Automatic nesting high-frequency panel production line

Abstract

The present invention discloses an automatic nesting high-frequency panel production line, comprising a high-frequency panel machine main unit, which is provided with a high-frequency generator and a hydraulic system; the feeding end of the high-frequency panel machine main unit is provided with a high-frequency panel machine feeding rack, and the high-frequency panel machine feeding rack is provided with a clip-type flip loading system; the discharging end of the high-frequency panel machine main unit is provided with a discharging chain plate, the high-frequency panel machine main unit is provided with a discharging transmission motor, a transverse translation discharging device is provided behind the discharging chain plate, and a hydraulic lifting platform is provided beside the transverse translation discharging device. The present invention can automatically connect the slats and send them into the high-frequency panel machine main unit for heating and splicing. The spliced ​​plates enter the transverse translation discharging device through the discharging chain plate for discharging, thereby realizing automatic feeding and discharging of the high-frequency panel machine, eliminating the need for manual handling of plates, reducing the labor intensity of employees, and improving the efficiency of plate splicing.

Description

Technical Field

[0001] The present invention relates to the technical field of high-frequency panel machines, and more specifically to an automatic nesting high-frequency panel production line. Background Art

[0002] The high-frequency paneling machine uses a high-frequency generator to heat the glue-coated strips, and uses a splicing platform with vertical pressure and lateral pressure to achieve the splicing of wood.

[0003] At present, the high-frequency panel machines on the market all require manual arrangement of the slats, and then transport them to the main machine for heating. After heating, the materials are discharged through the discharging chain plate, and the panels are then manually transported to the discharging platform. Since both feeding and discharging require manual handling, not only is the labor intensity of employees relatively high, but the efficiency of panel splicing is also relatively low. Especially when transporting the spliced ​​panels, not only are there high-temperature waste heat from the high-frequency panel machine on the discharged panels, but the spliced ​​panels are also heavy, which not only consumes a lot of physical strength of employees, but also easily causes the risk of burns, posing a huge safety hazard. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to provide an automatic nesting high-frequency panel production line, which can automatically feed and discharge materials to a high-frequency panel machine, reduce the labor intensity of employees, and improve the efficiency of panel splicing.

[0005] In order to solve the above technical problems, the technical solutions adopted by the present invention are as follows.

[0006] The automatic nesting high-frequency panel production line includes a high-frequency panel machine main body for heating the arranged panels, and the high-frequency panel machine main body is provided with a high-frequency generator and a hydraulic system; the feeding end of the high-frequency panel machine main body is provided with a high-frequency panel machine feeding rack, and the high-frequency panel machine feeding rack is provided with a clip-type flip loading system for automatically feeding the high-frequency panel machine main body; the discharging end of the high-frequency panel machine main body is provided with a discharging chain plate, and the high-frequency panel machine main body is provided with a discharging transmission motor for driving the discharging chain plate to convey the panels, and a horizontal translation discharging device for automatic discharging is provided behind the discharging chain plate, and a hydraulic lifting platform for placing the discharging panels is provided next to the horizontal translation discharging device, and a hydraulic cylinder for driving the hydraulic lifting platform to rise and fall is provided at the bottom of the hydraulic lifting platform.

[0007] To further optimize the technical solution, the clip-type flip feeding system includes a feeding frame, a flip feeding beam for loading is provided on the feeding frame, a number of main clips for placing plates are provided on the flip feeding beam, and a flip feeding cylinder for driving the flip feeding beam to flip is provided at the side end of the feeding frame; a pushing mechanism for pushing the plates is provided below the flip feeding beam; a movable main clip guardrail is vertically provided on the feeding frame and is adjacent to the flipped flip feeding beam after flipping, an upper pressure floating beam is provided above the movable main clip guardrail through a fixed bracket, and an upper pressure clamping column for pressing the plates downward is provided at the bottom of the upper pressure floating beam; an auxiliary clip and pressing mechanism for conveying spliced ​​plates and placing partitions in the middle of the plates is provided behind the movable main clip guardrail.

[0008] To further optimize the technical solution, the back of the movable main magazine guard is hinged with an adjustable guard for adjusting the thickness of the plate through a number of connecting rods, a guard adjustment handwheel for adjusting the guard height is provided above the adjustable guard, a feed limit mechanism for limiting the plate is provided at the bottom of the adjustable guard, and a moving guide rail for connecting the pressing beam of the auxiliary magazine and pressing mechanism is provided on the back of the adjustable guard.

[0009] To further optimize the technical solution, the auxiliary magazine and pressing mechanism includes an auxiliary magazine and pressing mechanism frame arranged behind the movable main magazine guard through a movable block, and auxiliary magazines and slides are arranged on both sides of the rear of the auxiliary magazine and pressing mechanism frame, tilted downward, and the lower ends of the auxiliary magazine and slides are facing the movable main magazine guard. An auxiliary magazine lifting cylinder for adjusting the inclination angle of the auxiliary magazine and slide is provided on the auxiliary magazine and pressing mechanism frame, and a suction cup loading mechanism for placing the partition into the middle of the spliced ​​plate is provided on the auxiliary magazine and pressing mechanism frame located above the lower end of the auxiliary magazine and slide.

[0010] To further optimize the technical solution, the suction cup loading mechanism includes a suction cup mounting bracket arranged above the auxiliary magazine and the lower end of the slide through an inverted L-shaped bracket, the suction cup mounting bracket is provided with a suction cup for adsorbing the partition, and the inverted L-shaped bracket is provided with a suction cup lifting cylinder for driving the suction cup mounting bracket to move up and down.

[0011] To further optimize the technical solution, a horizontal track is provided on the auxiliary magazine and pressing mechanism frame, a slider that moves along the horizontal track is provided on the top of the inverted L-shaped bracket, and a horizontal moving cylinder of the suction cup mechanism is provided on the auxiliary magazine and pressing mechanism frame for driving the suction cup mounting bracket to move forward and backward.

[0012] To further optimize the technical solution, the horizontal translation discharging device includes a discharging frame arranged behind the discharging chain plate, the discharging frame is provided with a non-powered roller and several powered rollers, the non-powered roller is close to the discharging chain plate of the high-frequency panel assembly machine, and the powered roller is driven by a powered roller transmission motor located on the discharging frame; a first translation rail and a second translation rail for the horizontal movement of the discharging frame are arranged in parallel on the ground below the discharging frame, and a discharging frame support roller that moves along the first translation rail and the second translation rail is arranged at the bottom of the discharging frame, and a frame translation mechanism for driving the discharging frame to move along the translation rail is provided between the discharging frame and the translation rail; a pushing trolley is provided above the discharging frame towards the side end of the discharging frame through a pushing trolley transmission mechanism, and the pushing trolley is located above the powered roller; the front end of the pushing trolley is provided with a discharging pushing plate beam for pushing the plate through a pushing cylinder; the rear end and side ends of the discharging frame are provided with guard plates.

[0013] To further optimize the technical solution, the frame translation mechanism includes a translation transmission rack arranged in the middle of the first translation rail and the second translation rail, a translation transmission motor is provided at the bottom of the discharging frame, and a gear meshing with the translation transmission rack is provided on the motor shaft of the translation transmission motor.

[0014] To further optimize the technical solution, the pusher trolley transmission mechanism includes gears arranged on the front and rear sides of the running direction of the discharging frame, the gears are meshed with racks, the pusher trolley is set on the rack through a mounting block, and the discharging frame is provided with a transmission motor for driving the gears to rotate.

[0015] To further optimize the technical solution, a lower baffle is provided at the front end of the discharging rack, and a lower baffle lifting cylinder for driving the lower baffle to move up and down is provided below the front end of the discharging rack; a cross beam is provided above the front end of the discharging rack, an upper baffle is provided below the cross beam, and an upper baffle lifting cylinder for driving the upper baffle to move up and down is provided on the cross beam.

[0016] Due to the adoption of the above technical solution, the technical progress achieved by the present invention is as follows.

[0017] The automatic arrangement and high-frequency panel production line provided by the present invention can automatically connect the strips and send them into the high-frequency panel machine main unit for heating and splicing. The spliced ​​panels enter the horizontal translation discharging device through the discharging chain plate for discharging, thereby realizing automatic feeding and discharging of the high-frequency panel machine. There is no need for manual handling of panels, which reduces the labor intensity of employees and improves the efficiency of panel splicing. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a structural schematic diagram of the present invention;

[0019] Figure 2It is a structural schematic diagram of the clip-type flip feeding system of the present invention;

[0020] Figure 3 It is a structural schematic diagram of the magazine flipping and leaning against the fence of the present invention;

[0021] Figure 4 This is a schematic structural diagram of the movable magazine support grid of the present invention;

[0022] Figure 5 It is a structural schematic diagram of the auxiliary magazine and material pressing mechanism of the present invention;

[0023] Figure 6 It is a structural schematic diagram of the suction cup feeding mechanism of the present invention;

[0024] Figure 7 It is a structural schematic diagram of the lateral translation discharging device of the present invention;

[0025] Figure 8 This is a schematic diagram of the structure of the pusher trolley of the present invention;

[0026] Figure 9 It is a side view of the transverse translation discharging device of the present invention;

[0027] Figure 10 It is a structural schematic diagram of the pusher trolley of the present invention.

[0028] Including: 1. Clip-type flip feeding system, 11. Upper pressure floating beam, 12. Upper pressure column, 13. Fixed bracket, 14. Auxiliary clip and pressing mechanism, 141. Moving block, 142. Auxiliary clip and pressing mechanism frame, 143. Floating pressing beam, 144. Auxiliary clip and slide, 145. Auxiliary clip lifting cylinder, 15. Flip feeding cylinder, 16. Flip feeding beam, 161. Main clip, 162. Pushing cylinder, 163. Pushing synchronization mechanism, 1 7. Loading rack, 18. Movable main clip guard, 181. Guard adjustment handwheel, 182. Locking mechanism, 183. Pressing beam moving guide rail, 184. Adjustable guard, 185. Feed limit mechanism, 186. Clip guard position adjustment motor, 187. Clip guard fine-tuning handwheel, 19. Suction cup feeding mechanism, 191. Suction cup lifting cylinder, 192. Suction cup mounting bracket, 193. Suction cup, 194. Width adjustment plate, 195. Suction cup mechanism horizontal moving cylinder, 196. Horizontal track, 197. Slider, 198. Limit bolt, 2. High-frequency panel machine feed rack, 3. High-frequency panel machine main unit, 4. High-frequency generator, 5. Hydraulic system, 6. Discharge drive motor, 7. Horizontal translation discharging device, 701. Crossbeam, 702. Lower baffle lifting cylinder, 703. First translation track, 704. Lower baffle, 705. Upper baffle, 706. Second translation track, 707. Discharge rack, 708. Unpowered roller, 709. Powered roller Drum drive motor, 710. Power roller, 711. Pusher, 712. Upper baffle lifting guide post, 713. Upper baffle lifting cylinder, 714. Guard plate, 715. Discharge pusher crossbeam, 716. Pusher cylinder, 717. PP pallet, 718. Pusher transmission mechanism, 719. Discharge rack support roller, 720. Translational drive rack, 721. Translational drive motor, 722. Pusher track, 723. Guide post, 8. Hydraulic lifting platform, 9. Discharge chain plate. DETAILED DESCRIPTION

[0029] The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0030] Automatic nesting high frequency panel production line, combined with Figure 1 As shown, it includes a clip-type flip loading system 1, a high-frequency panel machine main body 3, a horizontal translation discharging device 7 and a hydraulic lifting platform 8. The clip-type flip loading system 1 is arranged at the feeding end of the high-frequency panel machine main body 3 through the high-frequency panel machine feeding rack 2, which is used to realize automatic feeding of the high-frequency panel machine, and the horizontal translation discharging device 7 is arranged at the discharging end of the high-frequency panel machine main body 3, which is used to realize automatic discharging of the high-frequency panel machine. The hydraulic lifting platform 8 is arranged next to the horizontal translation discharging device 7 to place the discharged board materials.

[0031] The high-frequency panel splicing machine main unit 3 is provided with a high-frequency generator 4 and a hydraulic system 5. The high-frequency generator 4 heats the arranged panels, and the hydraulic system 5 applies vertical pressure and lateral pressure to the spliced ​​panels. The high-frequency generator 4 and the hydraulic system 5 are combined to realize the splicing of the panels.

[0032] The discharging end of the high-frequency panel splicing machine main body 3 is provided with a discharging chain plate 9, which is used to transport the spliced ​​panels. The high-frequency panel splicing machine main body 3 is provided with a discharging transmission motor 6, which is used to drive the discharging chain plate to transport the panels. The transverse translation discharging device 7 is arranged behind the discharging chain plate 9, and the panels discharged by the discharging chain plate directly enter the transverse translation discharging device for discharging.

[0033] The structure of the clip-type flip feeding system 1 is as follows Figures 2 to 6 As shown, it includes a feeding frame 17, a flip feeding beam 16, a pushing mechanism, an upward pressing floating beam 11, a movable main clip guard 18, and an auxiliary clip and pressing mechanism 14. The flip feeding beam 16 is arranged on the feeding frame 17, and the pushing mechanism is arranged on the feeding frame 17 below the flip feeding beam 16; the movable main clip guard 18 is arranged on the feeding frame 17, and is arranged next to the flip feeding beam 16 after the flipping, and the upward pressing floating beam 11 is arranged above the movable main clip guard 18; the auxiliary main clip and pressing mechanism 14 is arranged behind the movable main clip guard 18, and is used to convey the spliced ​​plates and place partitions in the middle of the plates.

[0034] The flip loading beam 16 is set on the loading frame 17 through the rotating shafts at both ends. The side end of the loading frame 17 is provided with a flip loading cylinder 15. The end of the telescopic rod of the flip loading cylinder 15 is connected to the flip loading beam 16 to drive the flip loading beam 16 to flip. The flip loading beam 16 can be flipped 90 degrees along the rotating shaft, and after flipping, it is close to the movable main magazine guard 18.

[0035] Several main clips 161 are provided on the flip loading beam 16. The plate is placed between two adjacent main clips 161. The main clips 161 are fixed to the flip loading beam 16 by bolts. The position of the main clips can be adjusted according to the length of the plate to adapt to the feeding of plates of different lengths.

[0036] The pushing mechanism includes a pushing synchronization mechanism 163 and a pushing cylinder 162. The pushing synchronization mechanism 163 is arranged on the loading frame 17. A pushing plate is provided at the front end of the pushing synchronization mechanism. The pushing plate is located between two adjacent main clips 161 and is used to push the plate between the two main clips forward. There are multiple pushing cylinders 162. The end of the telescopic rod of the pushing cylinder 162 is connected to the outer end of the pushing synchronization mechanism 163, which is used to push the pushing synchronization mechanism back and forth, driving the pushing plate to push the plate forward.

[0037] A fixed bracket 13 is arranged above the movable main magazine guard 18, and the bottom end of the fixed bracket is arranged on the loading frame 17. Slide rails are respectively arranged on the two side ends of the fixed bracket 13. The upper pressure floating beam 11 is arranged below the fixed bracket 13. The two ends of the upper pressure floating beam 11 can move up and down in the slide rails. An upper pressure clamping column 12 is arranged at the bottom of the upper pressure floating beam 11. The upper pressure clamping column 12 passes through the movable main magazine guard 18 and is used to press down the plate placed in the main magazine 161.

[0038] An adjustable guardrail 184 is provided on the back of the movable main magazine guardrail 18, and the adjustable guardrail 184 is hinged by a number of connecting rods, and the other end of the connecting rod is hinged to the movable main magazine guardrail 18. A guard adjustment handwheel 181 is provided above the adjustable guardrail 184, which is used to adjust the guardrail height to adapt to the height of the plate. A locking mechanism 182 is provided at the side end of the guardrail adjustment handwheel 181, which is used to lock the guardrail adjustment handwheel to fix the height of the guardrail. A feed limiting mechanism 185 is provided at the bottom of the adjustable guardrail 184, which is used to limit the height of the plate, and the fed plate passes through the bottom of the feed limiting mechanism.

[0039] A magazine guard position adjustment motor 186 is provided on the loading frame below the movable main magazine guard 18, which is used to adjust the position of the movable main magazine guard 18 on the loading frame. A magazine guard position adjustment motor is provided with a magazine guard fine-tuning handwheel 187, which is used to fine-tune the position of the magazine guard. The position of the magazine guard is adjusted by the magazine guard position adjustment motor and the magazine guard fine-tuning handwheel so that the position of the movable main magazine guard corresponds to the position of the main magazine.

[0040] A pressing beam moving guide rail 183 is provided on the back of the movable main magazine against the grid 18 for connecting the auxiliary magazine and pressing mechanism 14.

[0041] The auxiliary magazine and pressing mechanism 14 includes an auxiliary magazine and pressing mechanism frame 142 and a floating pressing beam 143. A moving block 141 is provided on the auxiliary magazine and pressing mechanism frame 142. The moving block 141 is slidably set on the pressing beam moving guide rail 183 on the back of the movable main magazine guard 18. The floating pressure beam 143 is arranged below the auxiliary clip and pressing mechanism frame 142, and is used to transport the spliced ​​plates. Auxiliary clips and slides 144 are respectively inclined on both sides of the rear of the auxiliary clip and pressing mechanism frame 142. The bottom ends of the auxiliary clips and slides 144 face the movable main clip guard 18. The floating pressure beam 143 is located above the auxiliary clip and slide. The auxiliary clip and slide 144 are provided with an auxiliary clip lifting cylinder 145 for adjusting the inclination angle of the auxiliary clip and slide 144. When the partition is not needed, the inclination angle of the auxiliary clip and slide 144 is lowered, and the partition will not slide from the auxiliary clip and slide 144. When the partition needs to be placed, the inclination angle of the auxiliary clip and slide 144 is increased, and the partition slides from the auxiliary clip and slide 144 to the movable main clip guard 18.

[0042] A suction cup loading mechanism 19 is provided on the auxiliary clip and pressing mechanism frame 142 above the bottom end of the auxiliary clip and slide 144, which is used to place the partition in the middle of the two groups of spliced ​​plates to separate the two groups of plates, which will neither cause the two groups of plates to be spliced ​​together nor cause waste of resources of the high-frequency splicing machine.

[0043] The suction cup feeding mechanism 19 includes an inverted L-shaped bracket and a suction cup mounting bracket 192. The suction cup mounting bracket 192 is arranged on the auxiliary magazine and pressing mechanism frame 142 above the lower end of the auxiliary magazine and the slide 144 through the inverted L-shaped bracket. A suction cup 193 is provided on the suction cup mounting bracket 192 for adsorbing the partition. A suction cup lifting cylinder 191 is provided on the inverted L-shaped bracket for driving the suction cup mounting bracket to move up and down.

[0044] A horizontal track 196 is provided on the auxiliary magazine and pressing mechanism frame 142, and a slider 197 that moves along the horizontal track is provided on the top of the inverted L-shaped bracket. A horizontal moving cylinder 195 of a suction cup mechanism is provided on the auxiliary magazine and pressing mechanism frame 142 to drive the suction cup mounting bracket to move back and forth.

[0045] A limiting bolt 198 is provided on the auxiliary clip and pressing mechanism frame 142 at the top of the suction cup feeding mechanism 19, which is used to limit the moving position of the slider 197 and then limit the position of the suction cup so that the suction cup is located above the partition.

[0046] A width adjustment piece 194 is provided on the auxiliary clip and pressing mechanism frame 142 at the bottom of the suction cup feeding mechanism 19, which is adjusted according to the width of the feed partition so that the suction cup feeding mechanism can only absorb one plate at a time.

[0047] When loading, place the plates to be spliced ​​between the main clips on the flip loading beam. After placement, start the flip loading cylinder to flip the flip loading beam up, and push the pushing cylinder forward to push the spliced ​​plates to the auxiliary clip and pressing mechanism. After a group of plates is pushed, the partition slides through the auxiliary clip machine for loading. The suction cup loading mechanism absorbs the partition and places the partition next to the spliced ​​plates. The pushing cylinder continues to push the plates forward, and the plates with glue on the edges are spliced ​​together. The two groups of plates are separated by partitions without glue. After splicing, they enter the high-frequency panel machine host for panel bonding. The spliced ​​plates are driven by the discharging transmission motor to rotate the discharging chain plate, and the spliced ​​plates are sent to the horizontal translation device for discharging.

[0048] The structure of the lateral displacement discharging device 7 is as follows: Figures 7 to 10 As shown, it includes a discharging rack 707, which is arranged behind the discharging chain plate 9 and is used to discharge the spliced ​​plates.

[0049] The discharging frame 707 is provided with an unpowered roller 708 and several powered rollers 710. The unpowered roller 708 is close to the discharging chain plate 9. The discharging frame 707 is provided with a powered roller transmission motor 709 for driving the powered rollers 710 to rotate to convey the plates.

[0050] A first translation rail 703 and a second translation rail 706 are arranged parallel to the ground below the discharging rack 707. A discharging rack support roller 719 is arranged at the bottom of the discharging rack 707. The discharging rack support roller 719 moves along the first translation rail 703 and the second translation rail 706. A rack translation mechanism is arranged between the discharging rack 707 and the translation rail to drive the discharging rack 707 to move along the translation rail.

[0051] The frame translation mechanism includes a translation transmission rack 720 respectively arranged in the middle of the first translation rail 703 and the second translation rail 706. A translation transmission motor 721 is provided at the bottom of the discharging frame 707. A gear meshing with the translation transmission rack 720 is provided on the motor shaft of the translation transmission motor. The rotation of the translation transmission motor drives the gear to rotate. The gear is combined with the rack. When the gear rotates, the position of the gear on the rack changes, thereby realizing the translation of the discharging frame on the translation track.

[0052] A pushing trolley 711 is provided on the discharging frame 707 located above the power roller 710. The pushing trolley is arranged perpendicular to the power roller and is used to push the plate on the power roller to the hydraulic lifting platform 8 at the side end. A pushing trolley transmission mechanism 718 is provided on the discharging frame 707 to drive the pushing trolley to move forward and backward.

[0053] The pusher trolley transmission mechanism 718 includes a gear and a rack. The gear is arranged on the front and rear sides of the running direction of the discharging frame 707. The rack is meshed on the gear. The pusher trolley 711 is set on the rack through a mounting block. A transmission motor is provided on the discharging frame. The motor shaft of the transmission motor is connected to the gear to drive the gear to rotate. The rotation of the gear drives the rack to rotate, thereby realizing the forward and backward movement of the pusher trolley.

[0054] A push trolley track 722 is provided on the discharging frame 707 located above the push trolley transmission mechanism 718. The mounting block is sleeved on the push trolley track 722 and is slidably assembled with the push trolley track. During the forward and backward movement of the push trolley, the push trolley track is used to guide and move the push trolley to prevent the push trolley from shifting during the forward and backward movement.

[0055] A transition beam is provided at the front end of the pushing trolley 711, and a discharge push plate cross beam 715 is provided at the front end of the transition beam. A pushing cylinder 716 is provided between the transition beam and the pushing trolley 711. The telescopic rod of the pushing cylinder 716 passes through the transition beam and is connected to the discharge push plate cross beam 715, which is used to push the discharge push plate cross beam forward and push the plate onto the hydraulic lifting platform 8.

[0056] A guide post 723 is provided on the inner side of the discharge push plate cross beam 715. The guide post 723 passes through the transition beam. When the discharge push plate cross beam is pushed forward and backward by the push cylinder, it is guided by the guide post.

[0057] The rear end and side end of the discharging rack 707 are both provided with guard plates 714. The guard plates at the side end of the discharging rack are used to protect the pushing trolley. The guard plates at the side end of the discharging rack are used to prevent the plates from moving out and to limit the position of the plates.

[0058] Several PP support plates 717 are vertically arranged at the front end of the pushing trolley 711. The PP support plates are slightly lower than the power roller 710 and do not affect the power roller's transmission of the plate. When the pushing trolley pushes the plate toward the hydraulic lifting platform 8, the plate is supported to prevent it from falling when it leaves the power roller.

[0059] A lower baffle 704 is provided at the front end of the discharging frame 707, and a lower baffle lifting cylinder 702 is provided below the discharging frame 707. The telescopic rod of the lower baffle lifting cylinder is connected to the bottom of the lower baffle, which is used to drive the lower baffle to move up and down. After the pushing trolley pushes the plate to the hydraulic lifting platform 8 and withdraws the pushing trolley backward, the lower baffle rises to prevent the plate from moving backward with the pushing trolley.

[0060] A crossbeam 701 is provided at the front end of the discharging frame 707, an upper baffle 705 is provided below the crossbeam 701, an upper baffle lifting cylinder 713 is provided on the crossbeam 701, and a telescopic rod of the upper baffle lifting cylinder is connected to the top of the upper baffle to drive the upper baffle to move up and down.

[0061] The crossbeam 701 is provided with a plurality of guide holes, and the upper baffle 705 is provided with a plurality of upper baffle lifting guide posts 712. The upper baffle lifting guide posts 712 pass through the guide holes on the crossbeam to guide the upper baffle when the upper baffle moves up and down.

[0062] A hydraulic cylinder is provided at the bottom of the hydraulic lifting platform 8, which is used to drive the hydraulic lifting platform to rise and fall. When the number of plates on the hydraulic lifting platform gradually increases, the hydraulic lifting platform gradually descends. The height of the hydraulic lifting platform always adapts to the height of the lateral translation discharging device, and the lateral translation device pushes the plates onto the hydraulic lifting platform to avoid the three redundant plates.

[0063] After the push trolley returns to its position, the discharging frame returns to its position and moves to the discharging chain of the high-frequency panel splicing machine, waiting for the high-frequency panel splicing machine to discharge the next material.

Claims

1. An automatic nesting high-frequency panel production line, comprising a high-frequency panel machine main unit (3) for heating arranged panels, the high-frequency panel machine main unit (3) being provided with a high-frequency generator (4) and a hydraulic system (5); characterized in that: The feeding end of the high-frequency panel machine main body (3) is provided with a high-frequency panel machine feeding frame (2), and the high-frequency panel machine feeding frame (2) is provided with a clip-type flip loading system (1) for automatically feeding the high-frequency panel machine main body; the discharging end of the high-frequency panel machine main body (3) is provided with a discharging chain plate (9), and the high-frequency panel machine main body is provided with a discharging transmission motor (6) for driving the discharging chain plate to convey the plate, and the rear of the discharging chain plate (9) is provided with a transverse translation discharging device (7) for automatic discharging, and a hydraulic lifting platform (8) for placing the discharging plate is provided on the side of the transverse translation discharging device (7), and a hydraulic cylinder for driving the hydraulic lifting platform (8) to rise and fall is provided at the bottom of the hydraulic lifting platform (8); The clip-type flip loading system (1) comprises a loading frame (17), a flip loading beam (16) for loading is provided on the loading frame (17), a plurality of main clips (161) for placing plates are provided on the flip loading beam (16), a flip loading cylinder (15) for driving the flip loading beam (16) to flip is provided at the side end of the loading frame (17); a pushing mechanism for pushing the plates is provided below the flip loading beam (16); the loading frame ( 17) A movable main magazine grid (18) is vertically arranged adjacent to the flipped loading beam (16) after flipping, an upper pressing floating beam (11) is arranged above the movable main magazine grid (18) through a fixed bracket (13), and an upper pressing column (12) for pressing the plate downward is arranged at the bottom of the upper pressing floating beam (11); an auxiliary magazine and pressing mechanism (14) for conveying the spliced ​​plate and placing a partition in the middle of the plate is arranged behind the movable main magazine grid (18); The back of the movable main magazine guard (18) is hinged with an adjustable guard (184) for adjusting the thickness of the plate through a plurality of connecting rods, a guard adjustment hand wheel (181) for adjusting the guard height is provided above the adjustable guard (184), a feed limit mechanism (185) for limiting the position of the plate is provided at the bottom of the adjustable guard (184), and a pressing beam movable guide rail (183) for connecting to the auxiliary magazine and pressing mechanism (14) is provided at the back of the adjustable guard (184), and the fed plate passes through the bottom of the feed limit mechanism (185); The auxiliary clip and pressing mechanism (14) includes an auxiliary clip and pressing mechanism frame (142) arranged at the rear of the movable main clip against the grid (18) through a moving block (141), and auxiliary clips and slideways (144) are respectively arranged on both sides of the rear of the auxiliary clip and pressing mechanism frame (142) in an inclined downward direction. The lower end of the auxiliary clip and slideway (144) faces the movable main clip against the grid (18), and an auxiliary clip lifting cylinder (145) for adjusting the inclination angle of the auxiliary clip and slideway (144) is provided on the auxiliary clip and pressing mechanism frame (142). A suction cup loading mechanism (19) for placing a partition into the middle of the spliced ​​plate is provided on the auxiliary clip and pressing mechanism frame (142) located above the lower end of the auxiliary clip and slideway (144).

2. The automatic nesting high-frequency panel production line according to claim 1 is characterized by: The suction cup feeding mechanism (19) includes a suction cup mounting bracket (192) arranged above the lower end of the auxiliary magazine and the slideway (144) through an inverted L-shaped bracket, a suction cup (193) for adsorbing the partition is arranged on the suction cup mounting bracket (192), and a suction cup lifting cylinder (191) for driving the suction cup mounting bracket (192) to move up and down is arranged on the inverted L-shaped bracket.

3. The automatic nesting high-frequency panel production line according to claim 2 is characterized by: The auxiliary magazine and press mechanism frame (142) is provided with a horizontal track (196), the top of the inverted L-shaped bracket is provided with a slider (197) that moves along the horizontal track, and the auxiliary magazine and press mechanism frame (142) is provided with a sucker mechanism horizontal moving cylinder (195) for driving the sucker mounting bracket to move forward and backward.

4. The automatic nesting high-frequency panel production line according to claim 1 is characterized by: The lateral translation discharging device (7) comprises a discharging frame (707) arranged behind the discharging chain plate (9), a non-powered roller (708) and a plurality of powered rollers (710) are arranged on the discharging frame (707), the non-powered roller (708) is close to the discharging chain plate (9) of the high-frequency panel machine, and the powered roller (710) is driven by a powered roller transmission motor (709) located on the discharging frame (707); a first translation track (703) and a second translation track (706) for the lateral movement of the discharging frame (707) are arranged in parallel on the ground below the discharging frame (707), and a bottom of the discharging frame (707) is provided with a roller driven by the first translation track. (703) and a discharging frame support roller (719) moving along the second translation track (706), and a frame translation mechanism for driving the discharging frame to move along the translation track is provided between the discharging frame (707) and the translation track; a pushing trolley (711) is provided above the discharging frame (707) toward the side end of the discharging frame through a pushing trolley transmission mechanism (718), and the pushing trolley (711) is located above the power roller (710); a discharging pushing plate crossbeam (715) for pushing the plate is provided at the front end of the pushing trolley (711) through a pushing cylinder (716); and a guard plate (714) is provided at the rear end and the side end of the discharging frame (707).

5. The automatic nesting high-frequency panel production line according to claim 4 is characterized in that: The frame translation mechanism comprises a translation transmission rack (720) arranged in the middle of the first translation track (703) and the second translation track (706); a translation transmission motor (721) is arranged at the bottom of the discharging frame (707); and a gear meshing with the translation transmission rack (720) is arranged on the motor shaft of the translation transmission motor.

6. The automatic nesting high-frequency panel production line according to claim 4 is characterized by: The pusher trolley transmission mechanism (718) includes gears arranged on both sides of the discharge frame (707) in the running direction, and a rack is meshed on the gear. The pusher trolley (711) is arranged on the rack through a mounting block, and a transmission motor for driving the gear to rotate is provided on the discharge frame.

7. The automatic nesting high-frequency panel production line according to claim 4 is characterized in that: A lower baffle (704) is provided at the front end of the discharging frame (707), and a lower baffle lifting cylinder (702) for driving the lower baffle to move up and down is provided below the front end of the discharging frame (707); a crossbeam (701) is provided above the front end of the discharging frame (707), an upper baffle (705) is provided below the crossbeam (701), and an upper baffle lifting cylinder (713) for driving the upper baffle to move up and down is provided on the crossbeam (701).

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