the right clamping component (22) to move forward, thereby pulling the diaphragm (3) forward on the conveying platform (19).

10. The membrane skiving conveyor of claim 9, wherein, The left clamping assembly (21) and the right clamping assembly (22) respectively comprise a moving seat (24), a transverse sliding seat (25), a driving cylinder (26) and a finger cylinder (27); The transverse sliding seat (25) is slidably connected to the moving seat (24) along the width direction of the diaphragm (3); The driving cylinder (26) is connected to the moving seat (24), and the driving cylinder (26) is connected to the transverse sliding seat (25) and used to drive the transverse sliding seat (25) to move to a position along the width direction of the diaphragm (3); The finger cylinder (27) is connected to the transverse sliding seat (25) and used to clamp the front end of the diaphragm (3); The moving seat (24) is connected to the moving assembly (23) so that the moving assembly (23) drives the moving seat (24) to move forward and in turn drags the diaphragm (3) clamped by the finger cylinder (27) to move forward.

Images