CN211678575U - Automatic glue spreader for fuel cell bipolar plate - Google Patents
Automatic glue spreader for fuel cell bipolar plate Download PDFInfo
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- CN211678575U CN211678575U CN201921698684.1U CN201921698684U CN211678575U CN 211678575 U CN211678575 U CN 211678575U CN 201921698684 U CN201921698684 U CN 201921698684U CN 211678575 U CN211678575 U CN 211678575U
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E60/00—Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
- Y02E60/30—Hydrogen technology
- Y02E60/50—Fuel cells
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Abstract
The utility model discloses an automatic spreading machine of fuel cell bipolar plate, include: the automatic pole plate feeding and conveying device comprises a base, a pole plate trolley feeding module, a bin jacking module, a pole plate feeding and discharging conveying module, a pole plate feeding and grabbing module, a pole plate discharging and grabbing module, a pole plate positioning and edge pressing module, a robot gluing module and a conveying belt conveying module. The utility model discloses on all integrating a base with material loading, location, rubber coating and unloading, adopt automatic control's mode, avoided the rubber coating positional deviation that artifical location appears and the problem that the yield is low, avoided manual operation scope and mechanical operation scope to overlap the potential safety hazard problem that leads to simultaneously, can be applicable to the rubber coating of the polar plate of different models, reduce cost demand.
Description
Technical Field
The utility model relates to a fuel cell produces technical field, and more specifically says, is an automatic spreading machine of fuel cell bipolar plate.
Background
The bipolar plate is used as a main component in the fuel cell, and the usage and the variety of the bipolar plate are increasing along with the gradual popularization of hydrogen energy power. In a hydrogen energy power system, the electric power of a fuel cell is obtained by the chemical reaction of hydrogen and oxygen, and the hydrogen serving as the fuel is colorless, tasteless, flammable and explosive micromolecule gas and is easy to leak, so that each bipolar plate is required to have good air tightness. At present, the sealing of the bipolar plate is mainly completed by the attachment of the polar plate and the sealing strip, and the polar plate is bonded with the sealing adhesive tape by glue.
Because the structure of the glue coating line of the bipolar plate is complex, the glue amount is required to be uniform and the width is only less than 1mm, the manual operation cannot be completed, the current main method depends on glue coating equipment, and the existing equipment is generally operated by manual feeding, positioning, pressing and blanking. Because the feeding and discharging are convenient, a larger gap is reserved for positioning the polar plate, so that the deviation of the gluing position is caused, and the reject ratio is higher; in addition, because the operation of each step is operated manually, the production efficiency is low, and because the gluing speed of the gluing manipulator is high during gluing, the feeding and discharging area of the equipment operation and the track range of the manipulator are overlapped, so that the potential safety hazard that the manipulator hits a person easily occurs if the operation is wrong.
Along with the development of whole trade, the kind of polar plate can be more and more, is applicable to the rubber coating equipment of single product, just also can't satisfy mill's a great variety of polar plate production demand just also, if increase equipment, the equipment management cost and the purchasing cost of mill all will improve, just also increased the burden of enterprise.
SUMMERY OF THE UTILITY MODEL
Because prior art has above-mentioned technical defect, this application provides a fuel cell bipolar plate automatic gluing machine, and its aim at solves the problem of the rubber coating position deviation that manual operation leads to among the prior art and the potential safety hazard that manual operation and the coincidence of rubber coating manipulator orbit scope lead to.
In order to achieve the technical purpose, the following technical means are adopted in the application:
automatic glue spreader of fuel cell bipolar plate includes:
a base;
the pole plate trolley feeding module is movably connected to one side of the base and used for providing pole plates to be glued, the pole plate trolley feeding module comprises a workpiece tray, and the pole plates to be glued are stacked on the workpiece tray;
the stock bin jacking module is fixed on the base and close to the pole plate trolley feeding module, and extends into the pole plate trolley feeding module to jack the workpiece tray upwards to a material taking height;
the pole plate feeding and discharging conveying module is fixed on the base and is connected with a pole plate feeding and grabbing module and a pole plate discharging and grabbing module, and the pole plate feeding and grabbing module is driven by the pole plate feeding and discharging conveying module to move to the position above the workpiece tray to grab the pole plate to be glued and convey the pole plate feeding and grabbing module to the position above a pole plate positioning and edge pressing module; the polar plate up-and-down conveying module drives the polar plate blanking grabbing module to move to the position above the polar plate positioning and edge pressing module to grab the polar plate which is coated with the glue and move the polar plate blanking grabbing module to a conveying belt conveying module;
the polar plate positioning and edge pressing module is fixed on the base and is positioned in the moving range of the polar plate feeding grabbing module and the polar plate discharging grabbing module, and the polar plate positioning and edge pressing module is used for fixing the polar plate so as to be convenient for accurate gluing;
the robot gluing module is fixed on the base and is used for gluing the polar plate fixed on the polar plate positioning and edge pressing module;
the conveying belt conveying module is fixed on the base and is used for receiving the pole plates which are placed in the pole plate blanking grabbing module and are coated with glue and conveying the pole plates to the next station.
Preferably, the pole plate trolley feeding module comprises:
a bottom bracket;
four guide posts fixed on the bottom bracket;
the workpiece tray is fixed on the guide post through a linear shaft and moves up and down along the guide post under the action of the bin jacking module; the workpiece tray is provided with transverse and vertical guide grooves;
the upper flat plate is fixed at the upper end parts of the four guide columns; a notch is formed in the upper flat plate so that the bin jacking module can be jacked conveniently;
the first positioning rods respectively penetrate through the vertical guide grooves in a one-to-one correspondence mode, the bottoms of the first positioning rods are connected to a first regulator, the first positioning rods are regulated to move in the vertical guide grooves through the movement of the first regulator, the top end of each first positioning rod is connected with a material staggering tray, and the material staggering tray is fixed on the upper flat plate through screws;
the second positioning rods respectively penetrate through the transverse guide grooves in a one-to-one correspondence manner, the bottoms of the second positioning rods are connected to a second adjuster, the second positioning rods are adjusted to move in the transverse guide grooves through the movement of the second adjuster, the top ends of the second positioning rods are connected with a positioning tool, and the positioning tool is connected to the upper flat plate;
the third positioning rod is fixed on the bottom bracket, and the upper end part of the third positioning rod is fixed at two end parts of the notch of the upper flat plate;
and the space among the first positioning rod, the second positioning rod and the third positioning rod is a positioning space of the polar plate to be glued.
Preferably, the upper surface of the bottom bracket is provided with a plurality of lateral guide wheels along the edge; and a positioning sleeve and a cushion pad are arranged at one edge connected with the base.
Preferably, the bottom bracket is provided with two upright posts, and the upright posts are provided with handles.
Preferably, the bin jacking module includes:
the two ends of the lower surface of the reference plate are respectively provided with a bracket which is fixed on the base;
the linear slide rail is arranged on the lower surface of the reference plate, is hung on one side of the base and is fixed on the base through a fixed support, and the linear slide rail corresponds to the notch of the upper flat plate of the pole plate trolley feeding module; a ball screw is arranged in the linear slide rail and is connected with a servo motor through a coupler;
the tray jacking table top is fixed on the ball screw through a screw nut seat and moves up and down along the linear slide rail along with the driving of the servo motor; the tray jacking table top extends into the bottom of the workpiece tray.
Preferably, the pole plate feeding and discharging conveying module includes:
the bottom of the external support is provided with a fixed upright post, the front surface of the external support is provided with a transverse through groove, slide rails are arranged along two sides of the through groove, and a polar plate feeding grabbing drive and a polar plate discharging grabbing drive are arranged in the external support;
the pole plate material loading grabbing drive comprises:
a ball screw fixed within the outer bracket;
a servo motor connected to one end of the ball screw;
the connecting end of the screw rod nut seat penetrates through the through groove to be connected with the pole plate feeding grabbing module, and the pole plate feeding grabbing module is driven to move along the slide rail under the action of the servo motor;
the polar plate unloading snatchs the drive and includes:
a blanking driving cylinder fixed in the external bracket;
and the air cylinder connecting piece is connected to the blanking driving air cylinder, penetrates through the through groove and is connected with the polar plate blanking grabbing module, and the blanking driving air cylinder is driven to move along the sliding rail.
Preferably, the polar plate positioning and edge pressing module comprises:
the positioning platform is fixed on a bottom mounting table board through an upright post, and two groups of transverse positioning grooves and two groups of vertical positioning grooves are arranged on the positioning platform;
two sets of long limit location structure, it includes respectively:
the long-edge pressing block is positioned on the upper surface of the positioning platform, the lower surface of the long-edge pressing block is connected with two long-edge positioning blocks, and the long-edge positioning blocks penetrate through the vertical positioning grooves;
the long-edge pressing cylinder is connected with the long-edge positioning block through a long-edge pressing cylinder seat and drives the long-edge pressing block to move up and down;
two sets of minor face location structure, it includes respectively:
the short edge pressing block is positioned on the upper surface of the positioning platform, the lower surface of the short edge pressing block is connected with two short edge positioning blocks, and the short edge positioning blocks penetrate through the transverse positioning grooves;
the short edge pressing cylinder is connected with the short edge positioning block through a short edge pressing cylinder seat and drives the short edge pressing block to move up and down;
the long-edge positioning module and the short-edge positioning module are respectively arranged on the bottom mounting table-board; the two groups of long-edge positioning structures are respectively fixed at two ends of the long-edge positioning module through long-edge pressing cylinder seats, and the long-edge positioning structures are driven to move back and forth through the long-edge positioning module; the two sets of short edge positioning structures are respectively fixed at two ends of the short edge positioning module through the short edge blank pressing cylinder seat, and the short edge positioning structures are driven to move left and right through the short edge positioning module.
Preferably, the pole plate material loading grabbing module and the pole plate material unloading grabbing module have the same structure and all include:
the polar plate grabbing device comprises a polar plate grabbing base plate, a sliding rail connecting plate is connected to one end of the polar plate grabbing base plate, and a material taking cylinder is connected to the upper surface of the other end of the polar plate grabbing base plate;
the rotary cylinder is connected below the material taking cylinder, and a sucker assembly is connected below the rotary cylinder;
a monitoring assembly comprising
A camera assembly including a misplaced camera and a position adjustment mechanism; the position adjusting mechanism comprises two end brackets fixed on the polar plate grabbing base plate through mounting brackets, a sliding rod is arranged between the two end brackets, the sliding rod is connected with an adjusting block, and the misplacement camera is connected to the adjusting block through a mounting seat;
the first sensor is arranged on the mounting seat and used for detecting the height of the position where the polar plates are stacked on the polar plate positioning and edge pressing module;
and the second sensor is arranged on the sucker component and used for detecting whether the pole plate is always on the sucker component after the sucker component takes the materials.
Preferably, the suction cup assembly comprises a suction cup mounting plate and a sponge suction cup fixed on the suction cup mounting plate.
Preferably, an anti-collision mechanism is installed on the polar plate grabbing substrate, and the anti-collision mechanism comprises an anti-collision installation block fixed on the polar plate grabbing substrate and an anti-collision block fixed at the front end of the anti-collision installation block.
Preferably, the device further comprises a control system, wherein the control system controls the work of the pole plate trolley feeding module, the stock bin jacking module pole plate, the feeding and discharging conveying module, the pole plate feeding and grabbing module, the pole plate discharging and grabbing module, the pole plate positioning and edge pressing module and the conveying belt conveying module.
Due to the adoption of the technical scheme, the automatic feeding positioning device integrates the feeding, the positioning, the gluing and the blanking into one base, adopts an automatic control mode, avoids the problems of gluing position deviation and low yield rate in manual positioning, avoids the potential safety hazard problem caused by the overlapping of a manual operation range and a mechanical operation range, can be used for processing polar plates of different models, and reduces the cost requirement.
Drawings
FIG. 1 is a schematic view of the internal assembly of the modules of the present application;
fig. 2A-2B are schematic structural diagrams of a plate trolley feeding module of the present application;
FIG. 3 is a schematic structural diagram of a jacking module of the storage bin of the present application;
fig. 4 is a schematic view of a plate feeding and discharging conveying module according to the present application;
fig. 5 is a schematic structural diagram of a pole plate feeding and grabbing module according to the present application;
FIG. 6 is a schematic structural diagram of a polar plate positioning and edge pressing module according to the present application;
FIG. 7 is a schematic view of a conveyor belt transfer module of the present application;
FIG. 8 is a schematic structural view of a base of the present application;
fig. 9 is an overall appearance diagram of the present application.
Detailed Description
The technical solution of the present invention is further specifically described below by way of examples and with reference to the accompanying drawings.
The utility model provides an automatic spreading machine of fuel cell bipolar plate includes that base 1, polar plate dolly material loading module 2, feed bin jacking module 3, polar plate go up unloading transport module 4, polar plate material loading snatch module 5, polar plate unloading snatch module 6 polar plate location blank pressing module 7, robot rubber coating module 8 reach modules such as conveyer belt transport module 9.
Referring to fig. 1, a base 1 is used as a support for supporting various components. The pole plate trolley feeding module 2 is movably connected to one side of the base 1, and the pole plate trolley feeding module 2 is used for intensively providing pole plates which are not coated with glue. The stock bin jacking module 3 is fixed on one side, close to the substrate trolley feeding module 2, of the base 1 and extends into the polar plate trolley feeding module 2 to assist in feeding the polar plate trolley feeding module 2. The pole plate feeding and discharging conveying module 4 is arranged on the base 1 and stretches across the feeding area, the positioning area and the discharging area, the pole plate feeding and grabbing module 5 and the pole plate discharging and grabbing module 6 are connected to the pole plate feeding and grabbing module 5 and the pole plate discharging and grabbing module 6, the pole plate feeding and grabbing module 5 is driven to grab a pole plate to be glued and place the pole plate in the positioning area (namely, the pole plate positioning and pressing module 7) to the feeding area (namely, the upper portion of the pole plate trolley feeding module 1), or the pole plate discharging and grabbing module 6 is driven to grab a pole plate which is already glued and place the pole plate on the conveying belt conveying module 9, and the pole plate which is already glued is conveyed. Polar plate location blank pressing module 7 is located on the base and is located between feed bin jacking module 3, the last unloading conveying module 4 of polar plate and conveyer belt conveying module 9 and the rubber coating module 8 of robot, reduction area to make things convenient for the operation of each module. Each module is controlled by a control system. The detailed structure of each module is described below with reference to each figure.
Referring to fig. 2A and 2B, the structure of the plate trolley feeding module is schematically shown. The pole plate trolley feeding module is of a positioning size adjustable structure and is suitable for pole plates of various machine types. The whole pole plate trolley feeding module 2 can be pulled out of the whole automatic glue spreader, the material is fed outside the equipment, and the safety and the coordination degree of the automatic work of the equipment are higher.
As shown in fig. 2A, the plate trolley feeding module 2 of the present invention includes a bottom bracket 201, a guide column 202, a workpiece tray 203, an upper plate 204, a first positioning rod 205, a second positioning rod 206, a third positioning rod 207, and the like. The bottom bracket 201 is used for carrying the installation of each component and is used as a carrier for transportation. The bottom of bottom support 201 is provided with truckle 208, be equipped with two stands 209 on bottom support 201 be equipped with handle 210 on the stand 209, the convenient transportation removes. Four guide posts 202 are fixed on the bottom support 201, linear shafts are arranged on the guide posts 202, the workpiece tray 203 is connected to the guide posts 202 through the linear shafts, and the workpiece tray 203 moves up and down along the guide posts 202 under the action of the bin jacking module. As shown in fig. 2A and 2B, two sections of the horizontal guide grooves 211 and two sections of the vertical guide grooves 211 are provided on the work pallet 203. The upper plate 204 is fixed to the upper ends of the four guide posts 202. And a gap is arranged on the upper flat plate 204 so as to facilitate the jacking of the stock bin jacking module 3. The two first positioning rods 205 respectively pass through a vertical guide groove 211, the bottom of the first positioning rod 205 is connected to a first adjuster 212, and the first positioning rod 205 is adjusted to move in the vertical guide groove 211 through the movement of the first adjuster 212. In addition, by connecting a wrong material tray 213 to the top end of the first positioning rod 205 and the upper plate, the first positioning rod 205 is further stabilized by the wrong material tray. When the adjustment is needed, the existing wrong material tray 213 is removed, and the wrong material tray 213 is replaced after the first adjuster 212 is adjusted. The two second positioning rods 206 respectively penetrate through one transverse guide groove 211, the bottoms of the two second positioning rods 206 are connected to a second adjuster 214, the second positioning rods 206 are adjusted to move in the transverse guide grooves 211 through the movement of the second adjuster 214, the top ends of the second positioning rods 206 are connected with a positioning tool 215, the positioning tool 215 is connected to the upper flat plate 213, and the positioning tool 215 can further stabilize the second positioning rods 206. Two third positioning rods 207 are fixed on the bottom bracket 201, and the upper ends thereof are fixed at the two ends of the notch of the upper flat plate. The third positioning rod 207 is a relatively fixed positioning structure, the first positioning rod 205 and the second positioning rod 206 are adjustable positioning structures, a space among the first positioning rod 205, the second positioning rod 206 and the third positioning rod 207 is a positioning space for the polar plate 219 to be glued, and the polar plates to be glued are stacked in the positioning space in order.
In addition, as shown in fig. 2A, the upper surface of the bottom bracket 201 is provided with a plurality of lateral guide wheels 216 along the edge, and the lateral guide wheels 216 play a role of guiding when being butted with the base 1. The bottom bracket 201 is provided with a positioning sleeve 217 and a cushion pad 218 at one edge connected with the base 1. A protective cover 220 is provided on an upper surface of the base bracket 201, and the protective cover 220 protects the first regulator, the second regulator, and the like.
Referring to fig. 3, the bin jacking module 3 includes a reference plate 301, a linear slide rail 302, a ball screw 303, a servo motor 304, a tray jacking table 305, and the like. Two ends of the lower surface of the reference plate 301 are respectively provided with a bracket 306, and the reference plate is fixed on the base 1 through the brackets 306. The linear slide rail 302 is arranged on the lower surface of the reference plate 301, hangs on one side of the base 1, and is fixed on the base 1 through a fixing bracket 307, and the linear slide rail 302 corresponds to the notch of the upper flat plate 204 of the plate trolley feeding module 2. A ball screw 303 is arranged in the linear slide rail 302, and the ball screw 303 is connected with a servo motor 304 through a coupling 308. The tray-lifting table 305 is fixed to the ball screw 303 through a screw nut holder 309, and moves up and down along the linear slide rail 302 with the driving of the servo motor 304. The pallet jacking table 305 extends into the bottom of the workpiece pallet 203.
Referring to fig. 4, the pole plate feeding and discharging conveying module 4 includes an external support 401, a fixed column 402, a pole plate feeding and grabbing drive, and a pole plate discharging and grabbing drive. Referring to fig. 4 in detail and with reference to fig. 1, the bottom of the external bracket 401 is provided with a fixing pillar 402, and the fixing pillar 402 may be designed in different heights according to actual requirements. The front surface of the external bracket 401 is provided with a transverse through groove 403, and sliding rails 404 are arranged along two sides of the through groove 403. And a polar plate feeding grabbing drive and a polar plate discharging grabbing drive are arranged in the external support 401. Referring to fig. 4, the plate feeding grabbing drive includes: a ball screw 404 fixed in the outer frame 401; and a servo motor 405 fixedly connected to one end of the ball screw 404; a screw-nut seat 408 connected to the ball screw 404, and the pole plate feeding and grabbing module 5 connected to a connection end of the screw-nut seat 404 passing through the through groove. The pole plate feeding grabbing module 5 drives the pole plate feeding grabbing module to move along the sliding rail 404 under the action of the servo motor 405. The movement area of the polar plate feeding and grabbing module 5 is from a feeding area to a positioning area, namely, a polar plate to be glued is grabbed from the feeding area (namely, above the polar plate trolley feeding module 1) and is placed in the positioning area (namely, the polar plate positioning and edge pressing module 7). Referring to fig. 4 again, the plate blanking grabbing drive includes: a blanking driving cylinder 406 fixed in the outer bracket 401; and a cylinder connecting piece 407 connected with the blanking driving cylinder 406. The cylinder connecting piece 407 penetrates through the through groove 403 to be connected with the pole plate blanking grabbing module 6, and the pole plate blanking grabbing module moves along the slide rail 403 under the driving of the blanking driving cylinder 406. The motion area of the polar plate blanking grabbing module 6 is a positioning area to the conveying belt conveying module 9, namely, the polar plates which are coated with glue are grabbed from the positioning area (namely, the polar plate positioning and edge pressing module 7) and are placed on the conveying belt conveying module 9. The feeding harness protection drag chain 409 and the discharging harness protection drag chain 410 respectively protect the harnesses of the feeding and discharging grabbing modules.
Since the structures of the pole plate feeding and grabbing module 5 and the pole plate discharging and grabbing module 6 are the same, only the pole plate feeding module 5 is taken as an example in this embodiment to describe the structures in detail.
Fig. 5 is a schematic structural diagram of a plate feeding and grabbing module according to the present application. The polar plate material loading snatchs module 5 includes: the polar plate grabbing device comprises a polar plate grabbing substrate 501, a sliding rail connecting plate 502, a material taking cylinder 503, a rotating cylinder 504, a sucker assembly 505, a monitoring assembly and the like. As shown in fig. 5, the plate gripping base plate 501 serves as a mounting reference of the entire plate feeding module 5. One end of the polar plate grabbing substrate 501 is connected with a slide rail connecting plate 502, and the slide rail connecting plate 502 and the polar plate feeding grabbing driving screw-nut seat 405 (or the polar plate discharging grabbing driving air cylinder connecting piece 407) are driven to move by the polar plate feeding and discharging conveying module 4. The pole plate grabbing substrate 501 is connected with a material taking cylinder 503 on the upper surface of the other end of the pole plate grabbing substrate, a rotating cylinder 504 is connected below the material taking cylinder 503, and a sucker assembly 505 is connected below the rotating cylinder 504. The material taking cylinder 503 drives the rotating cylinder 504 and the sucker assembly 505 to move up and down together so that the sucker assembly 505 sucks the polar plate; the rotary cylinder 504 drives the sucker assembly 505 to rotate. An anti-collision mechanism is installed on the polar plate grabbing substrate 501, the anti-collision mechanism comprises an anti-collision installation block 513 fixed on the polar plate grabbing substrate 501 and an anti-collision block 514 fixed at the front end of the anti-collision installation block 513, and the anti-collision block 514 plays a buffering role. The monitoring assembly is used for monitoring whether the whole process from the pole plate sucking to the pole plate placing is normally and correctly carried out. As shown in fig. 5, the monitoring component includes a camera component, a first sensor 506 and a second sensor 507. The camera assembly includes a misplaced camera 508 and a position adjustment mechanism. The position adjusting mechanism comprises two end supports 509 fixed on the polar plate grabbing substrate 501 through mounting supports 509, a sliding rod 510 is arranged between the two end supports 509, the sliding rod 510 is connected with an adjusting block 511, the misplacing camera 508 is connected to the adjusting block 511 through a mounting seat 512, and the misplacing camera 508 is moved on the sliding rod 510 through the adjusting block 511 to complete the position adjustment of the misplacing camera 508. The camera assembly is mainly used for monitoring whether the polar plate sucked by the sucker assembly is reversely placed or not so as to reduce the error rate. The first sensor 506 is arranged on the mounting base 512 and used for detecting the height of the position where the pole plates are stacked on the pole plate trolley feeding module 2 (or the pole plate positioning and edge pressing module 7). If the height reaches a set value, the sucker component sucks the polar plate on the polar plate trolley feeding module 2 (or the polar plate positioning and edge pressing module 7). After suction, the plate's in-place condition is monitored by a second sensor 507 provided on the chuck assembly 505.
In the above, the suction cup assembly 505 is constituted by the suction cup mounting plate 5051 and the sponge suction cup 5052. The sucker mounting plate 5051 is connected to the rotary cylinder 504, and the sponge sucker 5052 is in contact with the pole plate and forms a sealed cavity with the surface of the pole plate by a compression force, so that the pole plate is sucked up by the action of a vacuum force.
Please refer to fig. 6, fig. 6 is a schematic structural diagram of a plate positioning and edge pressing module according to the present application. The polar plate location blank pressing module 7 is used for accurately locating a polar plate which is not glued. The polar plate positioning and edge pressing module 7 comprises a positioning platform 701, two groups of long edge positioning structures, two groups of short edge positioning structures, a long edge positioning module, a short edge positioning module and the like. As shown in fig. 6, the positioning platform 701 is fixed on a bottom mounting platform 703 by a column 702. Two sets of transverse positioning slots 704 and two sets of vertical positioning slots 705 are arranged on the positioning platform 701. The two sets of long edge positioning structures are respectively arranged in the two sets of vertical positioning grooves 705. The long edge positioning structure comprises a long edge pressing block 706 and a long edge pressing cylinder 707. The long edge pressing block 706 is located on the upper surface of the positioning platform 701, the lower surface of the long edge pressing block 706 is connected with two long edge positioning blocks 708, and the long edge positioning blocks 708 penetrate through the vertical positioning groove 705. The bottom of the long edge positioning block 708 is connected to the long edge pressing cylinder 707 through a long edge pressing cylinder seat 709, the long edge pressing block 706 is driven by the long edge pressing cylinder 707 to move up and down, and the up-and-down position of the long edge pressing block 706 relative to the positioning platform 701 is adjusted. The two groups of long edge positioning structures are respectively fixed at two ends of the long edge positioning module 710 through the long edge pressing cylinder seat 709, and the long edge positioning module 710 drives the two long edge positioning structures to respectively move back and forth so as to adjust the distance between the two long edge positioning structures. The two sets of short edge positioning structures are respectively disposed on the two sets of transverse positioning slots 704. The short edge positioning structure includes a short edge pressing block 711 and a short edge pressing cylinder 712. The short edge pressing block 711 is located on the upper surface of the positioning platform 701, and the lower surface of the short edge pressing block 711 is connected with two short edge positioning blocks 713, and the short edge positioning blocks 713 penetrate through the transverse positioning grooves 704. The short edge positioning block 713 is connected to the short edge cylinder 712 via a short edge cylinder block 714. The short edge pressing cylinder 712 drives the short edge pressing block 711 to move up and down so as to adjust the up-and-down position of the short edge pressing block 711 relative to the positioning platform 701. The two sets of short edge positioning structures are respectively fixed at two ends of the short edge positioning module 715 through the short edge pressing cylinder seat 714, and the short edge positioning structures are driven to move left and right through the short edge positioning module so as to adjust the distance between the two short edge positioning structures.
Referring to fig. 7, fig. 7 is a schematic structural diagram of a conveyor belt transfer module 9 according to the present application. The conveying belt conveying module 9 is connected to the base 1 through a long upright column 901 and a short upright column 902, the conveying belt 903 is installed on a supporting plate 905 through a height adjusting block 904, and the mounting plate 905 is connected with the long upright column 901; the in-place sensor 907 mounted on the sensor mounting seat 906 can sense the polar plates passing through the conveying line and judge whether the polar plates exist on the conveying belt 903. The sensor position adjustment component 908 may adjust the position of the in-situ sensor 907.
Please refer to fig. 8, fig. 8 is a schematic structural diagram of a base of the present application. The base 1 is provided with casters 101, the top of the base is an installation reference table-board 102, a left guide block 104, a right guide block 105 and a side guide block 106 which are arranged on a guide block installation seat 103 provide pre-guide for a pole plate feeding trolley module, and after the trolley is pushed in place, a positioning cylinder 107 drives a positioning pin 109 arranged on a positioning pin installation plate 108 to be inserted into a positioning sleeve 217 to accurately position the pole plate trolley feeding module. The bottom protective enclosure 110 provides protection for the bottom mounted electrical components.
In addition, this application more contain a control system, through control system control polar plate dolly material loading module 2, feed bin jacking module 3, the polar plate unloading transport module 4, the polar plate material loading snatchs module 5, the polar plate unloading snatchs module 6 polar plate location blank pressing module 7, robot rubber coating module 8 reach the work of conveyer belt transport module 9. The control system receives monitoring data of each sensor, the misplaced camera and the like at the same time, and corresponding actions are made according to the monitoring data. This control process is realized by the prior art, and is not described herein.
Fig. 9 is a schematic view of the present application. Because of the robot is very fast at the operation process kind of speed, has certain potential safety hazard, so equipment global design top shell 1101 and emergency exit 1102, operating personnel can observe the behavior of equipment through transparent ya keli observation window 1103, and the operation of equipment is accomplished through touch-sensitive screen 1104, and regulator cubicle safety protection door 1105 is used for protecting the electrical apparatus cabinet. As shown in fig. 9, an automatic glue supply module 12 is arranged beside the base 1 of the present application, and further comprises a glue supply pump main body and a safety protection part, wherein the glue supply pump main body is installed inside the protection housing 1201, an operator can observe the operation condition of the glue supply pump main body through the observation window 1202, and if the glue barrel raw material is used up, the glue barrel can be replaced through the glue barrel replacement door 1203. The glue supply pump main body is connected to the robot gluing module 8 and used for quickly supplying glue to the robot gluing film.
The utility model discloses because of its production efficiency of automation mechanized operations and location rubber coating precision are higher, owing to do not need artificial intervention operation and equipment to install safety protection door, equipment operation security is also higher, and material loading and positioner can carry out automatic adjustment, and equipment is stronger to the adaptability of polar plate, the more swift convenience of type changing.
The above-described embodiments are merely illustrative of the present invention and are not intended to limit the scope of the present invention. Those skilled in the art will recognize that changes and modifications can be made in the invention as described herein without departing from the scope of the invention as defined by the appended claims.
Claims (10)
1. Automatic spreading machine of fuel cell bipolar plate which is characterized in that, includes:
a base;
the pole plate trolley feeding module is movably connected to one side of the base and used for providing pole plates to be glued, the pole plate trolley feeding module comprises a workpiece tray, and the pole plates to be glued are stacked on the workpiece tray;
the stock bin jacking module is fixed on the base and close to the pole plate trolley feeding module, and extends into the pole plate trolley feeding module to jack the workpiece tray upwards to a material taking height;
the pole plate feeding and discharging conveying module is fixed on the base and is connected with a pole plate feeding and grabbing module and a pole plate discharging and grabbing module, and the pole plate feeding and grabbing module is driven by the pole plate feeding and discharging conveying module to move to the position above the workpiece tray to grab the pole plate to be glued and convey the pole plate feeding and grabbing module to the position above a pole plate positioning and edge pressing module; the polar plate up-and-down conveying module drives the polar plate blanking grabbing module to move to the position above the polar plate positioning and edge pressing module to grab the polar plate which is coated with the glue and move the polar plate blanking grabbing module to a conveying belt conveying module;
the polar plate positioning and edge pressing module is fixed on the base and is positioned in the moving range of the polar plate feeding grabbing module and the polar plate discharging grabbing module, and the polar plate positioning and edge pressing module is used for fixing the polar plate so as to be convenient for accurate gluing;
the robot gluing module is fixed on the base and is used for gluing the polar plate fixed on the polar plate positioning and edge pressing module;
the conveying belt conveying module is fixed on the base and is used for receiving the pole plates which are placed in the pole plate blanking grabbing module and are coated with glue and conveying the pole plates to the next station.
2. The automatic glue spreader for fuel cell bipolar plates according to claim 1, wherein the plate trolley feeding module comprises:
a bottom bracket;
four guide posts fixed on the bottom bracket;
the workpiece tray is fixed on the guide post through a linear shaft and moves up and down along the guide post under the action of the bin jacking module; the workpiece tray is provided with transverse and vertical guide grooves;
the upper flat plate is fixed at the upper end parts of the four guide columns; a notch is formed in the upper flat plate so that the bin jacking module can be jacked conveniently;
the first positioning rods respectively penetrate through the vertical guide grooves in a one-to-one correspondence mode, the bottoms of the first positioning rods are connected to a first regulator, the first positioning rods are regulated to move in the vertical guide grooves through the movement of the first regulator, the top end of each first positioning rod is connected with a material staggering tray, and the material staggering tray is fixed on the upper flat plate through screws;
the second positioning rods respectively penetrate through the transverse guide grooves in a one-to-one correspondence manner, the bottoms of the second positioning rods are connected to a second adjuster, the second positioning rods are adjusted to move in the transverse guide grooves through the movement of the second adjuster, the top ends of the second positioning rods are connected with a positioning tool, and the positioning tool is connected to the upper flat plate;
the third positioning rod is fixed on the bottom bracket, and the upper end part of the third positioning rod is fixed at two end parts of the notch of the upper flat plate;
and the space among the first positioning rod, the second positioning rod and the third positioning rod is a positioning space of the polar plate to be glued.
3. The automatic glue spreader for fuel cell bipolar plates according to claim 2, wherein the upper surface of the bottom bracket is provided with a plurality of lateral guide wheels along the edge; a positioning sleeve and a cushion pad are arranged at one edge connected with the base; the bottom support is provided with two upright columns, and handles are arranged on the upright columns.
4. The automatic glue spreader for fuel cell bipolar plates according to claim 2, wherein the bin jacking module comprises:
the two ends of the lower surface of the reference plate are respectively provided with a bracket which is fixed on the base;
the linear slide rail is arranged on the lower surface of the reference plate, is hung on one side of the base and is fixed on the base through a fixed support, and the linear slide rail corresponds to the notch of the upper flat plate of the pole plate trolley feeding module; a ball screw is arranged in the linear slide rail and is connected with a servo motor through a coupler;
the tray jacking table top is fixed on the ball screw through a screw nut seat and moves up and down along the linear slide rail along with the driving of the servo motor; the tray jacking table top extends into the bottom of the workpiece tray.
5. The automatic glue spreader for fuel cell bipolar plates according to claim 1, wherein the plate loading and unloading conveyor module comprises:
the bottom of the external support is provided with a fixed upright post, the front surface of the external support is provided with a transverse through groove, slide rails are arranged along two sides of the through groove, and a polar plate feeding grabbing drive and a polar plate discharging grabbing drive are arranged in the external support;
the pole plate material loading grabbing drive comprises:
a ball screw fixed within the outer bracket;
a servo motor connected to one end of the ball screw;
the connecting end of the screw rod nut seat penetrates through the through groove to be connected with the pole plate feeding grabbing module, and the pole plate feeding grabbing module is driven to move along the slide rail under the action of the servo motor;
the polar plate unloading snatchs the drive and includes:
a blanking driving cylinder fixed in the external bracket;
and the air cylinder connecting piece is connected to the blanking driving air cylinder, penetrates through the through groove and is connected with the polar plate blanking grabbing module, and the blanking driving air cylinder is driven to move along the sliding rail.
6. The automatic glue spreader for a fuel cell bipolar plate according to claim 1, wherein the plate positioning and pressing module comprises:
the positioning platform is fixed on a bottom mounting table board through an upright post, and two groups of transverse positioning grooves and two groups of vertical positioning grooves are arranged on the positioning platform;
two sets of long limit location structure, it includes respectively:
the long-edge pressing block is positioned on the upper surface of the positioning platform, the lower surface of the long-edge pressing block is connected with two long-edge positioning blocks, and the long-edge positioning blocks penetrate through the vertical positioning grooves;
the long-edge pressing cylinder is connected with the long-edge positioning block through a long-edge pressing cylinder seat and drives the long-edge pressing block to move up and down;
two sets of minor face location structure, it includes respectively:
the short edge pressing block is positioned on the upper surface of the positioning platform, the lower surface of the short edge pressing block is connected with two short edge positioning blocks, and the short edge positioning blocks penetrate through the transverse positioning grooves;
the short edge pressing cylinder is connected with the short edge positioning block through a short edge pressing cylinder seat and drives the short edge pressing block to move up and down;
the long-edge positioning module and the short-edge positioning module are respectively arranged on the bottom mounting table-board; the two groups of long-edge positioning structures are respectively fixed at two ends of the long-edge positioning module through long-edge pressing cylinder seats, and the long-edge positioning structures are driven to move back and forth through the long-edge positioning module; the two sets of short edge positioning structures are respectively fixed at two ends of the short edge positioning module through the short edge blank pressing cylinder seat, and the short edge positioning structures are driven to move left and right through the short edge positioning module.
7. The automatic gluing machine of the fuel cell bipolar plate of claim 1, wherein the plate feeding grabbing module and the plate discharging grabbing module have the same structure and both comprise:
the polar plate grabbing device comprises a polar plate grabbing base plate, a sliding rail connecting plate is connected to one end of the polar plate grabbing base plate, and a material taking cylinder is connected to the upper surface of the other end of the polar plate grabbing base plate;
the rotary cylinder is connected below the material taking cylinder, and a sucker assembly is connected below the rotary cylinder;
a monitoring assembly comprising
A camera assembly including a misplaced camera and a position adjustment mechanism; the position adjusting mechanism comprises two end brackets fixed on the polar plate grabbing base plate through mounting brackets, a sliding rod is arranged between the two end brackets, the sliding rod is connected with an adjusting block, and the misplacement camera is connected to the adjusting block through a mounting seat;
the first sensor is arranged on the mounting seat and used for detecting the height of the position where the polar plates are stacked on the polar plate positioning and edge pressing module;
and the second sensor is arranged on the sucker component and used for detecting whether the pole plate is always on the sucker component after the sucker component takes the materials.
8. The automatic fuel cell bipolar plate coater of claim 7 wherein said chuck assembly includes a chuck mounting plate and a sponge chuck secured to said chuck mounting plate.
9. The automatic gluing machine of the fuel cell bipolar plate of claim 7, wherein an anti-collision mechanism is mounted on the plate grabbing substrate, and the anti-collision mechanism comprises an anti-collision mounting block fixed on the plate grabbing substrate and an anti-collision block fixed at the front end of the anti-collision mounting block.
10. The automatic glue spreader for the fuel cell bipolar plate as claimed in claim 1, further comprising a control system for controlling the operations of the plate trolley feeding module, the stock bin jacking module plate, the feeding and discharging conveyor module, the plate feeding and grabbing module, the plate discharging and grabbing module, the plate positioning and edge pressing module, and the conveyor belt conveyor module.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201921698684.1U CN211678575U (en) | 2019-10-11 | 2019-10-11 | Automatic glue spreader for fuel cell bipolar plate |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201921698684.1U CN211678575U (en) | 2019-10-11 | 2019-10-11 | Automatic glue spreader for fuel cell bipolar plate |
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| Publication Number | Publication Date |
|---|---|
| CN211678575U true CN211678575U (en) | 2020-10-16 |
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| CN201921698684.1U Active CN211678575U (en) | 2019-10-11 | 2019-10-11 | Automatic glue spreader for fuel cell bipolar plate |
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Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN112366332A (en) * | 2021-01-14 | 2021-02-12 | 爱德曼氢能源装备有限公司 | Quick bonding device of fuel cell bipolar plate |
| CN112642665A (en) * | 2019-10-11 | 2021-04-13 | 律致新能源科技(上海)有限公司 | Automatic glue spreader for fuel cell bipolar plate |
| CN113546815A (en) * | 2021-08-16 | 2021-10-26 | 浙江凯立特医疗器械有限公司 | Film coating equipment for producing high-efficiency implantable biosensor |
-
2019
- 2019-10-11 CN CN201921698684.1U patent/CN211678575U/en active Active
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN112642665A (en) * | 2019-10-11 | 2021-04-13 | 律致新能源科技(上海)有限公司 | Automatic glue spreader for fuel cell bipolar plate |
| CN112366332A (en) * | 2021-01-14 | 2021-02-12 | 爱德曼氢能源装备有限公司 | Quick bonding device of fuel cell bipolar plate |
| CN113546815A (en) * | 2021-08-16 | 2021-10-26 | 浙江凯立特医疗器械有限公司 | Film coating equipment for producing high-efficiency implantable biosensor |
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