Molding fiberglass grating automatic production line continuous cutting equipment

Abstract

The present application relates to the moulding glass steel grating automation production line continuous cutting equipment, relates to the grating production cutting technical field, it includes frame and the sliding platform of sliding setting on the frame, the sliding direction of sliding platform is consistent with the glass steel grating transport direction, sliding platform is provided with cutting device, cutting device is used to carry out the cutting of glass steel grating, sliding platform sliding is provided with several insertion blocks, sliding platform is provided with the drive piece of drive insertion block insertion glass steel grating empty space, the frame is provided with reset piece, reset piece is used to reset after sliding sliding platform.The present application has the effect of improving the overall production efficiency of glass steel grating.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of grid production cutting, in particular to a molded glass steel grid automatic production line continuous cutting device. BACKGROUND

[0002] Glass steel grid, also known as glass steel grid, is a kind of plate-shaped material with many spaces, which is made of glass fiber as reinforcing material and unsaturated polyester resin as matrix through special processing and compounding. Glass steel grid can be used as structural material for floor, trench cover, platform, ship deck, stairs, and trestle in corrosive environment. It has the characteristics of corrosion resistance, flame retardation, no magnetism, insulation, bright color, and multiple style options. After the whole glass steel grid is produced, it needs to be cut into different sizes according to the use requirements.

[0003] Most of the existing glass steel grid cutting equipment is designed for cutting operation of glass steel grid with fixed length. When glass steel needs to be continuously produced automatically, cutting operation of finished glass steel grid is also needed. In the prior art, the cutting knife driven by the motor is used to cut the fixed grid.

[0004] However, when using automatic equipment for continuous production, the rack of the glass steel grid production is provided with a motor-driven roller to continuously move the glass steel grid. The existing glass steel grid slitting equipment needs to fix the glass steel grid during cutting, which cannot continuously cut the moving glass steel grid. Therefore, the movement of the glass steel grid needs to be stopped, which reduces the overall production efficiency of the finished glass steel grid. SUMMARY

[0005] In order to improve the overall production efficiency of the glass steel grid, the present application provides a molded glass steel grid automatic production line continuous cutting device.

[0006] The molded glass steel grid automatic production line continuous cutting device provided by the present application adopts the following technical scheme:

[0007] The molded glass steel grid automatic production line continuous cutting device comprises a rack and a sliding platform slidingly arranged on the rack. The sliding direction of the sliding platform is consistent with the transportation direction of the glass steel grid. The sliding platform is provided with a cutting device for cutting the glass steel grid. The sliding platform is slidingly provided with a plurality of insertion blocks. The sliding platform is provided with a driving piece for driving the insertion blocks to insert into the spaces of the glass steel grid. The rack is provided with a reset piece for resetting the sliding platform after sliding.

[0008] Through the above technical scheme, the glass steel grid is driven to move on the rack by the driving structure of the production device, when cutting, the driving element drives the insertion plate to move to make the insertion block insert into the space of the glass steel grid, at this time, the movement of the grid drives the sliding platform to move synchronously on the rack, and in this process, the cutting device on the sliding platform cuts the glass steel grid, without stopping the movement of the whole production process of the glass steel grid, thereby improving the production efficiency of the glass steel grid.

[0009] Preferably, the cutting device comprises a cutting assembly, a moving assembly and a cutting seat slidingly arranged on the sliding platform, the moving assembly is used to drive the cutting seat to move, and the cutting assembly is used to cut the glass steel grid when the cutting seat slides.

[0010] Through the above technical scheme, the moving assembly drives the cutting seat to move, and cooperates with the cutting assembly to cut the glass steel grid during the movement, and the cutting range is improved by driving the cutting seat to move through the moving assembly, so as to facilitate cutting the glass steel grid with a certain width.

[0011] Preferably, the moving assembly comprises a moving motor, a moving gear and a moving rack, the sliding platform is provided with a moving beam, the length direction of the moving beam is perpendicular to the moving direction of the sliding platform, the cutting seat is slidingly arranged on the moving beam, the moving rack is arranged on the moving beam along the length direction, the moving gear is rotationally arranged on the cutting seat and engaged with the moving rack, the moving motor is arranged on the cutting seat, and the rotating shaft of the moving motor is connected with the moving gear.

[0012] Through the above technical scheme, the moving motor is started to drive the moving gear to rotate, thereby driving the cutting seat to move on the moving beam under the meshing guidance of the moving rack, so as to cut the glass steel grid through the cutting assembly during the movement, which is simple and convenient to operate and convenient to use.

[0013] Preferably, the cutting assembly comprises a first cutting motor and a first cutting wheel, the first cutting motor is arranged on the cutting seat, the first cutting wheel is rotationally arranged on the cutting seat and used to cut the glass steel grid, and the rotating shaft of the cutting motor is connected with the first cutting wheel.

[0014] Through the above technical scheme, the first cutting motor is started to drive the first cutting wheel to rotate, thereby cutting the grid, which is simple and convenient to operate and convenient to use.

[0015] Preferably, the cutting assembly further comprises a second cutting motor and a second cutting wheel used to cut the glass steel grid, the second cutting wheel is rotationally arranged on the cutting seat, the second cutting motor is arranged on the cutting seat, the rotating shaft of the second cutting motor is connected with the second cutting wheel, and the first cutting wheel and the second cutting wheel are arranged in a staggered manner.

[0016] By adopting the above technical scheme, the grid needs to be cut into a state that both sides are smooth sections, and both sides of the grid need a certain thickness to ensure the strength of the overall structure. During the cutting process by a single cutting wheel, the two sections of the grid have a protruding broken rod on one side of the side wall after cutting the grid space part, which will affect the use of the grid. Therefore, the first cutting wheel and the second cutting wheel are set to be staggered, so that the first cutting wheel and the second cutting wheel cut the grid space section during cutting, so that the side walls of the two sections of the grid have a certain thickness from the space section after cutting, so as to ensure that the cut grid will not have a broken rod affecting the use, and will not affect the use strength because the thickness of the grid side wall from the space is not enough. At the same time, the cut grid does not need to be further polished and processed at the back end, which improves the cutting convenience and the efficiency of grid production.

[0017] As a preferred, the cutting seat is provided with a dust cover with an open bottom, the first cutting wheel and the second cutting wheel are both rotationally arranged in the dust cover and pass through the opening at the bottom of the dust cover, the rack is provided with an air extractor, the rack is detachably provided with a cleaning box, the air extractor is provided with a first air extraction pipe in communication with the cleaning box, the cleaning box is provided with a second air extraction pipe in communication with the dust cover, and the cleaning box is provided with a filter structure inside to separate air and impurities.

[0018] By adopting the above technical scheme, the dust cover is provided, which reduces the possibility of damage to the cutting wheel caused by external collision and the possibility of injury to the staff caused by accidental contact with the cutting wheel, thereby reducing the safety risk.

[0019] As a preferred, the sliding platform is rotationally provided with a take-up roller, the sliding platform is rotationally provided with an auxiliary gear connected with the take-up roller, the rack is further provided with an auxiliary rack, the auxiliary rack engages with the auxiliary gear, the second air extraction pipe is wound on the take-up roller, the take-up roller is provided with a limiting column, the second air extraction pipe forms a limiting ring, the limiting ring is sleeved on the limiting column, and the second air extraction pipes on the upper and lower sides of the limiting column on the take-up roller are wound in opposite directions.

[0020] By adopting the technical scheme, when the sliding platform slides along with the glass steel grid, the auxiliary rack meshes to drive the auxiliary gear to rotate, at this time, the cutting seat also moves under the driving of the moving assembly to cut, in this process, the rotation of the auxiliary gear drives the take-up roller to rotate, the structure that the limiting ring is sleeved on the limiting column divides the part of the second air exhaust pipe around the take-up roller into two parts, and the rotating directions of the two parts are different, so that when the take-up roller rotates, the two sections of the second air exhaust pipe are synchronously unwound, so that the length of the second air exhaust pipe does not affect the movement of the cutting seat and the sliding platform, and at the same time, the second air exhaust pipe is received by the take-up roller, so as to reduce the possibility that the winding of the second air exhaust pipe affects the movement of the sliding platform and the cutting seat.

[0021] Preferably, the sliding platform is provided with a positioning block, the positioning block is provided with a rotating cylinder, the rotating cylinder is provided with an abutting rod capable of abutting against the glass steel grid on the piston rod of the rotating cylinder, and the rotating cylinder is used to drive the abutting rod to rotate.

[0022] By adopting the technical scheme, according to the specification of the grid, the positioning block is slid and positioned and fixed by the positioning bolt, when the glass steel grid starts to be produced, the rotating cylinder is started to drive the abutting rod to rotate and extend to a certain height, the glass steel grid is driven to move on the rack by the driving structure, and the front end of the glass steel grid abuts against the abutting rod, so that the glass steel grid is positioned, at this time, the insertion block is aligned with the space on the glass steel grid, and the positioning of the glass steel grid improves the convenience of cutting.

[0023] Preferably, the sliding platform is provided with a pressing frame, the pressing frame is slidably provided with a pressing rod, the insertion block is arranged on the pressing rod, the driving member is a driving cylinder, the driving cylinder is arranged on the pressing frame, and the piston rod of the driving cylinder is connected with the insertion block.

[0024] By adopting the technical scheme, the driving cylinder is started to drive the pressing rod to move and press, the insertion block is inserted into the space of the glass steel grid, the glass steel grid and the sliding platform are connected by clamping, the sliding platform can follow the movement of the glass steel grid, the operation is simple and convenient, and the sliding platform is convenient to use.

[0025] Preferably, the sliding platform is provided with a pressing frame, the pressing frame is slidably provided with a pressing rod, the pressing rod is provided with a pressing plate, the pressing frame is provided with a pressing cylinder, the piston rod of the pressing cylinder is connected with the pressing plate, and the pressing plate can abut against the glass steel grid.

[0026] By adopting the technical scheme, the pressing cylinder is started to drive the pressing plate to press and abut against the glass steel grid, so that the glass steel grid in the cutting process is fixed, and the stability of cutting is improved.

[0027] To sum up, the present application includes at least one of the following beneficial technical effects:

[0028] By setting the rack, sliding platform, cutting seat, moving assembly, cutting assembly, insertion block, driving piece and reset piece, the driving piece is started to make the insertion block insert into the empty space of the glass steel grid, the glass steel grid moves forward under the driving structure of the rack, and the sliding platform is connected with the glass steel grid through the insertion block, and the movement of the glass steel grid drives the sliding platform to slide on the rack. In the process of sliding the sliding platform, the cutting assembly is driven to move by the moving assembly, and the glass steel grid is cut by the cutting assembly. The operation is simple and convenient, and the movement of the glass steel grid does not need to be stopped during cutting. After the cutting is completed, the insertion block is driven to exit the empty space of the glass steel grid through the driving piece, and the sliding platform is moved to reset through the reset piece.

[0029] By setting the first cutting motor, the second cutting motor, the first cutting wheel, the second cutting wheel and the dust cover, the first cutting motor is started to drive the first cutting wheel to rotate, and the second cutting motor is started to drive the second cutting wheel to rotate. Through the two groups of cutting wheels arranged in staggered mode, the two sides of the grid empty space part are cut along the inner wall during cutting, so that the wall thickness of the side wall of the cut grid meets the thickness requirement, and additional processing is not required. At the same time, the dust cover is arranged to reduce the possibility of interference of sundries with the operation of the cutting wheel.

[0030] By setting the first suction pipe, the second suction pipe, the air extractor, the cleaning box, the take-up roller, the auxiliary gear, the auxiliary rack, the limiting column and the limiting ring, the air extractor and the cleaning box are connected through the first suction pipe and arranged on the rack, so as to reduce the overall weight of the sliding platform, facilitate sliding and resetting, reduce the weight, reduce the wear during daily use, and start the air extractor to suck air in the dust cover through the second suction pipe, so as to suck the cutting debris into the cleaning box and separate them. During cutting, the cutting seat cuts, and at the same time, the sliding platform slides on the rack. At the same time, the take-up roller is driven to rotate through the meshing of the auxiliary gear and the auxiliary rack. The structure that the second suction pipe limiting ring is sleeved on the limiting column makes the two ends of the second suction pipe operate in the anti-line mode under the rotation of the take-up roller, so as to facilitate the movement of the cutting seat and the movement of the sliding platform. BRIEF DESCRIPTION OF DRAWINGS

[0031] Figure 1 It is the overall schematic diagram of the molded glass steel grid automatic production line continuous cutting equipment provided by the embodiment of the present application.

[0032] Figure 2 It is a schematic diagram for embodying the structure of the moving assembly.

[0033] Figure 3 It is a schematic diagram for embodying the structure of the cutting assembly.

[0034] Figure 4is a sectional view for embodying the internal structure of the dust cover.

[0035] Figure 5 is a control block diagram of the continuous cutting equipment of the automatic production line of molded glass steel grating provided by the embodiment of the application.

[0036] Label explanation: 1, rack; 11, waste box; 12, sliding rail; 121, auxiliary rack; 13, reset cylinder; 14, positioning block; 141, rotating cylinder; 142, abutting rod; 143, positioning wheel; 144, positioning bolt; 15, travel switch; 2, sliding platform; 21, pressing frame; 211, pressing rod; 212, pressing block; 213, insertion block; 214, driving cylinder; 22, pressing frame; 221, pressing rod; 222, pressing plate; 223, pressing cylinder; 23, moving beam; 231, distance sensor; 232, auxiliary rod; 24, take-up roller; 241, limiting column; 242, auxiliary gear; 3, cutting device; 31, cutting seat; 311, dust cover; 312, cleaning piece; 313, cleaning groove; 32, moving assembly; 321, moving motor; 322, moving gear; 323, moving rack; 33, cutting assembly; 331, first cutting motor; 332, first cutting wheel; 333, second cutting motor; 334, second cutting wheel; 4, air extractor; 41, first air extraction pipe; 42, cleaning box; 43, second air extraction pipe; 431, limiting ring; 5, controller. DETAILED DESCRIPTION

[0037] The following will be described in detail in combination with the accompanying drawings Figures 1-5 The application is further described in detail.

[0038] The embodiment of the application discloses a continuous cutting equipment of an automatic production line of molded glass steel grating. Figures 1 to 2The utility model relates to a glass fiber reinforced plastic grid cutting device, which comprises a long rack 1 and a sliding platform 2 slidingly arranged on the rack 1, the surface of the rack 1 is provided with sliding rails along the length direction, the sliding platform 2 is slidingly arranged on the sliding rails and the sliding direction is consistent with the length direction of the rack 1, the rack 1 is provided with a driving mechanism to drive the glass fiber reinforced plastic grid to move (the driving mechanism is not shown in the figure), and the moving direction of the glass fiber reinforced plastic grid is consistent with the moving direction of the sliding platform 2. The sliding platform 2 is provided with a cutting device 3 for cutting the glass fiber reinforced plastic grid. The rack 1 is fixedly provided with a reset air cylinder 13 as a reset member along the length direction, the piston rod of the reset air cylinder 13 is fixedly connected with the sliding platform 2 to push the sliding platform 2 to slide and reset. The surface of the sliding platform 2 is fixedly provided with a pressing frame 21, the pressing frame 21 is slidingly provided with a pressing rod 211 along the vertical direction, the bottom wall of the pressing rod 211 is fixedly provided with a pressing block 212 capable of abutting against the glass fiber reinforced plastic grid, the bottom wall of the pressing block 212 is fixedly provided with a plurality of insertion blocks 213 capable of being inserted into the spaces of the glass fiber reinforced plastic grid, the pressing frame 21 is fixedly provided with a driving air cylinder 214 as a driving member, and the piston rod of the driving air cylinder 214 is fixedly connected with the pressing rod 211. The driving air cylinder 214 drives the insertion blocks 213 to be inserted into the spaces of the glass fiber reinforced plastic grid, so that the glass fiber reinforced plastic grid drives the sliding platform 2 to slide when moving, the cutting of the cutting device 3 is facilitated in the process, the movement of the grid does not need to be stopped, and the convenience of production is improved.

[0039] In order to improve the stability of cutting, referring to Figure 1 and Figure 2 , the sliding platform 2 is also fixedly provided with a pressing frame 22, the pressing frame 22 is slidingly provided with a pressing rod 221 vertically along the numerical direction, the bottom wall of the pressing rod 221 is fixedly provided with a pressing plate 222 capable of abutting against the glass fiber reinforced plastic grid, and the pressing frame 22 is fixedly provided with a pressing air cylinder 223, and the piston rod of the pressing air cylinder 223 is fixedly connected with the pressing plate 222. The rack 1 is fixedly provided below the sliding platform 2 with a waste box 11 for recycling cutting waste. When in use, the pressing air cylinder 223 and the driving air cylinder 214 move synchronously, the pressing plate 222 abuts against the grid while the insertion blocks 213 are inserted into the spaces of the grid, and the stability of cutting is improved.

[0040] In order to facilitate use, referring to Figure 1 and Figure 2The cutting device 3 comprises a cutting assembly 33, a moving assembly 32 and a cutting seat 31. The moving beam 23 is fixed horizontally on the sliding platform 2 and is arranged between the pressing frame 22 and the pressing-down frame 21. The length direction of the moving beam 23 is perpendicular to the moving direction of the sliding platform 2. The cutting seat 31 is slidingly arranged on the moving beam 23, and a guide rail is arranged on the moving beam 23 to be connected to the cutting seat 31 to improve the stability of the cutting seat 31 on the moving beam 23. The moving rack 323 is fixedly arranged on the moving beam 23 in the length direction, the moving gear 322 is rotatably arranged on the cutting seat 31 and is engaged with the moving rack 323, the moving motor 321 is fixedly arranged on the cutting seat 31, and the rotating shaft of the moving motor 321 is connected to the moving gear 322 through a transmission structure to drive the moving gear 322 to rotate. The moving motor 321 drives the moving gear 322 to rotate, and drives the cutting seat 31 to move under the engagement of the moving rack 323, thereby facilitating use.

[0041] In the present application, the driving mechanism is a horizontal roller driven by a motor. The upper surface of the horizontal roller is slightly higher than the surface of the sliding platform 2, so that the grid can move on the sliding platform 2 and pass under the pressing frame 22, the moving wheel and the pressing-down frame 21.

[0042] For the convenience of use, with reference to Figure 2 and Figure 5 , the rack 1 is provided with a controller 5 connected to the moving motor 321. A travel switch 15 connected to the controller 5 is fixedly arranged on the side wall of the rack 1. The travel switch 15 is a roller type travel switch 15. The roller of the travel switch 15 can contact the sliding platform 2 and be pushed back by the sliding platform 2 after the sliding platform 2 starts to move. Distance sensors 231 for detecting the position of the cutting seat 31 are arranged at both ends of the moving beam 23. The controller 5 is connected to the distance sensors 231, the reset cylinder 13, the insertion cylinder and the pressing cylinder 223. The reset cylinder 13, the insertion cylinder and the pressing cylinder 223 are all multi-stage cylinders. The controller 5 is used to control the moving motor 321 to reverse and simultaneously start and stop the reset cylinder 13, the insertion cylinder and the pressing cylinder 223 according to the data of the distance sensors 231. The controller 5 starts the moving motor 321 to drive the cutting seat 31 to move to cooperate with the cutting assembly 33 to cut according to the retraction state of the travel switch 15, thereby improving the convenience of use.

[0043] In order to improve the production efficiency, with reference to Figures 2 to 3The cutting assembly 33 comprises a first cutting motor 331, a first cutting wheel 332, a second cutting motor 333 and a second cutting wheel 334. The cutting seat 31 is fixedly provided with a dust cover 311 with an opening at the bottom. The first cutting wheel 332 and the second cutting wheel 334 are arranged in a staggered manner and are both rotatably arranged in the dust cover 311. The gap between the side wall of the first cutting wheel 332 away from the second cutting wheel 334 and the side wall of the second cutting wheel 334 away from the first cutting wheel 332 is consistent with the width of the glass steel grid space. The first cutting wheel 332 and the second cutting wheel 334 pass through the opening at the bottom of the dust cover 311 and pass through the working groove. The first cutting motor 331 is fixedly arranged on the cutting seat 31 and the rotating shaft thereof is coaxially and fixedly connected with the first cutting wheel 332. The second cutting motor 333 is fixedly arranged on the cutting seat 31 and the rotating shaft thereof is coaxially and fixedly connected with the second cutting wheel 334. The first cutting motor 331 and the second cutting motor 333 are signal-connected with the controller 5. After the first cutting motor 331 and the second cutting motor 333 are started, the first cutting wheel 332 and the second cutting wheel 334 are driven to rotate. When the cutting wheels arranged in a staggered manner cut, a row of space regions of the grid are cut off, so that the thickness of the side wall of the cut grid block remains complete and does not need to be processed at the rear end, thereby improving the production efficiency. In another embodiment, a plurality of separation grooves are formed in the side wall of the second cutting wheel 334 and the first cutting wheel 332 for cutting, so as to improve the cutting effect.

[0044] In order to improve the cutting effect, with reference to Figure 3 and Figure 4 , two cleaning pieces 312 are fixedly arranged on the inner wall of the dust cover 311. The cleaning piece 312 is provided with a cleaning groove 313 for the first cutting wheel 332 or the second cutting wheel 334 to pass through. The frame 1 is fixedly provided with an air extractor 4 and a cleaning box 42. The air extractor 4 and the cleaning box 42 are connected in communication through a first air extraction pipe 41. The cleaning box 42 and the dust cover 311 are connected in communication through a second air extraction pipe 43. The air extractor 4 is used for air extraction. The cleaning box 42 is provided with a filter screen to filter the debris stored from the dust cover 311. When the first cutting wheel 332 and the second cutting wheel 334 rotate, they pass through the cleaning groove 313. The cleaning piece 312 scrapes the cutting debris remaining on the first cutting wheel 332 and the second cutting wheel 334, and the debris is sucked out under the suction of the air extractor 4, so as to ensure the cleanliness of the dust cover 311, thereby ensuring the cleanliness of the surfaces of the first cutting wheel 332 and the second cutting wheel 334 and improving the cutting effect.

[0045] In order to facilitate use, with reference to Figure 1 and Figure 2The sliding platform 2 is rotationally provided with a take-up roller 24 in the vertical direction, and the sliding platform 2 is further rotationally provided with an auxiliary gear 242 coaxially fixedly connected with the take-up roller 24, and the sliding guide rail of the rack 1 is fixedly provided with an auxiliary rack 121 engaged with the auxiliary gear 242. The second air exhaust pipe 43 is wound around the take-up roller 24, and the sidewall of the take-up roller 24 is fixedly provided with a cylindrical limiting column 241, and the second air exhaust pipe 43 is formed with a limiting ring 431 in the middle and is sleeved on the limiting column 241, and the winding directions of the second air exhaust pipe 43 on the upper and lower sides of the limiting column 241 of the take-up roller 24 are opposite. The auxiliary rod 232 is fixedly arranged on the moving beam 23 in the vertical direction, and the second air exhaust pipe 43 passes through the auxiliary rod 232. When the sliding platform 2 moves and the cutting seat 31 moves for cutting, the auxiliary rack 121 is engaged to drive the auxiliary gear 242 to rotate, thereby driving the take-up roller 24 to rotate, and the take-up roller 24 at both ends is paid out, thereby reducing the possibility of affecting the overall use of the second air exhaust pipe 43.

[0046] In order to improve the cutting accuracy, with reference to Figure 1 The rack 1 is slidably provided with a positioning block 14, which is arranged on the side of the return air cylinder 13 away from the sliding platform 2, and the positioning block 14 is provided with two rotating air cylinders 141, and the piston rod of the rotating air cylinder 141 is fixedly provided with an abutting rod 142, which is rotatably connected with the sidewall of the rotating air cylinder 141, so that the piston rod of the rotating air cylinder 141 can drive the abutting rod 142 to rotate and rise when moving. The surface of the rotating air cylinder 141 is slightly lower than the surface of the driving mechanism, so that the abutting rod 142 can abut against the sidewall of the glass steel grid after rotating. The positioning block 14 is provided with a positioning wheel 143 abutting against the rack 1 to facilitate the sliding of the positioning block 14, and the rack 1 is provided with a positioning bolt 144 for locking and fixing the positioning block 14. According to the size of the glass steel grid, the positioning block 14 is slid and fixed by the positioning bolt 144. When in use, the rotating air cylinder 141 is started to drive the abutting rod 142 to stand up and abut against the glass steel grid. Common driving mechanisms of the rack 1 are long rollers driven by motors. After the abutting rod 142 abuts against the grid, the grid can be temporarily fixed. At this time, the driving air cylinder 214 can be started to drive the insertion block 213 to accurately insert into the grid space, thereby improving the accuracy of subsequent cutting.

[0047] The implementation principle of the embodiment of the application is as follows: before cutting, the rotating cylinder 141 is started to drive the abutting rod 142 to rise, and the grid is blocked by the abutting rod 142 when the grid moves. At this time, the driving cylinder 214 is started to drive the insertion block 213 to insert into the empty space of the grid. Then, the rotating cylinder 141 drives the abutting rod 142 to rotate and no longer abuts against the grid. The grid moves under the driving of the driving mechanism. The sliding platform 2 is moved by the insertion block 213 clamping. When the sliding platform 2 moves, the controller 5 receives the signal of the travel switch 15 to start the moving motor 321, drives the cutting seat 31 to move transversely, and at the same time, the controller 5 starts the first cutting motor 331 and the second cutting motor 333, thereby driving the first cutting wheel 332 and the second cutting wheel 334 to rotate for cutting. The distance sensor 231 is used to monitor the moving position of the cutting seat 31. When the cutting seat 31 moves to the other end of the moving beam 23, the controller 5 controls the moving motor 321 to reverse, thereby driving the cutting seat 31 to move back to the original position. When the cutting seat 31 returns to the original position, the controller 5 controls the pressing cylinder 223 and the driving cylinder 214 to return the piston rod. After a period of time, the controller 5 controls the reset cylinder 13 to push the sliding platform 2 back to the original position. After the sliding platform 2 returns to the original position, the travel switch 15 is automatically reset. At this time, the controller 5 starts the driving cylinder 214 and the pressing cylinder 223 according to the signal of the travel switch 15. The driving cylinder 214 drives the insertion block 213 to insert into the empty space of the subsequent grid (the time for the reset cylinder 13 to push the sliding platform 2 back to the original position and the moving speed of the grid driven by the driving mechanism need to be adjusted in advance, so that the insertion block 213 can be stably inserted into the empty space of the fixed position of the grid). During the cutting process, the sliding platform 2 moves synchronously with the grid, and the movement of the grid does not need to be stopped, thereby improving the continuity of cutting and the efficiency of the whole production.

[0048] The above are preferred embodiments of the application, and do not limit the protection scope of the application. Any equivalent changes made on the basis of the structure, shape and principle of the application should be covered by the protection scope of the application.

Claims

1. Continuous cutting equipment for automated production line of molded fiberglass grating, characterized in that: The system includes a frame (1) and a sliding platform (2) slidably mounted on the frame (1). The sliding direction of the sliding platform (2) is consistent with the transport direction of the fiberglass grating. The sliding platform (2) is equipped with a cutting device (3) for cutting the fiberglass grating. The sliding platform (2) is slidably equipped with several insertion blocks (213). The sliding platform (2) is equipped with a driving component to drive the insertion blocks (213) to insert into the spaces of the fiberglass grating. The frame (1) is equipped with a reset component for resetting the sliding mechanism after the slide. The platform (2) is reset. The cutting device (3) includes a cutting assembly (33), a moving assembly (32), and a cutting seat (31) slidably mounted on the sliding platform (2). The moving assembly (32) is used to drive the cutting seat (31) to move. The cutting assembly (33) is used to cut the fiberglass grating when the cutting seat (31) slides. The cutting assembly (33) includes a first cutting motor (331), a first cutting wheel (332), a second cutting motor (333), and a second cutting wheel (334) mounted on the cutting seat (31). The first cutting motor (331) shaft is connected to the first cutting wheel (332), and the second cutting motor (333) shaft is connected to the second cutting wheel (334). The first cutting wheel (332) and the second cutting wheel (334) are offset. The frame (1) is slidably provided with a positioning block (14). The positioning block (14) is provided with a rotating cylinder (141). The piston rod of the rotating cylinder (141) is provided with an abutment rod (142) that can abut against the fiberglass grating. The rotating cylinder (141) is used to drive the abutment rod (142). The frame (1) is provided with positioning bolts (144) for locking and fixing the positioning block (14) on the frame (1). The sliding platform (2) is provided with a lower pressure frame (21). A lower pressure rod (211) is slidably provided on the lower pressure frame (21). The insertion block (213) is provided on the lower pressure rod (211). The driving component is a driving cylinder (214). The driving cylinder (214) is provided on the lower pressure frame (21). The piston rod of the driving cylinder (214) is connected to the insertion block (213).

2. The continuous cutting equipment for the automated production line of molded fiberglass grating according to claim 1, characterized in that: The moving component (32) includes a moving motor (321), a moving gear (322), and a moving rack (323). A moving beam (23) is provided on the sliding platform (2). The length direction of the moving beam (23) is perpendicular to the moving direction of the sliding platform (2). The cutting seat (31) is slidably disposed on the moving beam (23). The moving rack (323) is disposed on the moving beam (23) along its length direction. The moving gear (322) is rotatably disposed on the cutting seat (31) and meshes with the moving rack (323). The moving motor (321) is disposed on the cutting seat (31). The rotating shaft of the moving motor (321) is connected to the moving gear (322).

3. The continuous cutting equipment for an automated production line of molded fiberglass grating according to claim 1, characterized in that: The cutting seat (31) is provided with a dust cover (311) with a bottom opening. The first cutting wheel (332) and the second cutting wheel (334) are both rotatably mounted inside the dust cover (311) and pass through the opening at the bottom of the dust cover (311). The frame (1) is provided with an air extractor (4). The frame (1) is detachably provided with a cleaning box (42). The air extractor (4) is provided with a first air extraction pipe (41) connected to the cleaning box (42). The cleaning box (42) is provided with a second air extraction pipe (43) connected to the dust cover (311). The cleaning box (42) is provided with a filter structure inside to separate air from debris.

4. The continuous cutting equipment for an automated production line of molded fiberglass grating according to claim 3, characterized in that: The sliding platform (2) is rotatably equipped with a take-up roller (24), and the sliding platform (2) is rotatably equipped with an auxiliary gear (242) connected to the take-up roller (24). The frame (1) is also equipped with an auxiliary rack (121), which meshes with the auxiliary gear (242). The second suction pipe (43) is wound around the take-up roller (24), and the take-up roller (24) is equipped with a limit post (241). The second suction pipe (43) forms a limit ring (431), which is fitted onto the limit post (241). The second suction pipe (43) on the take-up roller (24) located on the upper and lower sides of the limit post (241) is wound in opposite directions.

5. The continuous cutting equipment for an automated production line of molded fiberglass grating according to claim 1, characterized in that: The sliding platform (2) is provided with a clamping frame (22), a clamping rod (221) is slidably provided on the clamping frame (22), a clamping plate (222) is provided on the clamping rod (221), a clamping cylinder (223) is provided on the clamping frame (22), the piston rod of the clamping cylinder (223) is connected to the clamping plate (222), and the clamping plate (222) can abut against the fiberglass grating.

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