Fuel cell processing equipment
阅读说明:本技术 一种燃料电池加工设备 (Fuel cell processing equipment ) 是由 周泽鑫 包孟嘉 王涛 郑芳艳 邱晨 于 2020-06-01 设计创作,主要内容包括:本发明公开了一种燃料电池加工设备,包括加工台、设于所述加工台两侧的第一支撑板、设于所述第一支撑板上的第一安装板及第二安装板,所述第一支撑板上设有第一活动槽和第二活动槽,所述第一安装板两端分别设有与所述第一活动槽相配合的第一滑块,所述第二安装板插设于所述第二活动槽内,所述第二安装板上设有液压缸,所述液压缸活塞杆上设有压板,所述加工台上设有第三活动槽,所述第三活动槽内设有载料板,所述第三活动槽内设有与所述载料板相配合的支撑组件,所述第一安装板上设有第四活动槽,所述第四活动槽内设有第一连接杆,所述第一连接杆两端分别设有取料组件。(The invention discloses a fuel cell processing device, which comprises a processing table, first supporting plates arranged at two sides of the processing table, a first mounting plate and a second mounting plate arranged on the first supporting plates, the first supporting plate is provided with a first movable groove and a second movable groove, the two ends of the first mounting plate are respectively provided with a first slide block matched with the first movable groove, the second mounting plate is inserted in the second movable groove, a hydraulic cylinder is arranged on the second mounting plate, a pressure plate is arranged on a piston rod of the hydraulic cylinder, a third movable groove is arranged on the processing table, a material carrying plate is arranged in the third movable groove, a supporting component matched with the material carrying plate is arranged in the third movable groove, a fourth movable groove is arranged on the first mounting plate, and a first connecting rod is arranged in the fourth movable groove, and material taking assemblies are respectively arranged at two ends of the first connecting rod.)
1. The utility model provides a fuel cell processing equipment, includes processing platform (1), locates first backup pad (2), the locating of processing platform (1) both sides first mounting panel (3) and second mounting panel (4) on first backup pad (2), be equipped with first movable groove (21) and second movable groove (22) on first backup pad (2), first mounting panel (3) both ends be equipped with respectively with first movable groove (22) matched with first slider (32), second mounting panel (4) are inserted and are located in second movable groove (22), be equipped with pneumatic cylinder (41) on second mounting panel (4), be equipped with clamp plate (42) on pneumatic cylinder (41) piston rod, its characterized in that: the processing table is characterized in that a third movable groove (11) is formed in the processing table (1), a material carrying plate (13) is arranged in the third movable groove (11), a supporting assembly matched with the material carrying plate (13) is arranged in the third movable groove (11), a fourth movable groove is formed in the first mounting plate (3), a first connecting rod (31) is arranged in the fourth movable groove, and material taking assemblies are arranged at two ends of the first connecting rod (31) respectively.
2. A fuel cell process plant according to claim 1, wherein: the supporting component comprises a first connecting pipe (17) and a second connecting pipe (18) which are arranged at the bottom of the third movable groove (11) and a second connecting rod (132) which is arranged at the bottom of the material carrying plate (13), the second connecting rod (132) penetrates through the first connecting pipe (17), a first supporting spring (181) is arranged at the top of the second connecting pipe (18), a first push plate (182) is arranged at the bottom of the first supporting spring (181), and the second connecting pipe (18) is communicated with the first connecting pipe (17) through a gas conveying pipe (183).
3. A fuel cell process plant according to claim 1, wherein: a first sliding groove (111) is formed in the inner wall of the third movable groove (11), a second sliding block (131) matched with the first sliding groove (111) is arranged on the side wall of the material carrying plate (13), a second supporting plate (14) is arranged in the first sliding groove (111), a balancing weight (15) is arranged on the second supporting plate (14), a second supporting spring (141) is arranged at the bottom of the second supporting plate (14), a first movable cavity (17) is formed in the side wall of the first sliding groove (111), and a second push plate (18) used for pushing the balancing weight (15) to move is arranged in the first movable cavity (17); and a third supporting plate (130) matched with the material carrying plate (13) is arranged in the third movable groove (11).
4. A fuel cell process plant according to claim 3, wherein: a first groove (181) is formed in the second push plate (18), a second connecting plate (151) matched with the first groove (181) is arranged on the counterweight block (15), a first baffle (182) is arranged on the side wall of the first groove (181), a third connecting rod (183) is arranged at the top of the first groove (181), a first through hole matched with the third connecting rod (183) is formed in the second connecting plate (151), an opening is formed in the side wall of the first through hole, and a first bump (152) is arranged on the inner wall of the opening; a second baffle (171) is arranged in the first movable cavity (17); a fifth movable groove (150) is formed in the side wall of the first movable cavity (17), and a first push block (184) matched with the fifth movable groove (150) is arranged on the second push plate (18).
5. A fuel cell process plant according to claim 3, wherein: a second movable cavity (120) is arranged on the inner wall of the first movable groove (11), the third supporting plates (130) are arranged in the second movable cavity (120), the number of the second movable cavities (120) is two, and the number of the corresponding third supporting plates (130) is also two; the third supporting plate (130) is provided with a third connecting plate (1301), one end of the third connecting plate (1301) is provided with a second push block (1303), and the side wall of the third connecting plate (1301) is provided with a third supporting spring (1302).
6. A fuel cell process plant according to claim 5, wherein: a second sliding groove is formed in the side wall of the machining table (1), a third sliding block is arranged in the second sliding groove, a third push rod (140) is arranged on the third sliding block, and a sixth movable groove (1304) matched with the third push rod (140) is arranged on the second push block (1303); processing platform (1) lateral wall is last to be equipped with seventh activity groove (110), wear to be equipped with fourth connecting rod (191) in seventh activity groove (110), fourth connecting rod (191) one end is equipped with first limiting plate (192), be equipped with spacing spring (193) on first limiting plate (192), fourth connecting rod (191) other end is equipped with first gag lever post (19), be equipped with on second ejector pad (1303) with first gag lever post (19) matched with spacing groove.
7. A fuel cell process plant according to claim 1, wherein: an eighth movable groove (12) is formed in the machining table (1), the eighth movable groove (12) is communicated with the first movable groove (11), a third baffle (14) is rotatably connected in the eighth movable groove (12), and a fifth supporting plate (142) matched with the material carrying plate (13) is arranged on the third baffle (14); a third sliding groove (121) is formed in the bottom of the eighth movable groove (12), a fourth supporting plate (146) is movably connected to the third baffle (14), a fourth sliding block (1461) matched with the third sliding groove (121) is arranged at the bottom of the fourth supporting plate (146), a third movable cavity (122) is formed in the inner wall of the third sliding groove (121), and a supporting block (124) is arranged in the third movable cavity (122).
8. A fuel cell process plant according to claim 7, wherein: a fourth movable cavity (143) is formed in the third baffle (14), the fifth supporting plate (142) penetrates through the fourth movable cavity (143), a second limiting plate (1421) matched with the fourth movable cavity (143) is arranged on the fifth supporting plate (142), and a third push plate (1422) is arranged at one end of the fifth supporting plate (142); be equipped with first linkage block (141) on third baffle (14) lateral wall, be equipped with fifth activity chamber (1411) on first linkage block (141), wear to be equipped with third limiting plate (146) in fifth activity chamber (1411), be equipped with driving plate (1461) on third limiting plate (146), be equipped with in fifth activity chamber (1411) with driving plate (1461) matched with drive wheel (145), be equipped with the runner on drive wheel (145), the runner is worn to locate in fifth activity chamber (1411).
9. A fuel cell process plant according to claim 1, wherein: both ends of the first connecting rod (31) are respectively provided with a fourth connecting plate (313), a sixth movable cavity (314) is arranged on the fourth connecting plate (313), the material taking assembly comprises a second limiting rod (34) arranged in the sixth movable cavity (314), a fifth connecting rod (341) arranged at the bottom of the second limiting rod (34), a fifth connecting plate (342) arranged at the bottom of the fifth connecting rod (341) and a sucking disc (3423) arranged at the bottom of the fifth connecting plate (342), a fourth supporting spring (343) is arranged at the bottom of the second limiting rod (34), a ninth movable groove (3131) is arranged on the fourth connecting plate (313), a third push block (37) is arranged in the ninth movable groove (3131), a sixth connecting rod (344) is arranged on the second limiting rod (34), the third push block (37) is provided with a connecting groove matched with the sixth connecting rod (344); the sixth connecting rod (344) penetrates through the sixth movable cavity, and a tenth movable groove matched with the sixth connecting rod (344) is formed in the side wall of the fourth movable groove.
10. A fuel cell process plant according to claim 9, wherein: a cavity (3421) is formed in the fifth connecting plate (342), a plurality of first through grooves (3422) are formed in the cavity (3421), the cavity (3421) is communicated with the inside of the sucking disc (3423), a fourth baffle (351) matched with the first through grooves (3422) is arranged in the cavity (3421), a seventh movable cavity (3411) is formed in the fifth connecting rod (341), a seventh connecting rod (35) is arranged on the fourth baffle (351), a fifth supporting spring (352) is arranged on the side wall of the seventh connecting rod (35), a first push rod (353) is arranged on the seventh connecting rod (35), and the first push rod (353) penetrates through the sixth connecting rod (344); be equipped with the second recess on third ejector pad (37), wear to be equipped with second push rod (371) in the second recess, second push rod (371) one end is equipped with the fourth push pedal, and the other end is equipped with fifth push pedal (372), be equipped with reset spring on fifth push pedal (372).
Technical Field
The invention belongs to the technical field of dye battery processing, and particularly relates to fuel battery processing equipment.
Background
As fuel cell stacks are developed for higher voltage and higher power, it is necessary to increase the number of bipolar plates in the stack to increase the overall voltage to achieve higher power output. The traditional lamination mode is that from bottom to top, one sheet is stacked and then pressed by a vertical press. The increase of the number of the laminated sheets inevitably causes height increase, the electrode plates on each layer are difficult to be ensured to be placed regularly after the number of the laminated sheets is increased, and the fuel cell is easy to have dislocation phenomenon, so that the alignment of the sealing ring is not accurate and the alignment of the reaction area is not accurate, which causes the sealing problem of the electric pile, even damages the membrane electrode in the fuel cell, causes fuel gas leakage and generates potential safety hazard; the manual operation is still mainly adopted for most of the fuel cells during the assembly, and due to the fact that the height of the fuel cells is gradually increased in the lamination process, operators have height difference, operation is inconvenient when the top pole piece is stacked, and proper working conditions cannot be provided for most of the operators.
Disclosure of Invention
The invention provides fuel cell processing equipment for ensuring the quality of a fuel cell assembly finished product in order to overcome the defects of the prior art.
In order to achieve the purpose, the invention adopts the following technical scheme: a fuel cell processing device comprises a processing table, first supporting plates arranged at two sides of the processing table, a first mounting plate and a second mounting plate arranged on the first supporting plates, the first supporting plate is provided with a first movable groove and a second movable groove, the two ends of the first mounting plate are respectively provided with a first slide block matched with the first movable groove, the second mounting plate is inserted in the second movable groove, a hydraulic cylinder is arranged on the second mounting plate, a pressure plate is arranged on a piston rod of the hydraulic cylinder, a third movable groove is arranged on the processing table, a material carrying plate is arranged in the third movable groove, a supporting component matched with the material carrying plate is arranged in the third movable groove, a fourth movable groove is arranged on the first mounting plate, a first connecting rod is arranged in the fourth movable groove, and material taking assemblies are respectively arranged at two ends of the first connecting rod; when assembling the fuel cell, an operator places the fuel cell shell on the material carrying plate, and pushes the material carrying plate to move in the first movable groove according to the height of the operator, so that the height of the fuel cell shell is adapted to the height of the operator, and the operation convenience of the operator is improved; the supporting assembly provides supporting force for the material carrying plate and fixes the material carrying plate at a specified height so as to provide reliable supporting force for the assembly of the fuel cell and ensure the safety of the fuel cell during the assembly; when assembling the fuel cell, the bipolar plate and the proton exchange membrane are conveyed to two sides of the processing table through the conveyor belt, the first connecting rod is pushed to move in the fourth movable groove, one end of the first connecting rod is firstly contacted with one end of the fourth movable groove, the bipolar plate is picked up under the action of the material taking assembly, then the first connecting rod is pushed to the other end of the fourth movable groove, the other end of the first connecting rod is abutted against the other end of the fourth movable groove, the material taking assembly drives the bipolar plate to move to the upper part of the battery shell so as to place the bipolar plate on the battery shell, the material taking assembly at the other end of the first connecting rod picks up the proton exchange membrane, after the bipolar plate is placed on the battery shell, the first connecting rod is pushed to move in the fourth movable groove so as to move the proton exchange membrane to the upper part of the battery shell, the proton exchange membrane is, pushing the first connecting rod to and fro so as to complete the assembly of the fuel cell; the first connecting rod moves in the fourth movable groove, so that the material taking assemblies at two ends of the first connecting rod accurately move to the position right above the material carrying plate, the bipolar plate and the proton exchange membrane are stacked together in order, the assembling reliability of the fuel cell stack is ensured, and the quality of a finished fuel cell product is ensured; through the form equipment fuel cell that promotes the head rod and remove, error when very big reduction piles up fuel cell will assemble the fuel cell degree of difficulty simultaneously, makes fuel cell's equipment more convenient, promotes the machining efficiency of fuel cell equipment.
The supporting component comprises a first connecting pipe, a second connecting pipe and a second connecting rod, wherein the first connecting pipe and the second connecting pipe are arranged at the bottom of the third movable groove, the second connecting rod is arranged at the bottom of the material carrying plate in a penetrating mode, a first supporting spring is arranged at the top of the second connecting pipe, a first push plate is arranged at the bottom of the first supporting spring, and the second connecting pipe is communicated with the first connecting pipe through a gas pipe.
A first sliding groove is formed in the inner wall of the third movable groove, a second sliding block matched with the first sliding groove is arranged on the side wall of the material carrying plate, a second supporting plate is arranged in the first sliding groove, a balancing weight is arranged on the second supporting plate, a second supporting spring is arranged at the bottom of the second supporting plate, a first movable cavity is formed in the side wall of the first sliding groove, and a second push plate used for pushing the balancing weight to move is arranged in the first movable cavity; and a third supporting plate matched with the material carrying plate is arranged in the third movable groove.
A first groove is formed in the second push plate, a second connecting plate matched with the first groove is arranged on the balancing weight, a first baffle is arranged on the side wall of the first groove, a third connecting rod is arranged at the top of the first groove, a first through hole matched with the third connecting rod is formed in the second connecting plate, an opening is formed in the side wall of the first through hole, and a first bump is arranged on the inner wall of the opening; a second baffle is arranged in the first movable cavity; and a fifth movable groove is formed in the side wall of the first movable cavity, and a first push block matched with the fifth movable groove is arranged on the second push plate.
A second movable cavity is arranged on the inner wall of the first movable groove, the third supporting plates are arranged in the second movable cavity, the number of the second movable cavities is two, and the number of the corresponding third supporting plates is also two; and a third connecting plate is arranged on the third supporting plate, a second push block is arranged at one end of the third connecting plate, and a third supporting spring is arranged on the side wall of the third connecting plate.
A second sliding groove is formed in the side wall of the machining table, a third sliding block is arranged in the second sliding groove, a third push rod is arranged on the third sliding block, and a sixth movable groove matched with the third push rod is formed in the second push block; the processing table is characterized in that a seventh movable groove is formed in the side wall of the processing table, a fourth connecting rod is arranged in the seventh movable groove in a penetrating mode, a first limiting plate is arranged at one end of the fourth connecting rod, a limiting spring is arranged on the first limiting plate, a first limiting rod is arranged at the other end of the fourth connecting rod, and a limiting groove matched with the first limiting rod is formed in the second push block.
An eighth movable groove is formed in the processing table and communicated with the first movable groove, a third baffle plate is rotatably connected in the eighth movable groove, and a fifth supporting plate matched with the material carrying plate is arranged on the third baffle plate; a third sliding groove is formed in the bottom of the eighth movable groove, a fourth supporting plate is movably connected to the third baffle, a fourth sliding block matched with the third sliding groove is arranged at the bottom of the fourth supporting plate, a third movable cavity is formed in the inner wall of the third sliding groove, and a supporting block is arranged in the third movable cavity.
A fourth movable cavity is formed in the third baffle, a fifth supporting plate penetrates through the fourth movable cavity, a second limiting plate matched with the fourth movable cavity is arranged on the fifth supporting plate, and a third push plate is arranged at one end of the fifth supporting plate; the side wall of the third baffle plate is provided with a first connecting block, the first connecting block is provided with a fifth movable cavity, a third limiting plate penetrates through the fifth movable cavity, the third limiting plate is provided with a transmission plate, a transmission wheel matched with the transmission plate is arranged in the fifth movable cavity, a rotating wheel is arranged on the transmission wheel, and the rotating wheel penetrates through the fifth movable cavity.
The material taking assembly comprises a second limiting rod arranged in the sixth movable cavity, a fifth connecting rod arranged at the bottom of the second limiting rod, a fifth connecting plate arranged at the bottom of the fifth connecting rod and a sucker arranged at the bottom of the fifth connecting plate, a fourth supporting spring is arranged at the bottom of the second limiting rod, a ninth movable groove is formed in the fourth connecting plate, a third push block is arranged in the ninth movable groove, a sixth connecting rod is arranged on the second limiting rod, and a connecting groove matched with the sixth connecting rod is formed in the third push block; the sixth connecting rod penetrates through the sixth movable cavity, and a tenth movable groove matched with the sixth connecting rod is formed in the side wall of the fourth movable groove.
A cavity is formed in the fifth connecting plate and provided with a plurality of first through grooves, the cavity is communicated with the inside of the sucker, a fourth baffle matched with the first through grooves is arranged in the cavity, a seventh movable cavity is formed in the fifth connecting rod, a seventh connecting rod is arranged on the fourth baffle, a fifth supporting spring is arranged on the side wall of the seventh connecting rod, a first push rod is arranged on the seventh connecting rod, and the first push rod penetrates through the sixth connecting rod; the third push block is provided with a second groove, a second push rod penetrates through the second groove, one end of the second push rod is provided with a fourth push plate, the other end of the second push rod is provided with a fifth push plate, and the fifth push plate is provided with a reset spring.
The invention has the following advantages: when assembling the fuel cell, an operator places the fuel cell shell on the material carrying plate, and pushes the material carrying plate to move in the first movable groove according to the height of the operator, so that the height of the fuel cell shell is adapted to the height of the operator, and the operation convenience of the operator is improved; the first connecting rod moves in the fourth movable groove, so that the material taking assemblies at two ends of the first connecting rod accurately move right above the material carrying plate, bipolar plates and proton exchange membranes are stacked together orderly, the assembling reliability of the fuel cell stack is ensured, and the quality of a finished fuel cell product is ensured.
Drawings
FIG. 1 is a schematic structural diagram of the present invention.
Fig. 2 is a right side view of the present invention.
Fig. 3 is a cross-sectional view taken along a-a in fig. 2.
Fig. 4 is an enlarged view of a portion a in fig. 3.
Fig. 5 is an enlarged view of fig. 3 at B.
Fig. 6 is an enlarged view of fig. 3 at C.
Fig. 7 is a sectional view taken along B-B of fig. 2.
Fig. 8 is an enlarged view of fig. 7 at D.
Fig. 9 is a cross-sectional view taken along line D-D in fig. 2.
Fig. 10 is an enlarged view of fig. 9 at E.
Fig. 11 is a cross-sectional view taken along line E-E of fig. 2.
Fig. 12 is an enlarged view of fig. 11 at F.
Fig. 13 is an enlarged view at G in fig. 12.
Fig. 14 is a front view of the present invention.
Fig. 15 is a cross-sectional view taken along F-F in fig. 14.
Fig. 16 is an enlarged view at H in fig. 15.
FIG. 17 is a schematic cross-sectional view taken along line M-M of FIG. 14.
Fig. 18 is an enlarged view at I in fig. 17.
Fig. 19 is an enlarged view at J in fig. 17.
Fig. 20 is a sectional view taken along H-H in fig. 14.
Fig. 21 is an enlarged view at K in fig. 20.
Fig. 22 is a cross-sectional view taken along line I-I of fig. 14.
Fig. 23 is an enlarged view at L in fig. 22.
Fig. 24 is a cross-sectional view taken along J-J in fig. 14.
Fig. 25 is an enlarged view of fig. 24 at M.
Fig. 26 is a cross-sectional view taken along line K-K of fig. 14.
Fig. 27 is an enlarged view of fig. 26 at N.
Fig. 28 is a sectional view taken along L-L in fig. 14.
Fig. 29 is an enlarged view at O in fig. 28.
Detailed Description
As shown in fig. 1-29, a fuel cell processing apparatus comprises a processing table 1, a first supporting
The top of the first movable groove is provided with a through cavity, the first movable groove and the second movable groove are communicated through the through cavity, the inner wall of the through cavity is provided with a
The supporting assembly comprises a first connecting pipe 17 and a second connecting
A first sliding
A
A second movable cavity 120 is arranged on the inner wall of the first movable groove 11, the
A second sliding groove is formed in the side wall of the processing table 1, a third sliding block is arranged in the second sliding groove, a
An eighth movable groove 12 is formed in the processing table 1, the eighth movable groove 12 is communicated with the first movable groove 11, a
A fourth
The two ends of the first connecting rod 31 are respectively provided with a fourth connecting plate 313, the fourth connecting plate 313 is provided with a sixth movable cavity 314, the material taking assembly comprises a second limiting rod 34 arranged in the sixth movable cavity 314, a fifth connecting rod 341 arranged at the bottom of the second limiting rod 34, a fifth connecting plate 342 arranged at the bottom of the fifth connecting rod 341 and a sucking disc 3423 arranged at the bottom of the fifth connecting plate 342, the bottom of the second limiting rod 34 is provided with a fourth supporting spring 343, the fourth connecting plate 313 is provided with a ninth movable groove 3131, the ninth movable groove 3131 is internally provided with a third push block 37, the second limiting rod 34 is provided with a sixth connecting rod 344, and the third push block 37 is provided with a connecting groove matched with the sixth connecting rod 344; the sixth connecting rod 344 penetrates through the sixth movable cavity, and a tenth movable groove matched with the sixth connecting rod 344 is formed in the side wall of the fourth movable groove; when the fuel cell is assembled, the bipolar plate and the proton exchange membrane are conveyed by the conveying belts, the two groups of conveying belts are respectively arranged at two sides of the processing table, and the bipolar plate and the proton exchange membrane are prevented from being arranged on the conveying belts at intervals; a twelfth movable groove 36 is formed in the top of the fourth movable groove, a third through hole is formed in the top of the sixth movable cavity,
A cavity 3421 is formed in the fifth connecting plate 342, a plurality of first through grooves 3422 are formed in the cavity 3421, the cavity 3421 is communicated with the inside of the suction cup 3423, a fourth baffle 351 matched with the first through grooves 3422 is arranged in the cavity 3421, a seventh movable cavity 3411 is formed in the fifth connecting rod 341, a seventh connecting rod 35 is arranged on the fourth baffle 351, a fifth support spring 352 is arranged on the side wall of the seventh connecting rod 35, a first push rod 353 is arranged on the seventh connecting rod 35, and the first push rod 353 is inserted into the sixth connecting rod 344; a second groove is formed in the third push block 37, a second push rod 371 penetrates through the second groove, a fourth push plate is arranged at one end of the second push rod 371, a fifth push plate 372 is arranged at the other end of the second push rod 371, and a reset spring is arranged on the fifth push plate 372; a third groove 373 is formed in the third push block, and the return spring is arranged in the third groove; after the bipolar plate or the proton exchange membrane is sucked by the sucker and moves to the upper part of the processing table, the sixth connecting rod positioned above the processing table enters the connecting groove, the third pushing block is pushed downwards, the third pushing block drives the sixth connecting rod to move downwards, the sixth connecting rod drives the second limiting rod to move downwards, the fifth connecting plate drives the bipolar plate or the proton exchange membrane to move downwards, the bipolar plate or the proton exchange membrane is placed on the fuel cell shell, the fifth pushing plate is pushed into the third groove, the fourth pushing plate is contacted with the first pushing rod, the first pushing rod pushes the seventh connecting rod to move, the fourth baffle plate moves in the cavity, the fourth baffle plate is staggered with the first through groove, outside air directly enters the cavity from the first through groove, the air pressure inside and outside the sucker is kept balanced, and the bipolar plate or the proton exchange membrane is naturally placed on the fuel cell shell, so that the stacking operation of the fuel cell is completed; when the bipolar plate or the proton exchange membrane is placed on the fuel cell shell, the third push block is released, and the second limiting rod drives the third push block to move upwards under the action of the fourth supporting spring, so that the resetting operation of the third push block is completed.
In order to ensure the connection effect of the third pushing block and the ninth movable groove, a sliding block can be arranged on the side wall of the third pushing block, and a corresponding sliding groove is arranged on the inner wall of the ninth movable groove, so that the third sliding block is prevented from being separated from the ninth movable groove; the top of the first connecting rod is provided with a sixth connecting plate 311 matched with the twelfth movable groove, the sixth connecting plate is provided with a fifth pushing block 312, and the pushing of the first connecting rod is more convenient due to the arrangement of the fifth pushing block.
When the fuel cell is assembled, the position of the material carrying plate is adjusted according to the height of an operator, a supporting force is provided for the material carrying plate through the third supporting plate and the fifth supporting plate, the fuel cell shell is placed on the material carrying plate, the bipolar plate and the proton exchange membrane are conveyed by the conveying belts on two sides of the processing table, the first connecting rod is pushed to move to one end of the fourth movable groove, the electric push rod pushes the second limiting rod to move downwards, the sucking disc presses the bipolar plate to pick up the bipolar plate, the first connecting rod is pushed to the other end of the fourth movable groove, the bipolar plate moves above the processing table along with the first connecting plate, the third push block is pushed downwards, the fifth connecting plate is driven by the third push block to move downwards, and when the bipolar plate is positioned at the top of the fuel cell shell, the fifth push plate is pushed to; the fifth connecting plate at the other end of the first connecting rod moves downwards under the action of the electric push rod and loses the proton exchange membrane; after the bipolar plate is placed, the first connecting rod is pushed back, the proton exchange membrane is placed on the bipolar plate in the same way, then the carbon cloth is placed manually, and the proton exchange membrane and the bipolar plate are placed according to the steps to complete the assembly of the fuel cell.
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