Automatic continuous production device for glass steel grating

Abstract

The application discloses a kind of glass steel grating automation continuous production device, it is related to glass steel grating production technical field.The device includes control component, smoothening component, extrusion component, laying component and mould component, the mould component includes partition block, control component includes crosspiece, and upper support plate is fixedly connected on crosspiece, and partition block is slidably connected on crosspiece, smoothening component includes large scraper, and large scraper is rotatably connected on moving plate, extrusion component includes upper transmission gear and upper moving plate, and upper transmission gear is fixedly connected on the first end of transmission vertical shaft, transmission vertical shaft is rotatably connected on screw rod frame, and the first end of force spring is also fixedly connected on screw rod frame, by moving plate on the movement of partition block, solution overflowed or extruded by laying yarn telescopic rod is scraped flat, and it is made to enter the gap between partition block, it is made to be fully contacted with glass fiber, by force spring, after moving plate completes scraping work, it is convenient to reset.

Description

TECHNICAL FIELD

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

[0002] Glass steel grating is a kind of glass fiber reinforced material, unsaturated polyester resin is matrix, through special processing composite and become a kind of plate-shaped material with many empty spaces, glass steel grating can be used as structural material, used as floor, floor trench cover, platform, warship deck, staircase, boardwalk etc. in corrosive environment.

[0003] The patent with announcement number CN103660314B discloses a kind of glass steel grating automatic continuous production device.It includes the laying mechanism, solidification mechanism, grid cutting mechanism after mold demolding, handling mechanism in sequence setting, using the device can realize glass steel grating continuous production, improve production efficiency;And the longitudinal glass steel fiber in the prepared grid is the long fiber of the whole specification consistency.

[0004] In the prior art, when laying yarn, it needs to be laid back and forth on the longitudinal and horizontal lines, and each layer needs to be pressed to make it compact and improve the hardness of the grid. After each compaction, it also needs to be re-injected to make it fully filled into the mold. SUMMARY

[0005] To achieve the above object, the present application provides the following technical scheme: a kind of glass steel grating automatic continuous production device, including control assembly, smoothening component, extrusion component, laying component and mold component, the mold component includes spacer block, spacer block is fixedly connected on the first end of lower pull rod, two side plates are also fixedly connected on the first end of lower pull rod, control assembly includes crossbeam, crossbeam is fixedly connected with upper support plate, spacer block is slidably connected on crossbeam, lower pull plate is fixedly connected on the second end of lower pull rod, the first end of first telescopic rod is rotatably connected on lower pull plate, the second end of first telescopic rod is rotatably connected on short rotary lever, smoothening component includes large scraper, large scraper is rotatably connected on moving plate, both ends of moving plate are rotatably connected with left gear, crossbeam is fixedly connected with rack, crossbeam is also slidably connected with belt, rack is engaged with left gear, left gear is also engaged with belt, extrusion component includes upper transmission gear and upper moving plate, upper transmission gear is fixedly connected on the first end of transmission vertical shaft, transmission vertical shaft is rotatably connected on screw rod holder, first end of screw rod holder is also fixedly connected with the first end of force storage spring, the second end of force storage spring is fixedly connected on upper transmission gear, first end of lower screw rod is rotatably connected on screw rod holder, the second end of lower screw rod is threadedly connected with upper moving plate.

[0006] Preferably, the first end of the long connecting rod is further rotatably connected to the lower pull plate, the second end of the long connecting rod is rotatably connected to the second end of the long rotating rod, the first end of the long rotating rod is frictionally connected to the arc-shaped slot on the upper supporting plate, the long rotating rod is further fixedly connected to the shaft of the short rotating rod, the short rotating rod is rotatably connected to the rack, the first end of the upper supporting plate close to the lower pull plate is fixedly connected with the first end of the first spring, and the second end of the first spring is fixedly connected to the first end of the first telescopic rod.

[0007] Preferably, the troweling assembly further comprises a motor and a transmission gear, the transmission gear is rotatably connected to the cross frame, the first end of a transmission cross shaft is further fixedly connected to the transmission gear, the transmission cross shaft is frictionally connected to the output shaft of the motor through a belt, a right gear is further slidably connected to the cross frame, and the right gear is provided with a right push rod.

[0008] Preferably, the troweling assembly further comprises a hose, the first end of the hose is fixedly connected to the moving plate, the second end of the hose is fixedly connected to the control box, the control box is fixedly connected to the storage box, and the storage box is fixedly connected to the bottom plate support.

[0009] Preferably, the extruding assembly comprises a large motor, the large motor is fixedly connected to the bottom plate support, the output shaft of the large motor is frictionally connected to the first end of the upper threaded rod through a belt, the second end of the upper threaded rod is threadedly connected to the pressing plate, the pressing plate is provided with a pressing rod, the first end of the upper threaded rod is further rotatably connected to the screw rod frame, and the first end of the upper threaded rod is further fixedly connected with the first end of the lower threaded rod.

[0010] Preferably, the first end of the intermediate connecting rod is fixedly connected to the upper moving plate, the second end of the intermediate connecting rod is fixedly connected to the lower moving plate, the lower moving plate is rotatably connected with a lower transmission gear, the upper moving plate and the lower moving plate are slidably connected to the slide rod, the slide rod is fixedly connected to the bottom plate, the second end of the transmission vertical shaft is fixedly connected with a first bevel gear, the second end of the transmission cross shaft is fixedly connected with a second bevel gear, and the first bevel gear is engaged with the second bevel gear.

[0011] Preferably, the laying assembly comprises a sliding table module, the sliding table module is fixedly connected to the vertical frame, the vertical frame is rotatably connected with a glass fiber frame, and the sliding table module is fixedly connected with a yarn laying telescopic rod.

[0012] Preferably, the mold assembly comprises a side moving plate, and the side moving plate is slidably connected to the cross frame.

[0013] The present application provides a kind of glass steel grating automatic continuous production device, with the following beneficial effects:

[0014] 1. The present application is provided with a moving plate and a large scraper, by moving the moving plate on the spacer block, the solution overflowed or squeezed out by the yarn stretching rod is scraped flat and enters the gap between the spacer blocks, so that it is in full contact with the glass fiber.

[0015] 2. The present application is provided with a lower threaded rod and a lower transmission gear, by the delayed contact and transmission of the lower threaded rod and the lower transmission gear, the moving plate is controlled to scrape flat and appropriately refill the solution after the pressing plate completes the downward pressing of the glass fiber.

[0016] 3. The present application is provided with a force storage spring, by the force storage of the force storage spring, the moving plate is reset after completing the scraping work.

[0017] 4. The present application is provided with a long rotating rod and a first spring, by the rotation of the long rotating rod, the long connecting rod pushes the lower pull plate away from the upper support plate, thereby stretching the first spring, controlling the spacer block and the side plate to move downward into the horizontal frame, thereby facilitating the removal of the manufactured glass steel grid. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 It is a schematic diagram of the overall structure of the present application.

[0019] Figure 2 It is a front view of the present application.

[0020] Figure 3 It is a side view of the present application.

[0021] Figure 4 It is Figure 2 the enlarged view of the local structure at A.

[0022] Figure 5 It is a schematic diagram of the structure of the spacer block of the present application.

[0023] Figure 6 It is a schematic diagram of the structure of the side plate of the present application.

[0024] Figure 7 It is Figure 5 the enlarged view of the local structure at B.

[0025] Figure 8 It is Figure 6 the enlarged view of the local structure at C.

[0026] Figure 9 It is Figure 6 the enlarged view of the local structure at D.

[0027] Figure 10 It is a schematic diagram of the structure of the extrusion assembly of the present application.

[0028] Figure 11 It is a schematic diagram of the structure of the control assembly of the present application.

[0029] In the figure: 1-control assembly; 2-smoothing assembly; 3-extrusion assembly; 4-laying assembly; 5-mold assembly; 101-drawing plate; 102-long connecting rod; 103-first spring; 104-first telescopic rod; 105-short rotating rod; 106-long rotating rod; 107-upper support plate; 108-cross frame; 201-large scraper; 202-moving plate; 203-left gear; 204-rack; 205-belt; 206-motor; 207-driving gear; 208-driving cross shaft; 209-right gear; 210-right push rod; 211-left push rod; 212-storage box; 213-control box; 214-hose; 301-large motor; 302-upper threaded rod; 303-lower threaded rod; 304-upper moving plate; 305-intermediate connecting rod; 306-sliding rod; 307-lower moving plate; 308-lower driving gear; 309-upper driving gear; 310-accumulating spring; 311-driving vertical shaft; 312-first bevel gear; 313-second bevel gear; 314-screw rod holder; 315-pressing plate; 401-vertical frame; 402-sliding table module; 403-glass fiber holder; 404-yarn laying telescopic rod; 501-side moving plate; 502-separation block; 503-side plate; 504-drawing rod. DETAILED DESCRIPTION

[0030] The technical solutions of the present application will be further illustrated below by specific embodiments in conjunction with the drawings.

[0031] Please refer to Figures 1 to 11As shown, the present application provides a technical scheme: a kind of glass steel grating automation continuous production device, including control component 1, smearing component 2, extrusion component 3, laying component 4 and mould component 5, the mould component 5 includes spacer block 502, spacer block 502 is fixedly connected on the first end of lower pull rod 504, two side plates 503 are also fixedly connected on the first end of lower pull rod 504, control component 1 includes cross 108, and upper support plate 107 is fixedly connected on cross 108, spacer block 502 is slidably connected on cross 108, lower pull plate 101 is fixedly connected on the second end of lower pull rod 504, the first end of first telescopic rod 104 is rotatably connected on lower pull plate 101, the second end of first telescopic rod 104 is rotatably connected on short transfer rod 105, smearing component 2 includes large scraper 201, and large scraper 201 is rotatably connected on moving plate 202, and both ends of moving plate 202 are rotatably connected with left gear 203, rack 204 is fixedly connected on cross 108, belt 205 is also slidably connected on cross 108, rack 204 is engaged with left gear 203, and left gear 203 is also engaged with belt 205, extrusion component 3 includes upper transmission gear 309 and upper moving plate 304, and upper transmission gear 309 is fixedly connected on the first end of transmission vertical shaft 311, transmission vertical shaft 311 is rotatably connected on screw rod frame 314, the first end of force spring 310 is also fixedly connected on screw rod frame 314, the second end of force spring 310 is fixedly connected on upper transmission gear 309, the first end of lower screw rod 303 is also rotatably connected on screw rod frame 314, and the second end of lower screw rod 303 is threadedly connected with upper moving plate 304.

[0032] The first end of long connecting rod 102 is also rotatably connected on lower pull plate 101, the second end of long connecting rod 102 is rotatably connected on the second end of long transfer rod 106, the first end of long transfer rod 106 is frictionally connected on the arc-shaped groove on upper support plate 107, long transfer rod 106 is also fixedly connected on the shaft of short transfer rod 105, and short transfer rod 105 is rotatably connected on rack 204, and the end of upper support plate 107 close to lower pull plate 101 is fixedly connected with the first end of first spring 103, and the second end of first spring 103 is fixedly connected on the first end of first telescopic rod 104.

[0033] As Figure 11As shown, in use, when the short rotating rod 105 is not subjected to a pushing force, the short rotating rod 105 is in a vertical state, the first spring 103 is in a retracted state, i.e. the lower pulling plate 101 is close to the upper supporting plate 107, and the long rotating rod 106 and the long connecting rod 102 are both in a vertical state, at this time, the grating can be glued and the yarn can be laid, when the grating is solidified, the left gear 203 is driven to move, the right gear 209 on the other side is driven to slide in the sliding groove on the cross frame 108, the right pushing rod 210 on the right gear 209 contacts the short rotating rod 105, the right pushing rod 210 pushes the lower end of the short rotating rod 105, the short rotating rod 105 rotates clockwise, thereby driving the long rotating rod 106 to rotate clockwise, the second end of the long rotating rod 106 drives the second end of the long connecting rod 102 to rotate clockwise, thereby the first end of the long connecting rod 102 pushes the lower pulling plate 101 to move downward, the lower pulling plate 101 pulls the first end of the first telescopic rod 104, thereby stretching the first spring 103, finally the lower pulling plate 101 pulls the second end of the lower pulling rod 504, the spacer block 502 and the side plate 503 on the lower pulling rod 504 fall from the cross frame 108, which is convenient for subsequent removal of the grating.

[0034] The troweling assembly 2 further comprises a motor 206 and a transmission gear 207, the transmission gear 207 is rotationally connected to the cross frame 108, the first end of a transmission cross shaft 208 is further fixedly connected to the transmission gear 207, the transmission cross shaft 208 is frictionally connected to the output shaft of the motor 206 through a belt, the cross frame 108 is further slidably connected to a right gear 209, the right gear 209 is provided with a right pushing rod 210, and the moving plate 202 is fixedly connected to a left pushing rod 211 at an end close to the transmission gear 207.

[0035] The troweling assembly 2 further comprises a hose 214, the first end of the hose 214 is fixedly connected to the moving plate 202, the second end of the hose 214 is fixedly connected to a control box 213, the control box 213 is fixedly connected to a storage box 212, and the storage box 212 is fixedly connected to the bottom plate support.

[0036] The moving plate 202 is provided with an arc surface, when the solution is pushed on the spacer block 502, the solution can return to the spacer block 502 along the arc surface, when the large scraper 201 moves with the moving plate 202, the large scraper 201 rotates after contacting the side plate 503, the side surface of the large scraper 201 contacts the upper surfaces of the spacer block 502 and the side plate 503, thereby scraping the solution on the surfaces.

[0037] As shown in FIG. 1, the troweling assembly 2 comprises a bottom plate support 201, a large scraper 202, a moving plate 203, a control box 204, a storage box 205, a short rotating rod 206, a first spring 207, a long rotating rod 208, a long connecting rod 209, a lower pulling plate 210, a first telescopic rod 211, a lower pulling rod 212, a spacer block 213, and a side plate 214. Figure 7 , Figure 8 and Figure 11As shown, in use, the large scraper 201 is driven to rotate by the belt drive transmission horizontal shaft 208. The transmission horizontal shaft 208 drives the transmission gear 207 to rotate, which drives the belt 205 to slide on the horizontal frame 108. The teeth on the horizontal frame 108 drive the left gear 203 to move on the rack 204, and also drive the right gear 209 on the other side to slide on the groove on the horizontal frame 108, which in turn drives the right push rod 210 to slide on the rack 204, so that when the left push rod 211 and the right push rod 210 move to the end point, they respectively push the upper end and the lower end of the short rotating rod 105. That is, the right gear 209 moves from the right to the left, and the right push rod 210 pushes the lower end of the short rotating rod 105 on the left to make it rotate clockwise. In the initial state, the left gear 203 moves from the left to the right, and the left push rod 211 pushes the upper end of the short rotating rod 105 on the right to control it to rotate clockwise, thereby controlling the lifting of the mold.

[0038] The extrusion assembly 3 comprises a large motor 301 fixedly connected to the bottom plate support. The output shaft of the large motor 301 is frictionally connected to the first end of an upper threaded rod 302 through a belt. The second end of the upper threaded rod 302 is threadedly connected to a pressing plate 315, which is provided with a pressing rod. The first end of the upper threaded rod 302 is also rotatably connected to a screw rod holder 314. The first end of the upper threaded rod 302 is also fixedly connected to the first end of a lower threaded rod 303.

[0039] The first end of the intermediate connecting rod 305 is fixedly connected to the upper moving plate 304, and the second end of the intermediate connecting rod 305 is fixedly connected to the lower moving plate 307. The lower moving plate 307 is rotatably connected to a lower transmission gear 308. The upper moving plate 304 and the lower moving plate 307 are both slidably connected to a sliding rod 306, which is fixedly connected to the bottom plate. The second end of the transmission vertical shaft 311 is fixedly connected to a first bevel gear 312. The second end of the transmission horizontal shaft 208 is fixedly connected to a second bevel gear 313. The first bevel gear 312 is engaged with the second bevel gear 313.

[0040] As shown, Figure 10 As shown, after laying a layer of glass fiber, it needs to be pressed down so that it falls into the gap between the spacers 502 and is compacted to make it more compact. Start the large motor 301 to transmit power to the upper threaded rod 302 through the belt, so that the upper threaded rod 302 rotates. When the upper threaded rod 302 rotates, it drives the lower threaded rod 303 to rotate. The threads on the upper threaded rod 302 drive the upper pressing plate 315 to move downward. One end of the upper threaded rod 302 near the pressing plate 315 is provided with a belt, which connects four upper threaded rods 302 to transmit power and control the pressing plate 315 to press the glass fiber downward and press it into the gap between the spacers 502.

[0041] When the pressing plate 315 is pressed down, the large motor 301 reverses, the control upper threaded rod 302 reverses, thereby driving the lower threaded rod 303 to reverse, and the lower threaded rod 303 drives the upper moving plate 304 to move upwards through the thread, so that the upper moving plate 304 slides on the slide rod 306, the upper moving plate 304 pulls the lower moving plate 307 below through the intermediate connecting rod 305 to slide on the slide rod 306, the lower moving plate 307 moves upwards with the lower transmission gear 308, the lower transmission gear 308 contacts and engages with the upper transmission gear 309, when the lower transmission gear 308 contacts the upper transmission gear 309, the upper moving plate 304 moves to the uppermost of the thread on the lower threaded rod 303, the thread on the lower threaded rod 303 cannot drive the upper moving plate 304 to move upwards, and the lower transmission gear 308 contacts and engages with the second end of the lower threaded rod 303, through the cooperation of the protrusion in the second end of the lower threaded rod 303 and the recess in the lower transmission gear 308, the lower threaded rod 303 drives the lower transmission gear 308 to rotate on the lower moving plate 307, thereby driving the upper transmission gear 309 to rotate, when the upper transmission gear 309 rotates, the torsion spring 310 is twisted, and the first bevel gear 312 is rotated through the transmission vertical shaft 311, the second bevel gear 313 and the transmission horizontal shaft 208 are driven to rotate, thereby driving the belt 205 to rotate, so that the left gear 203 moves on the rack 204, drives the moving plate 202 to move on the partition block 502 and the side moving plate 501, pushes the upper surface of the glue to be flat, and falls into the gap between the partition blocks 502, in this process, the left gear 203 does not drive the moving plate 202 to move to the rightmost end, that is, the left push rod 211 does not contact the short rotating rod 105 on the right.

[0042] The laying assembly 4 comprises a sliding table module 402, the sliding table module 402 is fixedly connected to the vertical frame 401, the vertical frame 401 is rotationally connected with a glass fiber frame 403, and the sliding table module 402 is fixedly connected with a yarn laying telescopic rod 404.

[0043] The mold assembly 5 comprises a side moving plate 501, and the side moving plate 501 is slidingly connected to the horizontal frame 108.

[0044] The horizontal frame 108 is provided with a roller and a conveying device, the product is moved out and contacted with the roller by controlling the side moving plate 501 to slide on the horizontal frame 108, so that the moving-out process of the product is realized.

[0045] As shown in Figure 9 , in use, the yarn laying telescopic rod 404 is controlled to move in the gap between the partition blocks 502 by the sliding table module 402, so that the glass fiber on the glass fiber frame 403 is laid into the gap of the partition blocks 502.

[0046] As shown in Figure 4As shown, in use, the mixed solution is stored in the storage box 212, connected to the moving plate 202 through the hose 214, and injected by moving the moving plate 202, and the extension and retraction of the hose 214 is controlled by the control box 213.

[0047] Working principle: during production, the first spring 103 is pulled upward to support the upper plate 107, thereby driving the lower pull rod 504 to push the partition block 502 and the side plate 503 to slide in the cross frame 108, moving above the cross frame 108, and forming a mold for making a grid together with the side moving plate 501, and after forming the mold, the short rotating rod 105 is in a vertical state.

[0048] Then the motor 206 drives the belt 205 to slide on the cross frame 108, thereby driving the left gear 203 to move on the rack 204, and further driving the moving plate 202 to slide on the side moving plate 501 and the partition block 502, and in the process of moving, the mixed solution is controlled to flow into the gap between the moving plate 202 and the partition block 502 through the hose 214 and the storage box 212, completing the injection process.

[0049] After injection, the yarn laying extension rod 404 is controlled to move in the gap between the partition blocks 502 by the sliding table module 402 to lay the glass fiber, and then the yarn laying extension rod 404 is retracted after laying each layer to avoid interference when the moving plate 202 moves, the large motor 301 is started to control the rotation of the upper threaded rod 302, the upper end of the upper threaded rod 302 drives the pressing plate 315 to move downward to extrude the glass fiber into the gap between the partition blocks 502, after pressing downward, the upper threaded rod 302 is reversed to control the upward movement of the pressing plate 315, and after the pressing plate 315 moves upward for a period of time, the lower transmission gear 308 contacts the second end of the lower threaded rod 303, thereby controlling the rotation of the lower transmission gear 308, and further driving through the upper transmission gear 309 to control the movement of the left gear 203 and the moving plate 202, pushing the solution on the partition block 502 into the gap between the partition blocks 502, and storing energy by the force storage spring 310 when the upper transmission gear 309 rotates, so that the pressing plate 315 moves to the uppermost position, and after the moving plate 202 moves to the right end, the force stored by the force storage spring 310 can drive the moving plate 202 to move to the left, and the hose 214 is pulled by the control box 213 to move the moving plate 202 towards the storage box 212. During the movement of the moving plate 202, injection can be appropriately performed according to the situation to supplement the solution on the partition block 502, to make up for the leakage of the solution caused by the movement of the yarn laying extension rod 404 to extrude part of the solution out of the partition block 502, or even outside the side moving plate 501.

[0050] After the glass fiber is fully laid, it is cooled by external equipment, and after it is completely cooled, it can be removed. Start the motor 206, actively control the left gear 203 to move on the rack 204, drive the moving plate 202 to move to the rightmost end, at the same time, the right gear 209 moves to the leftmost end, so that the left push rod 211 and the right push rod 210 respectively push the short connecting rod 105, thereby controlling the long connecting rod 106 to rotate, pushing the lower pull plate 101 away from the upper support plate 107 through the long connecting rod 102, so that the spacer block 502 and the side moving plate 501 fall down, exposing the glass steel grid. When the left push rod 211 pushes the short connecting rod 105 to rotate, the left gear 203 moves to the rightmost end, and the moving plate 202 has been separated from the side plate 503 and the side moving plate 501 at this time. The large scraper 201 on the moving plate 202 is not blocked and falls freely. Then stop the motor 206, and the glass steel grid is removed by the transmission wheel on the side moving plate 501 and the horizontal frame 108. The moving plate 202 is reset under the action of the motor 206 and the force storage spring 310.

Claims

1. A kind of glass steel grating automation continuous production device, including control component (1), smoothening component (2), extrusion component (3), laying component (4) and mould component (5), it is characterized by: The mold assembly (5) comprises a spacer block (502) fixedly connected to the first end of a lower pull rod (504), two side plates (503) also fixedly connected to the first end of the lower pull rod (504), the control assembly (1) comprises a cross frame (108) with an upper supporting plate (107) fixedly connected thereto, the spacer block (502) is slidingly connected to the cross frame (108), the second end of the lower pull rod (504) is fixedly connected with a lower pull plate (101), the first end of a first telescopic rod (104) is rotatably connected to the lower pull plate (101), the second end of the first telescopic rod (104) is rotatably connected to a short rotating rod (105), the smoothing assembly (2) comprises a large scraper (201) rotatably connected to a moving plate (202), both ends of the moving plate (202) are rotatably connected with a left gear (203), a rack (204) is fixedly connected to the cross frame (108), a belt (205) is also slidingly connected to the cross frame (108), the rack (204) is engaged with the left gear (203), the left gear (203) is also engaged with the belt (205), the extrusion assembly (3) comprises an upper transmission gear (309) and an upper moving plate (304), the upper transmission gear (309) is fixedly connected to the first end of a transmission vertical shaft (311), the transmission vertical shaft (311) is rotatably connected to a screw rod frame (314), the first end of a force storage spring (310) is also fixedly connected to the screw rod frame (314), the second end of the force storage spring (310) is fixedly connected to the upper transmission gear (309), the first end of a lower threaded rod (303) is also rotatably connected to the screw rod frame (314), the second end of the lower threaded rod (303) is threadedly connected with the upper moving plate (304); The first end of a long connecting rod (102) is also rotatably connected to the lower pull plate (101), the second end of the long connecting rod (102) is rotatably connected to the second end of a long rotating rod (106), the first end of the long rotating rod (106) is frictionally connected to an arc-shaped groove on the upper supporting plate (107), the long rotating rod (106) is also fixedly connected to the shaft of the short rotating rod (105), the short rotating rod (105) is rotatably connected to the rack (204), the end of the upper supporting plate (107) close to the lower pull plate (101) is fixedly connected with the first end of a first spring (103), the second end of the first spring (103) is fixedly connected to the first end of the first telescopic rod (104); The smoothing assembly (2) further comprises a motor (206) and a transmission gear (207), the transmission gear (207) is rotatably connected to the cross frame (108), the first end of a transmission horizontal shaft (208) is also fixedly connected to the transmission gear (207), the transmission horizontal shaft (208) is frictionally connected to the output shaft of the motor (206) through a belt, a right gear (209) is also slidingly connected to the cross frame (108), a right push rod (210) is arranged on the right gear (209), a left push rod (211) is fixedly connected to the end of the moving plate (202) close to the transmission gear (207). The troweling assembly (2) further comprises a hose (214), a first end of the hose (214) is fixedly connected to the moving plate (202), a second end of the hose (214) is fixedly connected to the control box (213), the control box (213) is fixedly connected to the storage box (212), and the storage box (212) is fixedly connected to the bottom plate support; The extruding assembly (3) comprises a large motor (301), the large motor (301) is fixedly connected to the bottom plate support, an output shaft of the large motor (301) is frictionally connected to a first end of an upper threaded rod (302) through a belt, a second end of the upper threaded rod (302) is threadedly connected to a pressing plate (315), the pressing plate (315) is provided with a pressing rod, the first end of the upper threaded rod (302) is further rotationally connected to a screw rod support (314), and the first end of the upper threaded rod (302) is further fixedly connected to a first end of a lower threaded rod (303); The upper moving plate (304) is fixedly connected with a first end of an intermediate connecting rod (305), a second end of the intermediate connecting rod (305) is fixedly connected to a lower moving plate (307), the lower moving plate (307) is rotationally connected with a lower transmission gear (308), the upper moving plate (304) and the lower moving plate (307) are both slidingly connected to a slide rod (306), the slide rod (306) is fixedly connected to the bottom plate, a second end of the transmission vertical shaft (311) is fixedly connected with a first bevel gear (312), a second end of the transmission horizontal shaft (208) is fixedly connected with a second bevel gear (313), and the first bevel gear (312) is engaged with the second bevel gear (313).

2. The automatic continuous production device for glass fiber reinforced plastic grating according to claim 1, characterized in that: The laying assembly (4) comprises a sliding table module (402), the sliding table module (402) is fixedly connected to a vertical support (401), the vertical support (401) is rotationally connected with a glass fiber support (403), and the sliding table module (402) is fixedly connected with a yarn laying telescopic rod (404).

3. The automatic continuous production device for glass fiber reinforced plastic grating according to claim 1, characterized in that: The mold assembly (5) comprises a side moving plate (501), and the side moving plate (501) is slidingly connected to the horizontal support (108).

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