Full-automatic production line for signboard
Technical Field
The invention relates to the technical field of processing equipment, in particular to a full-automatic production line of a signboard.
Background
In daily life, the signboard can be seen everywhere, and can be roughly divided into: 1. notice boards, for example: work here, up and down from here, stop, high pressure hazard, careless potholes, direction boards, etc.; 2. banners, such as, for example, banning fireworks, banning people, banning crossings, banning climbing, banning smoking, banning zhen, etc.; 3. a warning board; such as mechanical injury, high pressure risk, injury to the hands, etc.
The signboard production line is mainly used for production research and development of electric power circuit signboards. The electric power signboard is formed by printing a American 3M film and is attached to an aluminum plate. The existing processing mode mostly adopts manual trimming, manual cutting, manual punching and shearing and manual sorting, the production efficiency is low, the labor cost is high, and the consistency of a final product is difficult to guarantee because of large manual operation errors, so that the requirement of actual production cannot be met.
Disclosure of Invention
The invention provides a full-automatic production line of a signboard, which integrates automatic processing such as automatic feeding, automatic positioning, visual edge recognition, automatic edge trimming, automatic strip shearing, automatic punching and shearing, automatic sorting and the like, greatly improves the production efficiency, easily expands the capacity, reduces the labor cost, ensures the consistency of the product quality and meets the production requirement.
In order to solve the technical problems, the invention adopts the following technical scheme:
a full-automatic production line of signboard comprises a positioning platform, a truss manipulator, a rotary platform, a cutting device, a punching and shearing mechanism and a sorting device; during the use, place the material in location platform and fix a position, the material after the truss manipulator will fix a position transports rotary platform department to, rotary platform changes the horizontal position of swivel mount wantonly and realizes the alignment to the four sides of material, then passes through cutting device cutting shaping and by the required angle of branch device rotation, the mechanism is cut to the punching a hole and the board of shearing to the punching and shearing mechanism realization material, carries again to sorting device department, realizes receiving the material.
The positioning platform comprises a positioning seat, wherein a first positioning grid and a second positioning grid which are perpendicular to each other are arranged on the positioning seat, a first moving grid corresponding to the first positioning grid and a first driving mechanism for driving the first moving grid to move towards the first positioning grid are arranged on the positioning seat, a second moving grid corresponding to the second positioning grid and a second driving mechanism for driving the second moving grid to move towards the second positioning grid are further arranged on the positioning seat, and a positioning space is enclosed among the first positioning grid, the second positioning grid, the first moving grid and the second moving grid.
The signboard is placed in the positioning space, the first moving grid and the second moving grid are respectively driven to move through the first driving mechanism and the second driving mechanism, the distance between the first positioning grid and the first moving grid and the distance between the second positioning grid and the second moving grid are changed, the signboard with different sizes can be conveniently positioned, the signboard pasting positioning device is applicable to pasting positioning of various signboard with different sizes, the universality is realized, and the flexibility of signboard positioning is effectively improved.
Furthermore, a positioning frame is arranged inside the positioning seat, the first driving mechanism and the second driving mechanism are both arranged on the positioning frame, a positioning first groove extending in a direction perpendicular to the first positioning grid is formed in the positioning seat, the first driving mechanism drives the first moving grid to move in the positioning first groove, a positioning second groove extending in a direction perpendicular to the second positioning grid is further formed in the positioning seat, and the second driving mechanism drives the second moving grid to move in the positioning second groove.
Further, first actuating mechanism is including fixing a position first power unit, location main sprocket chain subassembly and location auxiliary sprocket chain subassembly all set up along the direction of the first groove of location, the first power unit in location links to each other with location main sprocket chain subassembly, location main sprocket chain subassembly links to each other with location auxiliary sprocket chain subassembly, first removal coral links firmly with the sprocket on the location auxiliary sprocket chain subassembly.
The first power unit is positioned to drive the main chain wheel assembly to work and drive the auxiliary chain wheel assembly to work, so that the first moving fence is driven to move along the first positioning groove, and the distance between the first positioning fence and the first moving fence is changed.
Furthermore, location final drive sprocket chain subassembly is including the first driving shaft of location, location second driving shaft and location final drive chain, be equipped with the first driving sprocket of location on the first driving shaft of location, the first power pack of location links firmly with the first driving sprocket of location is coaxial, be equipped with the second driving sprocket of location on the second driving shaft of location, the both ends of location final drive chain link to each other with the first driving sprocket of location and the second driving sprocket of location respectively.
Further, the quantity of location auxiliary sprocket chain subassembly is two and the symmetry sets up the both sides at first removal coral, location auxiliary sprocket chain subassembly is including fixing a position first driven shaft, location second driven shaft and the vice driving chain in location, fix a position first driven shaft and fix a position the coaxial linking firmly of second driving shaft, be equipped with the first driven sprocket in location on the first driven shaft in location, be equipped with the second driven sprocket in location on the second driven shaft in location, the both ends of the vice driving chain in location link to each other with the first driven sprocket in location and the second driven sprocket in location respectively, the bottom of first removal coral is equipped with the location movable plate, the location movable plate links firmly with the vice driving chain in location.
The positioning first driven shaft is coaxially and fixedly connected with the positioning second driving shaft, and the positioning second driving shaft simultaneously drives the positioning first driven shaft and the positioning second driven shaft to rotate, so that the positioning first driven chain wheel and the positioning second driven chain wheel drive the positioning pair transmission chain to work, the positioning moving plate and the first moving grate are driven to move along the positioning first groove, and the distance between the first positioning grate and the first moving grate is changed; the second driving mechanism and the first driving mechanism have the same structure and principle, and similarly, the distance between the second positioning grid and the second moving grid is changed through the second driving mechanism.
Further, still be equipped with the location gib block on the locating rack, the direction along the first groove of location is extended to the location gib block, the location gib block has been seted up on the location gib block, the bottom of location movable plate is equipped with the location slider, the bottom sliding fit of location slider is in the location gib block. The positioning moving plate is supported by the positioning sliding block, the moving direction of the positioning moving plate is limited by the positioning sliding block, and the moving stability of the positioning moving plate in the positioning first groove is ensured.
The truss manipulator comprises a truss base, a truss moving seat is arranged on the truss base, a truss first moving mechanism is connected between the truss moving seat and the truss base and used for controlling linear movement of the truss moving seat on the horizontal plane, a truss grabbing frame is arranged on the truss moving seat, a truss sucking disc is arranged at the bottom of the truss grabbing frame, a second moving mechanism is connected between the truss grabbing frame and the truss moving seat, and the second moving mechanism is used for controlling longitudinal movement of the truss grabbing frame.
Further, the first moving mechanism of the traveling frame comprises a first servo motor of the traveling frame, a first bevel gear of the traveling frame, a first rack of the traveling frame and a first slide rail of the traveling frame, the first slide rail of the traveling frame is horizontally arranged on the base of the traveling frame, the moving base of the traveling frame is in sliding fit with the first slide rail of the traveling frame, the first servo motor of the traveling frame is fixedly connected to the moving base of the traveling frame, the first bevel gear of the traveling frame is coaxially and fixedly connected with an output shaft of the first servo motor of the traveling frame, the first rack of the traveling frame is parallel to the first slide rail of the traveling frame, and the first rack of the traveling frame is meshed with the first bevel gear of the traveling frame.
Further, the second moving mechanism comprises a second travelling rack servo motor, a second travelling rack bevel gear, a second travelling rack and a second travelling rack slide rail, the second travelling rack slide rail is vertically arranged on the second travelling rack grabbing rack, the second travelling rack moving seat is in sliding fit with the second travelling rack slide rail, the second travelling rack servo motor is fixedly connected to the second travelling rack grabbing rack, the second travelling rack bevel gear is coaxially and fixedly connected with an output shaft of the second travelling rack servo motor, the second travelling rack is parallel to the second travelling rack slide rail, and the second travelling rack is meshed with the second travelling rack bevel gear.
Further, the bottom that the bank snatched the frame has the bank to place the post, the bank is placed the post and is evenly set up along the direction of the first moving mechanism of perpendicular to bank, the bottom that the column was placed to the bank is located to the bank sucking disc, the bottom that the bank snatched the frame is equipped with the bank strengthening rib.
The rotary platform comprises a base, a connecting seat is arranged on the base, a first linear moving mechanism is arranged between the connecting seat and the base, a rotary frame is arranged on the connecting seat, a second linear moving mechanism is arranged between the rotary frame and the connecting seat, the motion direction of the first linear moving mechanism is perpendicular to that of the second linear moving mechanism, and a placing platform is rotatably connected to the rotary frame.
The first linear moving mechanism comprises a first guide rail, a first servo motor, a first screw rod and a first sliding block, the first servo motor is fixedly connected to the base, an output shaft of the first servo motor is coaxially and fixedly connected with the first screw rod, the first sliding block is fixedly connected to the bottom of the connecting seat and in threaded connection with the first screw rod, the first guide rail is parallel to the first screw rod, and the bottom of the connecting seat is in sliding fit with the first guide rail.
Further, second rectilinear movement mechanism includes second guide rail, second servo motor, second lead screw and second slider, second servo motor links firmly on the connecting seat, the last output shaft of second servo motor links firmly with the second lead screw is coaxial, the second slider links firmly in the bottom of swivel mount and with second lead screw threaded connection, the second guide rail is parallel with the second lead screw, the second guide rail is perpendicular with first guide rail, the bottom and the second guide rail sliding fit of swivel mount.
Further, the bottom of placing the platform has linked firmly the column spinner, the column spinner rotates to be connected on the swivel mount, the coaxial rotatory first gear that is equipped with on the column spinner, be equipped with third servo motor on the swivel mount, the last output shaft of third servo motor has rotatory second gear, rotatory first gear and rotatory second gear meshing.
Furthermore, a rotary exhaust pipe is arranged on the rotary frame, a rotary exhaust hole is formed in the top surface of the placing table, and the top end of the rotary exhaust pipe is communicated to the rotary exhaust hole.
Furthermore, wheels are arranged on the periphery of the bottom of the base.
The fixture comprises a fixture underframe, wherein two fixture limiting parts are symmetrically arranged on the fixture underframe, a fixture moving member is arranged between the fixture limiting parts and the fixture underframe, and the fixture moving member is used for driving the fixture limiting parts to move along X and Y axes.
The fixture moving piece is used for driving the two fixture limiting parts to synchronously move along the X axis and the Y axis respectively, the position of the workpiece is fixed, then the workpiece is returned along the X axis and the Y axis, the clamping stability of the workpiece is guaranteed, the machining effect is good, the machining quality of the workpiece is improved, and the machining cost is reduced.
Further, the top end of the clamp limiting part is fixedly connected with a clamp positioning upper claw, the bottom of the clamp limiting part is provided with a clamp lifting cylinder, the output end of the clamp lifting cylinder is connected with a clamp positioning lower claw opposite to the clamp positioning upper claw, and the clamp lifting cylinder is longitudinally telescopic.
Further, the anchor clamps moving member includes anchor clamps first guide rail, anchor clamps second guide rail and anchor clamps driving piece, the first guide rail of anchor clamps links firmly on the anchor clamps chassis and extends along the X axle, one of them anchor clamps locating part sliding connection is on the first guide rail of one of them anchor clamps, anchor clamps second guide rail sliding connection is on another anchor clamps first guide rail, the anchor clamps second guide rail extends along the Y axle, another anchor clamps locating part sliding connection is on this anchor clamps second guide rail, the anchor clamps driving piece is located on the anchor clamps second guide rail and is driven this anchor clamps locating part and remove along the Y axle.
The fixture limiting part slides along the first guide rail of the fixture, is adjusted in the X-axis direction and is aligned with the position of a workpiece, and then the fixture limiting part positioned on the second guide rail of the fixture is driven to move along the Y-axis by the fixture driving part, so that the workpiece is effectively fixed.
Further, the anchor clamps driving piece includes anchor clamps driving seat and anchor clamps drive electric jar, the anchor clamps locating part links firmly on the anchor clamps driving seat, the electric jar links firmly in anchor clamps driving seat bottom, the output and the anchor clamps second guide rail of anchor clamps drive electric jar link to each other. The electric cylinder is driven by the clamp to drive the clamp limiting part to move along the Y axis.
And furthermore, the first guide rail of the clamp is provided with a clamp guide rail electric cylinder, one of the clamp guide rail electric cylinders is fixedly connected with the clamp limiting part, and the other clamp guide rail electric cylinder is fixedly connected with the second guide rail of the clamp. And the electric cylinder of the clamp guide rail is used for controlling the movement of the clamp limiting part along the X axis.
Furthermore, a visual detector is arranged on the cutting device.
Should treat that to promote the preferred aluminum plate of work piece, put aluminum plate on rotary platform, detect the aluminum plate size through the visual detector, joint rotary platform control aluminum plate's rotation, until this four sides all aligns, then by conveyor centre gripping aluminum plate and make it remove to cutting device, see off by the branch mechanism after cutting device cutting, can once only effectively cut aluminum plate's four sides, then see off through the branch mechanism, effectively reduce the manpower, show improvement production efficiency.
The punching and shearing mechanism comprises a punching and shearing machine frame, a punching and shearing feeding device, a punching and shearing positioning platform, a punching device and a plate shearing device, wherein the punching and shearing feeding device, the punching and shearing positioning platform, the punching device and the plate shearing device are arranged on the punching and shearing machine frame; when the punching and shearing machine is used, materials are placed on the punching and shearing positioning platform for positioning, and the punching and shearing feeding device moves the materials to sequentially pass through the punching mechanism and the plate shearing device so as to realize punching and plate shearing of the materials.
Furthermore, the punching and shearing feeding device comprises a feeding and clamping assembly and a feeding driving assembly for driving the feeding and clamping assembly to move along the punching and shearing positioning platform; the feeding clamping assembly comprises a clamping finger cylinder and a clamping block connected with fingers of the clamping finger cylinder; the feeding driving assembly adopts a first synchronous belt mechanism, the feeding clamping assembly is in driving connection with the first synchronous belt mechanism, and the first synchronous belt mechanism extends to the plate shearing device.
Furthermore, the punching shear positioning platform comprises a first positioning platform, a second positioning platform arranged in parallel with the first positioning platform, and a positioning adjusting mechanism for adjusting the width of the first positioning platform and the second positioning platform after the first positioning platform and the second positioning platform are arranged in parallel, and a feeding channel for allowing the feeding clamping assembly to pass through is arranged between the first positioning platform and the second positioning platform;
the first positioning platform and the second positioning platform respectively comprise a bearing plate, an edge stop block connected with the bearing plate and a plurality of positioning blocks arranged on the inner side of the edge stop block; the side stop block is connected with the punching and shearing machine frame in a sliding way by adopting a sliding rail and a sliding sleeve;
the positioning adjusting mechanism comprises an adjusting screw rod with double threads and a motor used for driving the adjusting screw rod to rotate, the edge blocking block is provided with an adjusting connecting block, and the adjusting screw rod is connected with the adjusting connecting block through a nut.
Furthermore, the punching mechanism comprises a first punching die and a second punching die arranged in parallel with the first punching die; the first punching die and the second punching die respectively comprise a punching die holder, a punching die frame, a punching die holder driving mechanism, a punch mechanism and a punch driving mechanism, wherein the punching die frame is arranged on the punching die holder in a sliding mode, the punching die holder driving mechanism is used for driving the punching die frame to transversely move on the punching die holder, the punch mechanism is arranged on the punching die frame in a sliding mode, and the punch driving mechanism is used for driving the punch mechanism to longitudinally move on the punching die frame.
Furthermore, the plate shearing device comprises a plate shearing mounting seat, a cutter mechanism arranged on the plate shearing mounting seat in a sliding manner, and a plate shearing transferring driving mechanism for driving the cutter mechanism to move along the length direction of the plate shearing mounting seat;
the feed end of the cutter mechanism is provided with a guide plate for guiding the material to the cutter for plate cutting.
Furthermore, the punching and shearing mechanism further comprises a second synchronous belt mechanism and an identification device, the feeding end of the second synchronous belt mechanism is located at the discharging end of the plate shearing device, and the identification device is located at the discharging end of the second synchronous belt mechanism.
Further, the punching and shearing mechanism also comprises a branching device; the punching shear feeding device, the punching shear positioning platform, the punching device, the plate shearing device, the recognition device and the second synchronous belt mechanism are arranged in parallel to form two punching shear lines, and the two punching shear lines are distributed on two sides of the discharge end of the direction dividing device in parallel.
Furthermore, the direction dividing device comprises a direction dividing material taking mechanism, a direction dividing rotary driving mechanism and a direction dividing mobile driving mechanism, the direction dividing rotary driving mechanism is used for driving the direction dividing material taking mechanism to rotate, the direction dividing mobile driving mechanism is used for driving the direction dividing material taking mechanism to move, the direction dividing rotary driving mechanism is in driving connection with the direction dividing rotary driving mechanism, and the direction dividing material taking mechanism is in driving connection with the direction dividing rotary driving mechanism.
Furthermore, divide to rotary driving mechanism including connect in branch to the rotary mounting seat of moving driving mechanism, install in the branch of rotary mounting seat to the pivot, with divide to the one end of pivot be connected divide to the connecting block and install in the branch of rotary mounting seat to the cylinder, divide to the piston rod of cylinder and be connected to the connecting block, divide to the extracting mechanism and be connected to the other end of pivot to the branch.
Furthermore, the punching and shearing mechanism also comprises a sorting device, and the sorting device is arranged at the discharge end of the synchronous belt mechanism; the sorting device comprises sorting suckers, a sorting driving mechanism used for driving the sorting suckers to move and a plurality of material placing boxes used for placing materials.
The invention has the beneficial effects that:
1. the automatic edge trimming machine integrates automatic feeding, automatic positioning, visual edge recognition, automatic edge trimming, automatic strip shearing, automatic punching and shearing, automatic sorting and other automatic processing, greatly improves the production efficiency, easily enlarges the capacity, reduces the labor cost, ensures the consistency of the product quality and meets the production requirement.
2. The signboard is placed in the positioning space, the first moving grid and the second moving grid are respectively driven to move through the first driving mechanism and the second driving mechanism, the distance between the first positioning grid and the first moving grid and the distance between the second positioning grid and the second moving grid are changed, the signboard with different sizes can be conveniently positioned, the signboard pasting positioning device is applicable to pasting positioning of various signboard with different sizes, the universality is realized, and the flexibility of signboard positioning is effectively improved.
3. Drive the crane through the first moving mechanism of crane and remove seat horizontal seat linear motion, change the position in its horizontal plane, then change the longitudinal height that the crane snatched the frame through second moving mechanism, be convenient for adjust according to the material position of reality, it is accurate to adjust, then be connected the crane sucking disc with vacuum generator, absorb panel and put corresponding locating platform through the crane sucking disc, do benefit to and avoid the material damage, the material has been protected effectively, the transfer and the transport of material are convenient.
4. Through the combination of the first linear moving mechanism and the second linear moving mechanism, the horizontal position of the rotating frame can be changed at will, the applicability is strong, and the horizontal movement is convenient to realize.
5. The third servo motor is driven to drive the placing table to rotate, the placing of workpieces on the placing table is adjusted according to actual processing requirements, the first linear moving mechanism and the second linear moving mechanism are combined, the rotating precision is high, the applicability is high, horizontal moving is convenient to achieve, and any horizontal placing angle is met.
6. Owing to be equipped with rotatory exhaust tube and rotatory exhaust hole, with the external vacuum air exhaust device of rotatory exhaust tube, aluminum plate puts and places the platform after, aluminum plate covers rotatory exhaust hole, vacuum air exhaust device opens, extract the air of aluminum plate bottom through rotatory exhaust hole and rotatory exhaust tube, make it form the negative pressure, thereby hold aluminum plate, unite through first rectilinear movement mechanism and second rectilinear movement mechanism, drive the swivel mount and remove along X axle and Y axle, the adjustment aluminum plate position, it is rotatory under third servo motor's drive to place the platform, process aluminum plate, place the platform and return the original point, vacuum air exhaust device closes, the negative pressure of aluminum plate bottom is relieved, the subsequent handling of being convenient for.
7. The fixture moving piece is used for driving the two fixture limiting parts to synchronously move along the X axis and the Y axis respectively, the position of the workpiece is fixed, then the workpiece is returned along the X axis and the Y axis, the clamping stability of the workpiece is guaranteed, the machining effect is good, the machining quality of the workpiece is improved, and the machining cost is reduced.
8. The fixture limiting part slides along the first guide rail of the fixture, is adjusted in the X-axis direction and is aligned with the position of a workpiece, and then the fixture limiting part positioned on the second guide rail of the fixture is driven to move along the Y-axis by the fixture driving part, so that the workpiece is effectively fixed.
9. Should treat that to promote the preferred aluminum plate of work piece, put aluminum plate on rotary platform, detect the aluminum plate size through the visual detector, joint rotary platform control aluminum plate's rotation, until this four sides all aligns, then by conveyor centre gripping aluminum plate and make it remove to cutting device, see off by the branch mechanism after cutting device cutting, can once only effectively cut aluminum plate's four sides, then see off through the branch mechanism, effectively reduce the manpower, show improvement production efficiency.
10. The feeding length of the punching and shearing feeding device penetrates to the discharging end of the plate shearing device, the sheet is placed on the punching and shearing positioning platform, the punching and shearing positioning platform positions the sheet, the punching and shearing feeding device drives the sheet to move to the punching device, the punching device punches holes in the sheet, the punching and shearing feeding device continues to drive the sheet to move to the plate shearing device, and the plate shearing device cuts the sheet into plates with required sizes, so that the sheet is automatically processed, and the signboard can be manufactured conveniently. The automatic sheet punching machine disclosed by the invention can be used for carrying out automatic processing such as feeding, punching and cutting on sheets, so that the production efficiency is greatly improved, the productivity is easy to expand, the labor cost is reduced, and the consistency of the product quality is realized so as to meet the production requirements.
Drawings
FIG. 1 is a schematic structural view of a full-automatic signboard production line;
FIG. 2 is a schematic structural diagram of a positioning stage;
FIG. 3 is a schematic view of an assembled configuration of the first and second drive mechanisms;
FIG. 4 is a schematic structural diagram of a first driving mechanism;
FIG. 5 is a schematic structural view of a positioning guide bar;
fig. 6 is a schematic structural diagram of the present gantry robot;
FIG. 7 is a schematic structural view of a first moving mechanism of the traveling frame;
FIG. 8 is a schematic view of a partial structure of a gantry robot;
FIG. 9 is a schematic structural view of a rotary platform;
FIG. 10 is a schematic view of a clip limiting member;
FIG. 11 is a schematic view of the cutting device;
FIG. 12 is a perspective view of the punching and shearing mechanism;
FIG. 13 is a schematic perspective view of the punching shear feeding device and the punching shear positioning platform of the present invention;
FIG. 14 is an enlarged view of the structure at A in FIG. 13;
FIG. 15 is a schematic perspective view of a punching apparatus according to the present invention;
FIG. 16 is a schematic perspective view of a punching apparatus according to the present invention;
FIG. 17 is a schematic perspective view of a plate shearing device according to the present invention;
FIG. 18 is a schematic perspective view of a diverter of the present invention;
FIG. 19 is a schematic partial perspective view of a diverter of the present invention;
description of reference numerals:
100. positioning seats; 1001. a positioning frame; 101. a first positioning grid; 1011. a first moving gate; 102. a second locating grid; 1021. a second moving gate; 103. positioning the first slot; 104. positioning the second slot; 105. positioning a first power unit; 106. positioning the main sprocket chain assembly; 1061. positioning the first driving shaft; 1062. positioning the second driving shaft; 1063. positioning the main transmission chain; 1064. positioning a first drive sprocket; 1065. positioning a second drive sprocket; 107. positioning the auxiliary chain wheel and chain assembly; 1071. positioning a first driven shaft; 1072. positioning a second driven shaft; 1073. positioning the auxiliary transmission chain; 1074. positioning the first driven sprocket; 1075. positioning a second driven sprocket; 108. positioning the moving plate; 109. positioning the guide strip; 110. a positioning guide groove; 111. positioning the sliding block;
200. a traveling rack base; 201. a traveling rack moving seat; 202. a first moving mechanism of the travelling frame; 2021. a first servo motor of the traveling frame; 2022. a first bevel gear of the travelling frame; 2023. a first rack of the traveling rack; 2024. a first slide rail of the traveling frame; 203. a travelling frame grabbing frame; 204. a travelling rack sucker; 2041. a traveling frame second servo motor; 2042. a traveling frame second bevel gear; 2043. a second rack of the travelling frame; 2044. a second slide rail of the travelling frame; 205. a truss placing column; 206. a truss reinforcing rib;
300. a base; 301. a connecting seat; 302. a first linear moving mechanism; 3021. a first guide rail; 3022. a first servo motor; 3023. a first lead screw; 3024. a first slider; 303. a rotating frame; 304. a second linear movement mechanism; 3041. a second guide rail; 3042. a second servo motor; 3043. a second lead screw; 3044. a second slider; 305. a placing table; 306. a spin column; 307. a third servo motor; 308. rotating the air exhaust pipe; 309. rotating the air exhaust hole; 310. a wheel;
500. a fixture base frame; 501. a clamp limiting piece; 502. a clamp moving member; 5021. a clamp first guide rail; 5022. a clamp second guide rail; 5023. a clamp driving member; 50231. a clamp driving seat; 50232. the clamp drives the electric cylinder; 503. positioning an upper claw by a clamp; 504. a clamp lifting cylinder; 505. the clamp positions the lower jaw; 506. a clamp guide rail electric cylinder;
600. a vision detector; 601. a cutting device;
71. a punching and shearing machine frame; 701. a sheet material; 72. a punching shear feeding device; 721. a feeding clamping assembly; 7211. a finger clamping cylinder; 7212. a clamping block; 722. a feed drive assembly; 7221. a first synchronous belt mechanism; 73. punching and shearing a positioning platform; 731. a first positioning platform; 732. a second positioning stage; 733. a positioning adjustment mechanism; 7331. adjusting the screw rod; 734. a carrier plate; 735. an edge stop block; 736. positioning blocks; 737. adjusting the connecting block; 738. a feed channel; 74. a punching device; 741. a first punching die; 742. a second punching die; 743. a punching die holder; 744. a punching die frame; 745. a punching die holder driving mechanism; 746. a punch mechanism; 747. a punch driving mechanism; 75. a plate shearing device; 751. a plate shearing mounting base; 752. a cutter mechanism; 753. a plate shearing transfer driving mechanism; 754. a guide plate; 76. an identification device; 77. a direction dividing device; 771. a material distributing and taking mechanism; 772. a direction-dividing rotation driving mechanism; 7721. rotating the mounting seat; 7722. a direction-dividing rotating shaft; 7723. direction division connecting blocks; 7724. a branch cylinder; 773. a direction-dividing movement driving mechanism; 78. a second synchronous belt mechanism; 79. a sorting device; 791. sorting a sucker; 792. a sorting drive mechanism; 793. and (4) placing the material box.
Detailed Description
In order to facilitate understanding of those skilled in the art, the present invention will be further described with reference to the following examples and drawings, which are not intended to limit the present invention.
As shown in fig. 1 to 19, a full-automatic signboard production line is characterized by comprising a positioning platform, a truss manipulator, a rotating platform, a cutting device, a punching and shearing mechanism and a sorting device.
As shown in fig. 2-4, in the present embodiment, the positioning platform includes a positioning seat 100, a first positioning gate 101 and a second positioning gate 102 are disposed on the positioning seat 100, the positioning seat 100 is disposed with a first moving gate 1011 corresponding to the first positioning gate 101 and a first driving mechanism for driving the first moving gate 1011 to move toward the first positioning gate 101, the positioning seat 100 is further disposed with a second moving gate 1021 corresponding to the second positioning gate 102 and a second driving mechanism for driving the second moving gate 1021 to move toward the second positioning gate 102, and a positioning space is defined between the first positioning gate 101, the second positioning gate 102, the first moving gate 1011 and the second moving gate 1021.
As shown in fig. 1-4, the signboard is placed in the positioning space, the first driving mechanism and the second driving mechanism respectively drive the first moving grid 1011 and the second moving grid 1021 to move, so as to change the distance between the first positioning grid 101 and the first moving grid 1011 and the distance between the second positioning grid 102 and the second moving grid 1021, thereby facilitating the positioning of signboards with different sizes, being applicable to the pasting and positioning of signboards with different sizes, having universality and effectively improving the flexibility of the positioning of the signboards.
In this embodiment, a positioning frame 1001 is disposed inside the positioning seat 100, the first driving mechanism and the second driving mechanism are disposed on the positioning frame 1001, a first positioning groove 103 extending along a direction perpendicular to the first positioning grid 101 is disposed on the positioning seat 100, the first driving mechanism drives the first moving grid 1011 to move in the first positioning groove 103, a second positioning groove 104 extending along a direction perpendicular to the second positioning grid 102 is further disposed on the positioning seat 100, and the second driving mechanism drives the second moving grid 1021 to move in the second positioning groove 104.
As shown in fig. 3, in the present embodiment, the first driving mechanism includes a positioning first power unit 105, a positioning main sprocket chain assembly 106 and a positioning auxiliary sprocket chain assembly 107, the positioning main sprocket chain assembly 106 and the positioning auxiliary sprocket chain assembly 107 are both disposed along the direction of the positioning first slot 103, the positioning first power unit 105 is connected to the positioning main sprocket chain assembly 106, the positioning main sprocket chain assembly 106 is connected to the positioning auxiliary sprocket chain assembly 107, and the first moving gate 1011 is fixedly connected to a sprocket of the positioning auxiliary sprocket chain assembly 107.
The first power unit 105 is positioned as a servo motor, and the first power unit 105 is positioned to drive the main sprocket assembly to work and drive the positioning auxiliary sprocket chain assembly 107 to work, so that the first moving grid 1011 is driven to move along the first positioning groove 103, and the distance between the first positioning grid 101 and the first moving grid 1011 is changed.
As shown in fig. 4, in this embodiment, the positioning main sprocket chain assembly 106 includes a positioning first driving shaft 1061, a positioning second driving shaft 1062 and a positioning main driving chain 1063, the positioning first driving shaft 1061 is provided with a positioning first driving sprocket 1064, the positioning first power unit 105 is coaxially and fixedly connected to the positioning first driving sprocket 1064, the positioning second driving shaft 1062 is provided with a positioning second driving sprocket 1065, and two ends of the positioning main driving chain 1063 are respectively connected to the positioning first driving sprocket 1064 and the positioning second driving sprocket 1065.
As shown in fig. 2-4, in this embodiment, two positioning auxiliary sprocket chain assemblies 107 are symmetrically disposed on two sides of the first moving gate 1011, each positioning auxiliary sprocket chain assembly 107 includes a positioning first driven shaft 1071, a positioning second driven shaft 1072 and a positioning auxiliary driving chain 1073, the positioning first driven shaft 1071 is coaxially and fixedly connected to the positioning second driving shaft 1062, the positioning first driven shaft 1071 is provided with a positioning first driven sprocket 1074, the positioning second driven shaft 1072 is provided with a positioning second driven sprocket 1075, two ends of the positioning auxiliary driving chain 1073 are respectively connected to the positioning first driven sprocket 1074 and the positioning second driven sprocket 1075, the bottom of the first moving gate 1011 is provided with a positioning moving plate 108, and the positioning moving plate 108 is fixedly connected to the positioning auxiliary driving chain 1073.
Because the positioning first driven shaft 1071 is coaxially and fixedly connected with the positioning second driving shaft 1062, the positioning second driving shaft 1062 simultaneously drives the positioning first driven shaft 1071 and the positioning second driven shaft 1072 to rotate, so that the positioning first driven chain wheel 1074 and the positioning second driven chain wheel 1075 drive the positioning pair transmission chain 1073 to work, the positioning moving plate 108 and the first moving grid 1011 are driven to move along the positioning first groove 103, and the distance between the first positioning grid 101 and the first moving grid 1011 is changed; the second driving mechanism has the same structure and principle as the first driving mechanism, and similarly, the distance between the second positioning grid 102 and the second moving grid 1021 is changed by the second driving mechanism.
As shown in fig. 5, in this embodiment, the positioning frame 1001 is further provided with a positioning guide bar 109, the positioning guide bar 109 extends along the direction of the positioning first groove 103, the positioning guide bar 109 is provided with a positioning guide groove 110, the bottom of the positioning moving plate 108 is provided with a positioning slider 111, and the bottom end of the positioning slider 111 is slidably fitted in the positioning guide groove 110. The positioning moving plate 108 is supported by the positioning slider 111, and the moving direction of the positioning moving plate 108 is limited by the positioning slider 111, so that the moving stability of the positioning moving plate in the positioning first groove 103 is ensured.
As shown in fig. 6, in this embodiment, the rack robot includes a rack base 200, a rack moving seat 201 is disposed on the rack base 200, a rack first moving mechanism 202 is connected between the rack moving seat 201 and the rack base 200, the rack first moving mechanism 202 is used for controlling the linear movement of the rack moving seat 201 on a horizontal plane, a rack grabbing frame 203 is disposed on the rack moving seat 201, a rack suction cup 204 is disposed at the bottom of the rack grabbing frame 203, a second moving mechanism is connected between the rack grabbing frame 203 and the rack moving seat 201, and the second moving mechanism is used for controlling the longitudinal movement of the rack grabbing frame 203.
As shown in fig. 6-8, the first moving mechanism 202 of the row frame drives the row frame moving seat 201 to move linearly to change the position in the horizontal plane, then the vertical height of the row frame grabbing frame 203 is changed through the second moving mechanism, so that the adjustment can be conveniently carried out according to the actual material position, the adjustment is accurate, then the row frame sucker 204 is connected with a vacuum generator, the plate is sucked through the row frame sucker 204 and is placed on a corresponding positioning platform, the damage to the material is avoided, the material is effectively protected, and the material is convenient to transfer and convey.
As shown in fig. 7, in this embodiment, the first moving mechanism 202 includes a first servo motor 2021, a first bevel gear 2022, a first rack 2023 and a first slide rail 2024, the first slide rail 2024 is horizontally disposed on the base 200, the moving base 201 is slidably fitted on the first slide rail 2024, the first servo motor 2021 is fixed to the moving base 201, the first bevel gear 2022 is coaxially fixed to an output shaft of the first servo motor 2021, the first rack 2023 is parallel to the first slide rail 2024, and the first rack 2023 is engaged with the first bevel gear 2022. Under the meshing action of the first rack 2023 of the traveling frame and the first bevel gear 2022 of the traveling frame, the first servo motor 2021 of the traveling frame is driven to drive the horizontal seat of the traveling frame moving seat 201 to move linearly, so as to change the horizontal position of the traveling frame grabbing frame 203.
As shown in fig. 8, in this embodiment, the second moving mechanism includes a second rack servo motor 2041, a second rack bevel gear 2042, a second rack gear 2043 and a second rack slide rail 2044, the second rack slide rail 2044 is vertically disposed on the second rack grabbing frame 203, the second rack moving base 201 is in sliding fit with the second rack slide rail 2044, the second rack servo motor 2041 is fixedly connected to the second rack grabbing frame 203, the second rack bevel gear 2042 is coaxially and fixedly connected to an output shaft of the second rack servo motor 2041, the second rack gear 2043 is parallel to the second rack slide rail 2044, and the second rack gear 2043 is engaged with the second rack bevel gear 2042. Under the meshing action of the second rack 2043 and the second bevel gear 2042, the second servo motor 2041 drives the second rack 203 to move longitudinally, so that the longitudinal height of the second rack 203 can be changed conveniently.
As shown in fig. 8, in the present embodiment, the bottom end of the row frame grabbing frame 203 is provided with row frame placing columns 205, the row frame placing columns 205 are uniformly arranged along a direction perpendicular to the row frame first moving mechanism 202, and the row frame suction cups 204 are arranged at the bottom of the row frame placing columns 205. The number of the row frame suckers 204 is increased, and the grabbing range of the row frame suckers 204 is effectively improved.
As shown in fig. 6, in this embodiment, a bottom end of the truss grabbing frame 203 is provided with a truss reinforcing rib 206, which is convenient for improving the installation stability of the truss grabbing frame 203.
As shown in fig. 9, in this embodiment, the rotating platform includes a base 300, a connecting seat 301 is disposed on the base 300, a first linear moving mechanism 302 is disposed between the connecting seat 301 and the base 300, a rotating frame 303 is disposed on the connecting seat 301, a second linear moving mechanism 304 is disposed between the rotating frame 303 and the connecting seat 301, the first linear moving mechanism 302 and the second linear moving mechanism 304 have a vertical moving direction, and a placing platform 305 is rotatably connected to the rotating frame 303.
Through the combination of the first linear moving mechanism 302 and the second linear moving mechanism 304, the horizontal position of the rotating frame 303 can be changed at will, the applicability is strong, and the horizontal movement is convenient to realize.
In this embodiment, the first linear moving mechanism 302 includes a first guide rail 3021, a first servo motor 3022, a first screw rod 3023, and a first slider 3024, the first servo motor 3022 is fixedly connected to the base 300, an output shaft of the first servo motor 3022 is coaxially and fixedly connected to the first screw rod 3023, the first slider 3024 is fixedly connected to the bottom of the connecting seat 301 and is in threaded connection with the first screw rod 3023, the first guide rail 3021 is parallel to the first screw rod 3023, and the bottom of the connecting seat 301 is in sliding fit with the first guide rail 3021. The first screw rod 3023 is driven to rotate by the first servo motor 3022, and under the action of the first slider 3024 and the first screw rod 3023, the first slider 3024 and the connecting seat 301 are driven to move along the moving direction of the first linear moving mechanism 302, so that the connecting seat 301 is moved.
In this embodiment, the second linear moving mechanism 304 includes a second guide rail 3041, a second servo motor 3042, a second lead screw 3043 and a second slider 3044, the second servo motor 3042 is fixedly connected to the connecting base 301, an output shaft of the second servo motor 3042 is coaxially and fixedly connected to the second lead screw 3043, the second slider 3044 is fixedly connected to the bottom of the rotating frame 303 and is in threaded connection with the second lead screw 3043, the second guide rail 3041 is parallel to the second lead screw 3043, the second guide rail 3041 is perpendicular to the first guide rail 3021, and the bottom of the rotating frame 303 is in sliding fit with the second guide rail 3041. The second screw 3043 is driven by the second servo motor 3042 to rotate, and under the action of the second slider 3044 and the second screw 3043, the second slider 3044 and the rotating frame 303 are driven to move along the moving direction of the second linear moving mechanism 304, so as to move the rotating frame 303, and thus the rotating frame 303 can move freely in the horizontal plane.
As shown in fig. 9, in this embodiment, a rotary column 306 is fixedly connected to the bottom of the placing table 305, the rotary column 306 is rotatably connected to the rotary frame 303, a rotary first gear is coaxially arranged on the rotary column 306, a third servo motor 307 is arranged on the rotary frame 303, an output shaft of the third servo motor 307 is connected to a rotary second gear, and the rotary first gear is engaged with the rotary second gear.
As shown in fig. 9, the third servo motor 307 is driven to drive the placing table 305 to rotate, which is beneficial to adjusting the placing of the aluminum plate on the placing table 305 according to the actual processing requirement, the first linear moving mechanism 302 and the second linear moving mechanism 304 have high rotation precision and strong applicability, and are convenient for realizing horizontal movement, and any horizontal placing angle is satisfied.
In this embodiment, the rotary frame 303 is provided with a rotary air pumping pipe 308, the top surface of the placing table 305 is provided with a rotary air pumping hole 309, and the top end of the rotary air pumping pipe 308 is communicated with the rotary air pumping hole 309.
As shown in fig. 9-10, a vacuum pumping device is externally connected to the rotary pumping tube 308, after the aluminum plate is placed on the placing table 305, the aluminum plate covers the rotary pumping hole 309, the vacuum pumping device is opened, air at the bottom of the aluminum plate is pumped through the rotary pumping hole 309 and the rotary pumping tube 308 to form negative pressure, so that the aluminum plate is sucked, the first linear moving mechanism 302 and the second linear moving mechanism 304 are combined to drive the rotating frame 303 to move along the X axis and the Y axis, the position of the aluminum plate is adjusted, the placing table 305 is driven by the third servo motor 307 to rotate, the aluminum plate is machined, the placing table 305 is returned to the original point, the vacuum pumping device is closed, the negative pressure at the bottom of the aluminum plate is released, and subsequent treatment is facilitated. In this embodiment, the wheels 310 are disposed around the bottom of the base 300, so as to facilitate the movement of the base 300.
As shown in fig. 9 to 10, in the present embodiment, the fixture includes a fixture bottom frame 500, two fixture position-limiting members 501 are symmetrically disposed on the fixture bottom frame 500, a fixture moving member 502 is disposed between the fixture position-limiting members 501 and the fixture bottom frame 500, and the fixture moving member 502 is used for driving the fixture position-limiting members 501 to move along the X and Y axes.
The two clamp limiting parts 501 are driven by the clamp moving part 502 to move along the X axis and the Y axis synchronously, the position of the workpiece is fixed, and then the workpiece returns along the X axis and the Y axis, so that the clamping stability of the workpiece is guaranteed, the machining effect is good, the machining quality of the workpiece is improved, and the machining cost is reduced.
The top end of the clamp limiting piece 501 is fixedly connected with a clamp positioning upper claw 503, the bottom of the clamp limiting piece 501 is provided with a clamp lifting cylinder 504, the output end of the clamp lifting cylinder 504 is connected with a clamp positioning lower claw 505 opposite to the clamp positioning upper claw 503, and the clamp lifting cylinder 504 longitudinally extends and retracts.
The fixture positioning upper claw 503 is driven by the fixture lifting cylinder 504 to move back and forth between two points along the vertical direction, when the fixture positioning upper claw 503 is positioned at the top end position, a workpiece is clamped, the clamping stability is strong, and the two fixture limiting parts 501 are driven by the fixture moving part 502 to synchronously move along the X axis and the Y axis respectively; when the upper positioning claw 503 of the fixture is located at the bottom position, the fixture limiting member 501 returns, so that the processing quality of the workpiece is improved, and the processing cost is reduced.
As shown in fig. 9-10, the clamp moving member 502 includes a first clamp guide rail 5021, a second clamp guide rail 5022, and a clamp driving member 5023, wherein the first clamp guide rail 5021 is fixedly connected to the clamp chassis 500 and extends along the X-axis, one of the clamp stoppers 501 is slidably connected to one of the first clamp guide rails 5021, the second clamp guide rail 5022 is slidably connected to the other first clamp guide rail 5021, the second clamp guide rail 5022 extends along the Y-axis, the other clamp stopper 501 is slidably connected to the second clamp guide rail 5022, and the clamp driving member 5023 is disposed on the second clamp guide rail 5022 and drives the clamp stopper 501 to move along the Y-axis.
The clamp limiting part 501 slides along the first clamp guide rail 5021, is adjusted in the X-axis direction and is aligned with the position of the workpiece, and then the clamp limiting part 501 on the second clamp guide rail 5022 is driven by the clamp driving part 5023 to move along the Y-axis, so that the workpiece is effectively fixed.
The clamp driving piece 5023 comprises a clamp driving seat 50231 and a clamp driving electric cylinder 50232, the clamp limiting piece 501 is fixedly connected to the clamp driving seat 50231, the electric cylinder is fixedly connected to the bottom of the clamp driving seat 50231, and the output end of the clamp driving electric cylinder 50232 is connected with a second clamp guide rail 5022. The clamp driving electric cylinder 50232 drives the clamp limiting part 501 to move along the Y axis.
The first clamp guide rail 5021 is provided with clamp guide rail electric cylinders 506, one of the clamp guide rail electric cylinders 506 is fixedly connected with the clamp limiting part 501, and the other clamp guide rail electric cylinder 506 is fixedly connected with the second clamp guide rail 5022. The movement of the clamp stop 501 along the X-axis is controlled by a clamp rail cylinder 506.
As shown in fig. 9-11, the workpiece to be lifted is preferably an aluminum plate, the aluminum plate is placed on a rotating platform, the size of the aluminum plate is detected by a vision detector 600, the rotating platform is combined to control the rotation of the aluminum plate until the four sides are aligned, then the aluminum plate is clamped by a conveying device and moved to a cutting device 601, and the aluminum plate is sent out by a branch mechanism after being cut by the cutting device 601.
Referring to fig. 12 to 19, the present embodiment provides a punching and shearing mechanism, which includes a punching and shearing frame 71, a punching and shearing feeding device 72 disposed on the punching and shearing frame 71, a punching and shearing positioning platform 73, a punching device 74, and a plate shearing device 75; when the punching and shearing machine is used, materials are placed on the punching and shearing positioning platform 73 for positioning, and the punching and shearing feeding device 72 moves the materials to sequentially pass through the punching mechanism 74 and the plate shearing device 75 so as to realize punching and plate shearing of the materials. As shown in fig. 1 and 4, in this embodiment, the material is a sheet 701, a feeding length of the punching and shearing feeding device 72 penetrates through a discharging end of the plate shearing device 75, the sheet 701 is placed on the punching and shearing positioning platform 73, the punching and shearing positioning platform 73 positions the sheet 701, the punching and shearing feeding device 72 drives the sheet 701 to move to the punching device 74, the punching device 74 punches a hole in the sheet 701, the punching and shearing feeding device 72 continues to drive the sheet 701 to move to the plate shearing device 75, and the plate shearing device 75 cuts the sheet 701 into a plate with a required size, so that the sheet 701 is automatically processed to manufacture the signboard. According to the invention, automatic processing such as feeding, punching and cutting is carried out on the sheet 701, so that the production efficiency is greatly improved, the productivity is easy to expand, the labor cost is reduced, and the consistency of the product quality is realized so as to meet the production requirement.
As shown in fig. 12, 13 and 14, in the present embodiment, the punching and shearing feeding device 72 includes a feeding clamping assembly 721 and a feeding driving assembly 722 for driving the feeding clamping assembly 721 to move along the punching and shearing positioning platform 73; the feeding clamping assembly 721 is used for clamping the sheet 701, and the feeding driving assembly 722 is used for driving the feeding clamping assembly 721 and the sheet 701 to move so as to realize reliable feeding. Specifically, the feeding clamping assembly 721 comprises a clamping finger cylinder 7211 and a clamping block 7212 connected with fingers of the clamping finger cylinder 7211, and is convenient to control and reliable in material clamping; the feeding driving assembly 722 adopts a first synchronous belt mechanism 7221, the feeding clamping assembly 721 is in driving connection with the first synchronous belt mechanism 7221, and the first synchronous belt mechanism 7221 extends to the discharge end of the plate shearing device 75. The first timing belt mechanism 7221 transmits smoothly, and can satisfy long-distance transmission.
As shown in fig. 12 and 13, the punching and shearing positioning platform 73 includes a first positioning platform 731, a second positioning platform 732 arranged in parallel with the first positioning platform 731, and a positioning adjustment mechanism 733 for adjusting the widths of the first positioning platform 731 and the second positioning platform 732 after being arranged in parallel, and a feeding channel 738 for allowing the feeding and clamping assembly 721 to pass through is arranged between the first positioning platform 731 and the second positioning platform 732;
specifically, the first positioning platform 731 and the second positioning platform 732 each include a carrier plate 734, a side stopper 735 connected to the carrier plate 734, and a plurality of positioning blocks 736 disposed inside the side stopper 735; the side stop block 735 is in sliding connection with the punching and shearing machine frame 71 through a sliding rail and a sliding sleeve; positioning adjustment mechanism 733 is including being provided with the adjusting screw 7331 of double thread and being used for driving adjusting screw 7331 pivoted motor, limit dog 735 is provided with adjusts connecting block 737, adjusting screw 7331 adopts the nut to be connected with adjusting connecting block 737. When the sheet 701 is placed on the carrying plate 734, the motor drives the adjusting screw 7331 to rotate, so as to drive the positioning blocks 736 of the stoppers 735 at two sides to position the sheet 701, thereby facilitating the punching and shearing feeding device 72 to feed the positioned sheet 701 into the punching device 74 for punching. The punching shear positioning platform 73 is convenient and reliable in positioning, and a feeding channel 738 is reserved between the first positioning platform 731 and the second positioning platform 732, so that the punching shear positioning platform can feed materials in cooperation with the punching shear feeding device 72, feeding is accurate, deviation is small, and product quality is guaranteed.
As shown in fig. 12, 15 and 16, in the present embodiment, the punching mechanism 74 includes a first punching die 7 and a second punching die 742 juxtaposed to the first punching die 741; each of the first punching die 741 and the second punching die 742 comprises a punching die holder 743, a punching die holder 744 slidably disposed on the punching die holder 743, a punching die holder driving mechanism 745 used for driving the punching die holder 744 to move transversely on the punching die holder 743, a punch mechanism 746 slidably disposed on the punching die holder 744, and a punch driving mechanism 747 used for driving the punch mechanism 746 to move longitudinally on the punching die holder 744. In actual use, the punching die holder driving mechanism 745 can drive the punching die holder 744 to move transversely, so as to adjust the position of the punch mechanism 746 in transverse punching; the punch driver 747 may drive the punch mechanism 746 to move in the longitudinal direction, thereby adjusting the position of the punch mechanism 746 in the longitudinal direction to accommodate punching of different sizes and types of sheets 701. The punch mechanism 746 may be implemented by selecting an existing punch mechanism, and selecting the type and size of the punch as required, and both the punch die holder driving mechanism 745 and the punch driving mechanism 747 may be implemented by combining an existing motor with a screw nut structure, an air cylinder, an electric cylinder, and other mechanisms, which belong to the prior art and are not described in detail.
As shown in fig. 12 and 17, the plate shearing device 75 includes a plate shearing mounting seat 751, a cutter mechanism 752 slidably mounted on the plate shearing mounting seat 751, and a plate shearing transfer driving mechanism 753 for driving the cutter mechanism 752 to move along a longitudinal direction of the plate shearing mounting seat 751; the feed end of the cutter mechanism 752 is provided with a guide plate 754 for guiding the material to the cutter for plate cutting. After the sheet 701 is punched, the punching shear feeder 72 feeds the sheet 701 from the guide plate 754 to the cutter mechanism 752, and the cutter mechanism 752 cuts the sheet 701 into sheets of a desired size. The plate shearing and transferring driving mechanism 753 can drive the cutter mechanism 752 to move, so that the cutter mechanism 752 can be moved to adjust the cutting length of the plate, and the plate with different sizes and specifications can be conveniently cut. In actual use, the cutter mechanism 752 can be implemented by using a conventional shearing and cutting mechanism, and the plate shearing transfer driving mechanism 753 can be implemented by using a conventional motor in combination with a screw nut structure, an air cylinder, an electric cylinder and other mechanisms, and belongs to the prior art, and therefore, the description thereof is omitted.
As shown in fig. 12, in this example, the punching and shearing mechanism further includes a second synchronous belt mechanism 78 and an identification device 76, a feeding end of the second synchronous belt mechanism 78 is connected to a discharging end of the plate shearing device 75, and the identification device 76 is located at the discharging end of the second synchronous belt mechanism 78. In practical use, the second synchronous belt mechanism 78 may be implemented by using an existing synchronous belt, and the identification device 76 is configured to identify whether the second synchronous belt mechanism 78 has a material characteristic, and may use an existing CCD identification technology or a photoelectric sensor, etc., which all belong to the prior art, and therefore are not described in detail.
As shown in fig. 12, in this example, the punching mechanism further includes a branching device 77; the punching shear feeding device 72, the punching shear positioning platform 73, the punching device 74, the plate shearing device 75, the recognition device 76 and the synchronous belt mechanism 78 are all arranged in parallel to form two punching shear lines, and the two punching shear lines are distributed on two sides of the discharge end of the direction dividing device 77 in parallel. When the sheet material punching and shearing device is used, the sheet material 701 is divided by the dividing device 77, and the sheet material 701 is moved to one punching and shearing line for processing.
As shown in fig. 12, 18 and 19, in this example, the direction dividing device 77 includes a direction dividing and taking mechanism 771, a direction dividing and rotating drive mechanism 772 for driving the direction dividing and taking mechanism 771 to rotate, and a direction dividing and moving drive mechanism 773 for driving the direction dividing and taking mechanism 771 to move, the direction dividing and rotating drive mechanism 772 is in driving connection with the direction dividing and moving drive mechanism 773, and the direction dividing and taking mechanism 771 is in driving connection with the direction dividing and rotating drive mechanism 772.
In practical use, the branch direction moving driving mechanism 773 drives the branch direction taking mechanism 771 and the branch direction rotating driving mechanism 772 to move above the sheet 701, the branch direction taking mechanism 771 grabs or sucks the sheet 701, the branch direction taking mechanism 771 and the sheet 701 are driven by the branch direction rotating driving mechanism 772 to rotate together to a required angle, and then the sheet 701 is placed on the punching shear positioning platform 73. The direction-dividing movement driving mechanism 773 can be realized by an existing X-axis single-axis, XY-axis or XYZ-axis three-axis driving mechanism as required, and the direction-dividing material-taking mechanism 771 can be realized by an existing sucker mechanism, so that the description is omitted.
Specifically, the direction dividing rotary driving mechanism 772 includes a rotary mounting seat 7721 connected to the direction dividing movable driving mechanism 773, a direction dividing rotary shaft 7722 installed on the rotary mounting seat 7721, a direction dividing connecting block 7723 connected to one end of the direction dividing rotary shaft 7722, and a direction dividing cylinder 7724 installed on the rotary mounting seat 7721, a piston rod of the direction dividing cylinder 7724 is connected to the direction dividing connecting block 7723, and the direction dividing material taking mechanism 771 is connected to the other end of the direction dividing rotary shaft 7722. During actual work, the direction dividing cylinder 7724 drives the direction dividing connecting block 7723 to swing, the direction dividing connecting block 7723 drives the direction dividing rotating shaft 7722 to rotate, the direction dividing material taking mechanism 771 and the sheet 701 are driven to rotate 90 degrees, and the sheet 701 is conveniently moved to a punching and shearing line to be processed after the direction of the sheet 701 is adjusted. The direction-dividing rotary driving mechanism 772 is stable and reliable in structure, low in cost and convenient to control.
As shown in fig. 12, in the present embodiment, the punching and shearing mechanism further includes a sorting device 79, and the sorting device 79 is disposed at the discharge end of the synchronous belt mechanism 78; the sorting device 79 comprises sorting suckers 791, a sorting driving mechanism 792 for driving the sorting suckers 791 to move, and a plurality of material placing boxes 793 for placing materials. When the sheet 701 is cut into sheets of a desired size and conveyed to the sorting device 79 by the second timing belt mechanism 78, the sheet is detected by the recognition device 76, and the sorting driving mechanism 792 drives the sorting suction cups 791 to suck the sheets into the discharge box 793 for receiving.
The sorting driving mechanism 92 can be implemented by using an existing X-axis single-axis, XY-axis, or XYZ-three-axis driving mechanism as required, and thus, the detailed description thereof is omitted.
The working principle is as follows: during the use, place the material in the location platform and fix a position, the material after the truss manipulator will fix a position transports to rotary platform department, rotary platform changes the horizontal position of swivel mount wantonly and realizes the alignment to the four sides of material, then through cutting device cutting shaping and by the required angle of the device rotation of branch to, through punching shear mechanism realize punching a hole and cut the board of material, carry again to sorting device department, realize receiving the material, it has integrated automatic feeding, automatic positioning, visual identification limit, automatic edging, automatically cropped rectangular, automatic punching shear and automated processing such as automatic sorting, the production efficiency is greatly improved, the productivity is easily enlarged, the human cost is reduced, the uniformity of product quality has been guaranteed, in order to satisfy the demand of production.
All the technical features in the embodiment can be freely combined according to actual needs.
The above embodiments are preferred implementations of the present invention, and other implementations are also included, and any obvious substitutions are within the scope of the present invention without departing from the spirit of the present invention.