Fuel cell sealing membrane laser cutting suction device and application method thereof

Abstract

The application relates to a kind of fuel cell sealing film laser cutting suction devices and application methods thereof, in the outside waste vacuum suction device, inlay into the inside waste vacuum suction device;Floating structure is arranged on the inside waste vacuum suction device;Finished product vacuum device is movably connected outside the inside waste vacuum suction device through floating structure;Finished product vacuum device and the inside waste vacuum suction device are connected with the same vacuum cavity with outside waste vacuum suction device;Fuel cell sealing film on finished product vacuum device is separated from fuel cell sealing film on outside waste vacuum suction device and inside waste vacuum suction device in the process of being pressed down through floating structure;The positioning, separation and adhesion problem after cutting of the existing fuel cell sealing film laser cutting suction device laser cutting is solved.

Description

TECHNICAL FIELD

[0001] The embodiment of the application relates to a mechanism for adsorbing and separating finished products and waste materials in a hydrogen fuel cell sealing film laser cutting process, in particular to a fuel cell sealing film laser cutting adsorption device and an application method thereof. BACKGROUND

[0002] A single cell, a core component of a fuel cell of a fuel cell vehicle, is packaged by bipolar plates and MEAs through sealing film heating and pressurizing. The sealing film is attached to the bipolar plates, and the shape of the sealing film is consistent with the sealing surface track of the bipolar plates. Considering the process cycle requirement, the sealing film is formed by laser cutting. Before cutting, the sealing film is a whole continuous body adsorbed on a cutting platform (also called a cutting chuck), and after cutting, the sealing film is divided into a finished product area, an inner waste area and an outer waste area. The principle of laser cutting is high-temperature line beam scanning, and during the cutting process, the useful finished product and the waste material will be fused, resulting in adhesion between the finished product and the waste material. The cutting platform made of ordinary planar single-cavity chucks has the adsorption effect that the finished product and the waste material are adsorbed or released at the same time, and because of the adhesion between the finished product and the waste material, when the finished product is taken by the taking chuck, the waste material may be taken together.

[0003] With the development of the new energy industry, the production of hydrogen energy is increasing. In view of the positioning and adhesion problems existing in the laser cutting of the fuel cell sealing film laser cutting adsorption device, there is an urgent need for a fuel cell sealing film laser cutting adsorption device that can stably adsorb and effectively separate the sealing film to meet the rapid development of fuel cells. SUMMARY

[0004] The purpose of the embodiment of the application is to provide a fuel cell sealing film laser cutting adsorption device capable of adsorbing and effectively separating the fuel cell sealing film.

[0005] In order to achieve the above-mentioned purpose, the embodiment of the application designs a fuel cell sealing film laser cutting adsorption device, which comprises:

[0006] An outer waste vacuum adsorption device;

[0007] An inner waste vacuum adsorption device, the inner waste vacuum adsorption device is embedded in the outer waste vacuum adsorption device;

[0008] A floating structure, the floating structure is arranged on the inner waste vacuum adsorption device;

[0009] A finished product vacuum device, the finished product vacuum device is movably connected to the outer waste vacuum adsorption device through the floating structure;

[0010] The finished product vacuum device and the inner waste vacuum suction device are connected to the same vacuum cavity as the outer waste vacuum suction device.

[0011] The fuel cell sealing film on the finished product vacuum device is separated from the fuel cell sealing film on the outer waste vacuum suction device and the inner waste vacuum suction device during the pressing process by the floating structure.

[0012] Further, the finished product vacuum device is inlaid with the outer waste vacuum suction device; the upper surfaces of the finished product vacuum device, the outer waste vacuum suction device, and the inner waste vacuum suction device are in the same plane, and the fuel cell sealing film to be cut is placed on the plane.

[0013] Further, the finished product vacuum device, the outer waste vacuum suction device, and the inner waste vacuum suction device form three independent vacuum cavities.

[0014] Further, the outer waste vacuum suction device further comprises:

[0015] A vacuum frame structure composed of six-sided panels; the interior of the vacuum frame structure is hollow;

[0016] Small holes, a plurality of small holes are provided along the central axis of the vacuum frame structure above the vacuum frame structure;

[0017] A vacuum groove is provided in the small hole on the vacuum frame structure; the outer waste vacuum suction device and the inner waste vacuum suction device are provided in the vacuum groove;

[0018] The outer waste vacuum suction device and the inner waste vacuum suction device are connected to the vacuum frame structure to form respective vacuum cavities.

[0019] Further, a pipeline is provided on the vacuum frame structure for connecting the vacuum system; a base is fixed below the vacuum frame structure.

[0020] Further, the inner waste vacuum suction device further comprises:

[0021] An inner waste vacuum suction bottom plate is fixed at the bottom of the vacuum frame structure of the outer waste vacuum suction device;

[0022] The inner waste vacuum suction cavity is fixed on the inner waste vacuum suction bottom plate of the inner waste vacuum suction device by inlaying.

[0023] The inner waste vacuum suction cavity is fixed on the inner waste vacuum suction bottom plate of the inner waste vacuum suction device by inlaying.

[0024] The floating structure is arranged outside the inner waste vacuum suction disc.

[0025] Further, the floating structure further comprises:

[0026] The guide column is fixed on the inner waste vacuum suction bottom plate of the inner waste vacuum suction device outside the inner waste vacuum suction disc.

[0027] The spring guide column is fixed on the inner waste vacuum suction bottom plate of the inner waste vacuum suction device outside the inner waste vacuum suction disc.

[0028] The spring is sleeved on the spring guide column.

[0029] Further, the finished product vacuum device further comprises:

[0030] The cover plate is fixed on the inner waste vacuum suction bottom plate of the inner waste vacuum suction device by the guide column of the floating structure. A plurality of through holes are formed in the cover plate, and the inner waste vacuum suction disc of the inner waste vacuum suction device is inlaid into the through holes. A plurality of round holes are formed in the cover plate, and the through holes in the cover plate and the through holes in the inner waste vacuum suction bottom plate are communicated through the round holes. The vacuum frame structure of the outer waste vacuum suction device is communicated.

[0031] The inner finished product vacuum cavity is fixed on the cover plate by the guide column. A plurality of grooves are formed in the inner finished product vacuum cavity. A plurality of small round holes are formed in the grooves, and the small round holes are communicated with the round holes formed in the cover plate. The vacuum frame structure is communicated.

[0032] The inner finished product micro-porous ceramic suction disc is inlaid into the grooves. The inner finished product micro-porous ceramic suction disc is introduced into vacuum through the small round holes and the through holes.

[0033] Further, the outer shape of the inner finished product microporous ceramic suction disc is consistent with the outer shape of the fuel cell sealing film.

[0034] The application also provides a method for using the adsorption device for laser cutting of the fuel cell sealing film.

[0035] Step S10: placing the whole piece of fuel cell sealing film to be cut on the same plane of the upper surface of the finished product vacuum device, the outer waste product vacuum adsorption device and the inner waste product vacuum adsorption device; entering step S20;

[0036] Step S20: before cutting, the finished product vacuum device, the outer waste product vacuum adsorption device and the inner waste product vacuum adsorption device simultaneously adsorb the fuel cell sealing film, and the laser cutting machine quickly cuts the outer contour of the fuel cell sealing film; entering step S30;

[0037] Step S30: after cutting by the laser cutting machine, the finished product vacuum device, the outer waste product vacuum adsorption device and the inner waste product vacuum adsorption device still simultaneously adsorb the fuel cell sealing film; the taking device is lowered through the taking suction disc on the taking device, and a position connection relationship is established between the taking device and the fuel cell sealing film laser cutting adsorption device through the guide positioning pin, so as to ensure that the taking suction disc and the inner finished product microporous ceramic suction disc correspond to each other; the taking device is continuously lowered by overcoming the spring on the finished product vacuum device, so as to separate the finished product fuel cell sealing film and the upper and lower fuel cell sealing films on the inner side and the outer side, effectively cut the adhesion between them, and ensure that the finished product sealing film and the fuel cell sealing films on the inner side and the outer side are completely separated; entering step S40;

[0038] Step S40: the inner finished product microporous ceramic suction disc is released, the taking suction disc grabs the finished product sealing film, the taking device is moved upward to the original position, the inner waste product vacuum suction disc and the vacuum frame structure release the fuel cell sealing films on the inner side and the outer side, and the fuel cell sealing films on the inner side and the outer side are cleaned.

[0039] Compared with the prior art, the inner waste product vacuum adsorption device is embedded in the outer waste product vacuum adsorption device, the floating structure is arranged on the inner waste product vacuum adsorption device, the finished product vacuum device is movably connected to the outer side of the inner waste product vacuum adsorption device through the floating structure, the finished product vacuum device and the inner waste product vacuum adsorption device are connected to the same vacuum cavity as the outer waste product vacuum adsorption device, the fuel cell sealing film on the finished product vacuum device is separated from the fuel cell sealing films on the outer waste product vacuum adsorption device and the inner waste product vacuum adsorption device during the pressing process through the floating structure, and the problems of positioning, separation and adhesion after cutting of the adsorption device for laser cutting of the fuel cell sealing film in the prior art are solved. Attached Figure Description

[0040] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0041] Figure 2 for Figure 1 A schematic diagram of the three-dimensional exploded structure;

[0042] Figure 3 for Figure 1 A schematic diagram of the full cross-section structure;

[0043] Figure 4 This is a three-dimensional structural diagram of the inner waste vacuum adsorption device of the present invention;

[0044] Figure 5 This is a three-dimensional exploded view of the inner waste vacuum adsorption device of the present invention.

[0045] Figure 6 This is a three-dimensional structural diagram of the finished vacuum device of the present invention;

[0046] Figure 7 This is a three-dimensional exploded view of the finished vacuum device of the present invention;

[0047] Figure 8 This is a schematic diagram of the separation steps in the second embodiment of the present invention. Detailed Implementation

[0048] To make the objectives, technical solutions, and advantages of this invention clearer, the various embodiments of this invention will be described in detail below with reference to the accompanying drawings. However, those skilled in the art will understand that many technical details have been provided in the various embodiments of this invention to facilitate a better understanding of this application. However, the technical solutions claimed in the claims of this application can be implemented even without these technical details and with various variations and modifications based on the following embodiments.

[0049] The first embodiment of the present invention relates to an adsorption device for laser cutting of fuel cell sealing membranes, such as... Figures 1-7 As shown, it includes:

[0050] In this embodiment, the external waste vacuum adsorption device 10 is used to provide a place for the whole fuel cell sealing membrane and to adsorb the waste on the outside of the fuel cell sealing membrane.

[0051] An inner waste vacuum adsorption device 20 is embedded inside the outer waste vacuum adsorption device 10; the inner waste vacuum adsorption device 20 is used to adsorb and position the inner waste of the fuel cell sealing membrane.

[0052] The floating structure 30 is arranged on the inner waste vacuum suction device 20; the floating structure 30 mainly plays a role of separation during separation;

[0053] The finished product vacuum device 40 is connected to the outer side of the inner waste vacuum suction device 20 through the floating structure 30; the finished product vacuum device 40 is used to adsorb the fuel cell sealing film product during separation.

[0054] The finished product vacuum device 40 and the inner waste vacuum suction device 20 are connected to the same vacuum cavity as the outer waste vacuum suction device 10; such a structure ensures that the finished product vacuum device 40 and the inner waste vacuum suction device 20 can be connected to the vacuum at the same time as the outer waste vacuum suction device 10; different fuel cell sealing films can be adsorbed at the same time, and the fuel cell sealing film product and the waste fuel cell sealing film can be separated without affecting each other.

[0055] The fuel cell sealing film on the finished product vacuum device 40 is separated from the fuel cell sealing film on the outer waste vacuum suction device 10 and the inner waste vacuum suction device 20 during the pressing process of the floating structure 30.

[0056] In this way, the above-mentioned structure solves the problems of positioning, separation and adhesion after cutting in the existing fuel cell sealing film laser cutting suction device.

[0057] In order to achieve the above technical effects, the fuel cell sealing film laser cutting suction device in the embodiment is shown in Figures 1-7 The finished product vacuum device 40 and the outer waste vacuum suction device 10 are inlaid; the upper surfaces of the finished product vacuum device 40, the outer waste vacuum suction device 10 and the inner waste vacuum suction device 20 are in the same plane, and the fuel cell sealing film to be cut is placed on the plane; such a structure can ensure that the finished product vacuum device 40, the outer waste vacuum suction device 10 and the inner waste vacuum suction device 20 can adsorb the fuel cell sealing film on the same plane, and also ensure the flatness of the fuel cell sealing film, which is more conducive to laser cutting and separation after cutting.

[0058] In order to achieve the above technical effects, the fuel cell sealing film laser cutting suction device in the embodiment is shown in Figures 1-7 The finished product vacuum device 40, the outer waste vacuum suction device 10 and the inner waste vacuum suction device 20 form three independent vacuum cavities; this is more conducive to laser cutting and separation after cutting, and they do not affect each other in cutting and separation after cutting.

[0059] In order to achieve the above technical effects, the fuel cell sealing film laser cutting suction device in the embodiment is shown in Figures 1-7As shown, the outer side waste vacuum suction device 10 also comprises:

[0060] The vacuum frame structure 11 is composed of six panels; the inside of the vacuum frame structure 11 is hollow; the vacuum frame structure 11 is used to place the finished product vacuum device 40 and the outer side waste vacuum suction device 10 and the fuel cell sealing film for suction of the outer side waste.

[0061] A plurality of small holes 12 are arranged on the center axis of the vacuum frame structure 11 above the vacuum frame structure 11; the small holes 12 are used to conduct the vacuum and conduct the vacuum to the fuel cell sealing film for suction of the outer side waste.

[0062] The vacuum groove is arranged in the small hole on the vacuum frame structure 11; the outer side waste vacuum suction device 10 and the inner side waste vacuum suction device 20 are arranged in the vacuum groove 13; the vacuum groove 13 is used to embed the outer side waste vacuum suction device 10 and the inner side waste vacuum suction device 20 to realize the vacuum conduction.

[0063] The outer side waste vacuum suction device 10 and the inner side waste vacuum suction device 20 are in communication with the vacuum frame structure 11 to form respective vacuum cavities, which can better conduct the vacuum to the fuel cell sealing film suctioned by the outer side waste vacuum suction device 10 and the inner side waste vacuum suction device 20 and the vacuum frame structure 11.

[0064] In order to achieve the above technical effects, the fuel cell sealing film laser cutting suction device in the embodiment comprises: Figures 1-7 As shown, a pipeline 14 is arranged on the vacuum frame structure 11 for connecting the vacuum system; a base 15 is fixed below the vacuum frame structure 11.

[0065] In order to achieve the above technical effects, the fuel cell sealing film laser cutting suction device in the embodiment comprises: Figures 1-7 As shown, the inner side waste vacuum suction device 20 also comprises:

[0066] The inner side waste vacuum suction bottom plate 21 is fixed at the bottom of the vacuum frame structure 11 of the outer side waste vacuum suction device 10; the inner side waste vacuum suction bottom plate 21 is used to connect the vacuum frame structure 11 of the outer side waste vacuum suction device 10;

[0067] The inner side waste vacuum suction cavity 22 is fixed on the inner side waste vacuum suction bottom plate 21 by inlaying; a plurality of inner side waste vacuum suction cavities 22 are arranged along the fuel cell sealing film 1; a through hole 23 is arranged below the inner side waste vacuum suction cavity 22, and the through hole 23 is in communication with the vacuum frame structure 11 of the outer side waste vacuum suction device 10;

[0068] A fixed inner waste vacuum chuck 24 is arranged above the inner waste vacuum chucking cavity 22, and is used for chucking the inner waste fuel cell sealing membrane 1;

[0069] A floating structure 30 is arranged outside the inner waste vacuum chuck 24.

[0070] In order to achieve the above technical effects, the fuel cell sealing membrane laser cutting chucking device in the embodiment comprises: Figures 1-7 As shown in the figure, the floating structure 30 further comprises:

[0071] A guide column 31 is fixed on the inner waste vacuum chucking base plate 21 of the inner waste vacuum chucking device 20 outside the inner waste vacuum chuck 24, and is used for positioning and fixing a finished product vacuum device 40.

[0072] A spring guide column 32 is fixed on the inner waste vacuum chucking base plate 21 of the inner waste vacuum chucking device 20 outside the inner waste vacuum chuck 24 and on one side of the guide column 31, and is used for installing a spring 33 to form a floating structure, so that the finished product vacuum device 40 can float up and down.

[0073] The spring 33 is sleeved on the spring guide column 32 and is installed on the spring guide column 32.

[0074] In order to achieve the above technical effects, the fuel cell sealing membrane laser cutting chucking device in the embodiment comprises: Figures 1-7 As shown in the figure, the finished product vacuum device 40 further comprises:

[0075] A cover plate 41 is arranged above the inner waste vacuum chucking base plate 21 of the inner waste vacuum chucking device 20 and is fixed by the guide column 31 of the floating structure 30. A plurality of through holes 23 are formed in the cover plate 41, and the inner waste vacuum chuck 24 of the inner waste vacuum chucking device 20 is inlaid into the through holes 23. A plurality of round holes 42 are formed in the cover plate 41 and are in communication with the through holes 23 on the inner waste vacuum chucking base plate 21, and are in communication with the vacuum frame structure 11 of the outer waste vacuum chucking device 10.

[0076] An inner finished product vacuum cavity 43 is fixed above the cover plate 41 by the guide column 31. A plurality of grooves 44 are formed in the inner finished product vacuum cavity 43. A plurality of small round holes 45 are formed in the grooves 44 and are in communication with the round holes 42 arranged on the cover plate 41. The inner finished product vacuum cavity 43 is in communication with the vacuum frame structure 11 through the grooves 44 and the round holes 42, so that vacuum can be introduced into the inner finished product vacuum cavity 43.

[0077] The inner finished product microporous ceramic suction disc 46 is inlaid in the groove 44; the inner finished product microporous ceramic suction disc 46 is introduced into vacuum through the small round hole 45 and the through hole 23. The inner finished product microporous ceramic suction disc 46 is introduced into vacuum from the vacuum frame structure 11 through the small round hole 45 and the through hole 23, so that the function of the inner finished product microporous ceramic suction disc 46 adsorbing the fuel cell sealing film 1 is realized.

[0078] In order to realize the above technical effects, the fuel cell sealing film laser cutting adsorption device in the embodiment has the following advantages: Figures 1-7 As shown in the figure, the outer shape of the inner finished product microporous ceramic suction disc 46 is consistent with the outer shape of the fuel cell sealing film 1. This is mainly to better realize the function of the inner finished product microporous ceramic suction disc 46 precisely adsorbing the fuel cell sealing film 1.

[0079] The application method of the fuel cell sealing film laser cutting adsorption device in the second embodiment of the application is shown in the figure, which comprises the following steps: Figure 8

[0080] Step S10: Place the whole piece of fuel cell sealing film to be cut on the same plane of the upper surface of the finished product vacuum device 40, the outer waste product vacuum adsorption device 10 and the inner waste product vacuum adsorption device 20; enter step S20;

[0081] Step S20: Before cutting, the finished product vacuum device 40, the outer waste product vacuum adsorption device 10 and the inner waste product vacuum adsorption device 20 simultaneously adsorb the fuel cell sealing film, and the laser cutting machine quickly cuts out the outer contour of the fuel cell sealing film 1; enter step S30;

[0082] Step S30: After cutting by the laser cutting machine, the finished product vacuum device 40, the outer waste product vacuum adsorption device 10 and the inner waste product vacuum adsorption device 20 still simultaneously adsorb the fuel cell sealing film; the taking suction disc on the taking device is lowered, a position connection relationship is established between the taking device and the fuel cell sealing film laser cutting adsorption device through the guide positioning pin, so as to ensure that the taking suction disc and the inner finished product microporous ceramic suction disc 46 are one-to-one corresponding, the taking device continues to move downward against the spring 33 on the finished product vacuum device 40, so as to separate the finished product fuel cell sealing film and the upper and lower two pieces of fuel cell sealing film, effectively cut off the adhesion between them, and ensure that the finished product fuel cell sealing film and the inner and outer two pieces of fuel cell sealing film are completely separated; enter step S40;

[0083] ​Step S40: the inner finished product microporous ceramic suction cup 46 is released, the said taking suction cup grabs the said finished product sealing film, the said taking device moves upward to the original position, the inner waste product vacuum suction cup 24 and the vacuum frame structure 11 release the said fuel cell sealing film of the inner and outer two blocks, and the fuel cell sealing film of the inner and outer two blocks is cleaned.

[0084] Those skilled in the art can understand that the above-mentioned embodiments are specific examples for implementing the present application, and in actual application, various changes can be made in form and details without departing from the spirit and scope of the present application.

Claims

1. An adsorption device for laser cutting of fuel cell sealing membranes, characterized in that, include: External waste vacuum adsorption device; The inner waste vacuum adsorption device is embedded in the outer waste vacuum adsorption device. A floating structure is provided on the inner waste vacuum adsorption device; The finished product vacuum device is movably connected to the outer side of the inner waste vacuum adsorption device via the floating structure. The finished product vacuum device and the inner waste vacuum adsorption device are both connected to the same vacuum chamber as the outer waste vacuum adsorption device. During the downward pressing process, the fuel cell sealing membrane on the finished vacuum device is separated from the fuel cell sealing membrane on the outer waste vacuum adsorption device and the inner waste vacuum adsorption device via the floating structure. The floating structure further includes: The guide post is fixed on the outer side of the inner waste vacuum suction cup and on the inner waste vacuum suction base plate of the inner waste vacuum suction device. A spring guide post is fixed on the inner waste vacuum suction cup outside the inner waste vacuum suction cup, on one side of the guide post, on the inner waste vacuum suction base plate of the inner waste vacuum suction device. A spring, which is fitted onto the spring guide post; The finished product vacuum device is embedded with the outer waste vacuum adsorption device; the upper surfaces of the finished product vacuum device, the outer waste vacuum adsorption device, and the inner waste vacuum adsorption device are in the same plane, and the fuel cell sealing membrane to be cut is placed on the plane.

2. The adsorption device for laser cutting of fuel cell sealing membrane according to claim 1, characterized in that, The finished product vacuum device, the outer waste product vacuum adsorption device, and the inner waste product vacuum adsorption device constitute three independent vacuum chambers.

3. The adsorption device for laser cutting of fuel cell sealing membrane according to claim 1, characterized in that, The aforementioned external waste vacuum adsorption device further includes: The vacuum frame structure is composed of six panels; the interior of the vacuum frame structure is hollow. Small holes are provided above the vacuum frame structure along the central axis of the vacuum frame structure. A vacuum tank is provided in the small hole on the vacuum frame structure; an outer waste vacuum adsorption device and an inner waste vacuum adsorption device are provided in the vacuum tank. The outer waste vacuum adsorption device and the inner waste vacuum adsorption device are connected to the vacuum frame structure to form their respective vacuum chambers.

4. The adsorption device for laser cutting of fuel cell sealing membrane according to claim 3, characterized in that, A pipe is provided in the vacuum frame structure for connecting to the vacuum system; a base is fixed below the vacuum frame structure.

5. The adsorption device for laser cutting of fuel cell sealing membrane according to claim 1, characterized in that, The aforementioned inner waste vacuum adsorption device further includes: The inner waste vacuum adsorption base plate is fixed at the bottom of the vacuum frame structure of the outer waste vacuum adsorption device. The inner waste vacuum adsorption chamber is fixed on the inner waste vacuum adsorption base plate by embedding several inner waste vacuum adsorption chambers, which are arranged along the fuel cell sealing membrane; a through hole is provided below the inner waste vacuum adsorption chamber, and the through hole is connected to the vacuum frame structure of the outer waste vacuum adsorption device. An inner waste vacuum suction cup is fixed above the inner waste vacuum adsorption cavity. The floating structure is located on the outside of the inner waste vacuum suction cup.

6. The adsorption device for laser cutting of fuel cell sealing membrane according to claim 1, characterized in that, The finished product vacuum device further includes: A cover plate is located above the inner waste vacuum adsorption base plate of the inner waste vacuum adsorption device and is fixed by the guide column of the floating structure. Several through holes are opened on the cover plate, and the inner waste vacuum suction cup of the inner waste vacuum adsorption device is embedded in the through holes. Several round holes are opened on the cover plate, which communicate with the through holes on the inner waste vacuum adsorption base plate and with the vacuum frame structure of the outer waste vacuum adsorption device. The inner finished vacuum chamber is fixed above the cover plate by the guide post; several grooves are formed on the inner finished vacuum chamber; several small round holes are formed in the grooves, and the small round holes communicate with the round holes set on the cover plate; and it is connected to the vacuum frame structure. An inner-side pre-finished microporous ceramic suction cup is embedded in the groove; the inner-side pre-finished microporous ceramic suction cup introduces a vacuum through the small round hole and the through hole.

7. The adsorption device for laser cutting of fuel cell sealing membrane according to claim 6, characterized in that, The shape of the inner finished microporous ceramic suction cup is consistent with the shape of the fuel cell sealing membrane.

8. The application method of the adsorption device for laser cutting of fuel cell sealing membrane according to any one of claims 1-7, characterized in that, Includes the following steps: Step S10: Place the entire piece of fuel cell sealing membrane to be cut on the same plane on the upper surface of the finished product vacuum device, the outer waste vacuum adsorption device, and the inner waste vacuum adsorption device; proceed to step S20. Step S20: Before cutting, the finished product vacuum device, the outer waste vacuum adsorption device, and the inner waste vacuum adsorption device simultaneously adsorb the fuel cell sealing membrane, and the laser cutting machine quickly cuts out the outer contour of the fuel cell sealing membrane; proceed to step S30. Step S30: After the laser cutting machine cuts the fuel cell sealing membrane, the finished product vacuum device, the outer waste vacuum adsorption device, and the inner waste vacuum adsorption device still simultaneously adsorb the fuel cell sealing membrane. The material-picking suction cup on the picking device moves downwards, and a positional connection is established with the fuel cell sealing membrane laser cutting adsorption device via a guide positioning pin, ensuring a one-to-one correspondence between the material-picking suction cup and the inner finished product microporous ceramic suction cup. The picking device continues to move downwards against the spring on the finished product vacuum device, causing the finished fuel cell sealing membrane and the inner and outer fuel cell sealing membranes to separate in a staggered manner, effectively cutting off the adhesion between them and ensuring complete separation between the finished fuel cell sealing membrane and the inner and outer fuel cell sealing membranes; proceed to step S40. Step S40: The inner finished product microporous ceramic suction cup is released, the material-grabbing suction cup grabs the finished product sealing film, the part-grabbing device moves back to its original position, the inner waste vacuum suction cup and vacuum frame structure release the inner and outer two pieces of the fuel cell sealing film, and clean the inner and outer two pieces of the fuel cell sealing film.

Images