Automatic processing equipment for glass fiber mesh

Abstract

The present application relates to the field of glass fiber mesh cloth, especially to a kind of glass fiber mesh cloth automation processing equipment.The prior art, easy to appear block eye missing or is the phenomenon of glue block adhesion, cleaning effect is poor.Technical scheme is: a kind of glass fiber mesh cloth automation processing equipment, including mounting frame, round bar, disc and connecting barrel etc.;mounting frame is fixedly connected with round bar;Round bar is rotatably connected with several symmetrically distributed discs;All discs are commonly provided with a connecting barrel.The present application is stretched out by annular air bag one and annular air bag two multiple times, pretreats mesh cloth, so that the beating mechanism can easily beat down the glue block on the mesh eye when beating mesh cloth, avoid the glue block residue in the mesh eye of mesh cloth, solve the problem that only simple knocking is carried out on mesh cloth in prior art, easy to appear missing or is the phenomenon of glue block adhesion, cleaning effect is poor.

Description

Technical Field

[0001] This invention relates to the field of glass fiber mesh processing, and more particularly to an automated processing equipment for glass fiber mesh. Background Technology

[0002] Fiberglass mesh is a plain-weave fabric made of untwisted roving. Fiberglass is a high-performance inorganic non-metallic material with advantages such as good insulation, strong heat resistance, good corrosion resistance, and high mechanical strength. To enhance the various properties of fiberglass mesh, such as alkali resistance and acid resistance, a layer of resin adhesive is usually applied to the surface of the fiberglass mesh. However, the adhesive is applied to the entire mesh, making it easy for the mesh openings to become clogged with adhesive, which affects the product quality. In current technology, the clogged openings are usually cleaned after the adhesive is applied, which not only increases the workload but also makes the clogged areas more difficult to clean because the fiberglass mesh is rolled up and then unrolled, which can compress the adhesive.

[0003] Existing Chinese patent: A fiberglass mesh cleaning system (CN219490483U); This device can complete the cleaning of clogged holes during the winding process, and the winding and cleaning are carried out simultaneously to avoid omissions in cleaning clogged holes. It has a simple structure, high efficiency, and ensures product quality. However, this device only performs simple tapping on the fiberglass mesh, which is prone to omissions or glue blockage, resulting in poor cleaning effect and needs improvement. Summary of the Invention

[0004] To overcome the shortcomings of the problems mentioned in the background, the present invention provides an automated processing equipment for glass fiber mesh.

[0005] The technical solution is: an automated processing equipment for fiberglass mesh, comprising a mounting frame, a round rod, discs, a connecting cylinder, an electrically driven roller 1, an electrically driven roller 2, an electrically driven conveyor roller, a guide roller, a connecting plate, a scraper 1, and a beating mechanism; the mounting frame is fixedly connected to the round rod; the round rod is rotatably connected to several symmetrically distributed discs; all discs are connected to a common connecting cylinder; the mounting frame is equipped with electrically driven roller 1; the mounting frame is equipped with electrically driven roller 2; the mounting frame is equipped with an electrically driven conveyor roller; the mounting frame is rotatably connected to a guide roller; the mounting... The frame is fixedly connected to a connecting plate; a scraper is fixedly connected to the connecting plate; the mounting frame is equipped with a patting mechanism for patting the mesh fabric; it also includes an annular airbag, a tube frame, an annular airbag, and a tube frame; the rotating part of the electrically driven roller is equipped with an annular airbag; the rotating part of the electrically driven roller is fixedly connected to the tube frame, and the tube frame passes through the electrically driven roller and communicates with the annular airbag; the rotating part of the electrically driven roller is equipped with an annular airbag; the rotating part of the electrically driven roller is fixedly connected to the tube frame, and the tube frame passes through the electrically driven roller and communicates with the annular airbag.

[0006] Furthermore, the connecting cylinder is designed with a mesh structure.

[0007] Furthermore, the scraper is set to be tilted with the left side higher than the right side.

[0008] Furthermore, the slapping mechanism includes an electric push rod 1, a slapping block 1, an electric push rod 2, and a slapping block 2; a mounting frame is fixedly connected to several electric push rods 1; the telescopic parts of all electric push rods 1 are jointly fixedly connected to a slapping block 1, and the slapping block 1 is located between the electric drive roller 1 and the electric drive roller 2; a mounting frame is fixedly connected to several electric push rods 2; the telescopic parts of all electric push rods 2 are jointly fixedly connected to a slapping block 2, and the slapping block 2 is located between the electric drive roller 2 and the electric drive conveyor roller.

[0009] Furthermore, the striking mechanism also includes an electric push rod three and a pressure rod; several electric push rod three are arranged directly above the striking block one, and several other electric push rod three are arranged directly above the striking block two; the telescopic parts of the electric push rod three at the same horizontal height are rotatably connected to a pressure rod.

[0010] Furthermore, both the first and second striking blocks are designed as plate-like structures.

[0011] Furthermore, both the first and second striking blocks are made of hard rubber.

[0012] Furthermore, it also includes a connecting sleeve and a second scraper; the round rod is fixedly connected to the connecting sleeve; the connecting sleeve is fixedly connected to the second scraper, and the second scraper is close to the inner side of the connecting cylinder.

[0013] Furthermore, the annular airbag one has several air jet holes one; the annular airbag two has several air jet holes two; each air jet hole one and air jet hole two is provided with a self-sealing membrane.

[0014] Furthermore, both jet nozzle one and jet nozzle two are designed as a trumpet-shaped structure with a larger inner diameter and a smaller outer diameter.

[0015] The beneficial effects are as follows: The present invention uses annular airbag one and annular airbag two to repeatedly expand the mesh cloth, pre-treating the mesh cloth so that when the beating mechanism beats the mesh cloth, it can easily knock off the adhesive blocks on the mesh holes, avoiding the presence of adhesive block residue in the mesh holes of the mesh cloth. This solves the problem in the prior art that simply tapping the mesh cloth easily leads to omissions or adhesive block adhesion, resulting in poor cleaning effect.

[0016] This invention uses a connecting cylinder with a mesh structure to receive the mesh fabric, allowing the adhesive burrs on the mesh fabric to pass through the mesh holes of the connecting cylinder. This reduces the probability of deformation of the adhesive burrs on the surface of the mesh fabric, thereby reducing the difficulty of subsequent cleaning of the adhesive burrs. Furthermore, when the annular airbag inflates, it causes the adhesive burrs on the mesh fabric to spread to the right, making the roots of the adhesive burrs closer to the scraper. After the mesh fabric with adhesive burrs passes through the scraper, the adhesive burrs on its surface are cleaned, and the surface becomes smooth, further improving the overall production quality of the mesh fabric.

[0017] Before patting, the present invention first controls the mesh cloth to stop moving, and then controls the telescopic part of the electric push rod three to drive the pressure rod downward to press down, so that the mesh cloth presents a "V" shape. Subsequently, the telescopic part of the electric push rod three is controlled to drive the pressure rod upward and away from the mesh cloth. At this time, the mesh cloth is in a loose state. When the patting block one and patting block two pat the mesh cloth, only the area patted by patting block one and patting block two can receive the patting force. The patting force will not be dispersed, avoiding the problem of glue residue due to the decrease in patting effect.

[0018] When the annular airbags one and two inflate to a certain extent, the self-sealing film on the jet nozzles one and two will be blown open by the airflow, allowing the gas inside the annular airbags one and two to be ejected outward from the jet nozzles one and two. This causes the adhesive blocks that have been stretched by the annular airbags one and two and are stuck to the mesh fabric to be washed off, reducing the amount of adhesive blocks stuck to the mesh fabric and further reducing the difficulty of cleaning the patting blocks one and two. In this way, the adhesive blocks on the mesh fabric are treated multiple times, minimizing the possibility of adhesive block leakage or adhesion. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the structure disclosed in this invention;

[0020] Figure 2 This is a schematic diagram of the combined structure of the electric push rod 1, the striking block 1, the electric push rod 2, and the striking block 2 disclosed in this invention;

[0021] Figure 3 This is a schematic diagram of the combined structure of the electric push rod and the pressure rod disclosed in this invention;

[0022] Figure 4 This is a schematic diagram of the combined structure of the electrically driven rotating roller, the annular airbag, and the tube frame of the present invention.

[0023] Figure 5 This is an exploded schematic diagram of the electrically driven rotating roller 1, the annular airbag 1, and the tube frame 1 of the present invention;

[0024] Figure 6 This is a schematic diagram of the combined structure of the connecting sleeve and the second scraper disclosed in this invention.

[0025] Parts and their numbers in the diagram: 1-Mounting bracket, 2-Round rod, 3-Disc, 4-Connecting cylinder, 5-Electric drive roller one, 6-Annular airbag one, 61-Tube frame one, 7-Electric drive roller two, 8-Annular airbag two, 81-Tube frame two, 9-Electric drive conveyor roller, 10-Guide roller, 101-Connecting plate, 102-Scraper one, 201-Electric push rod one, 202-Slapping block one, 203-Electric push rod two, 204-Slapping block two, 301-Electric push rod three, 302-Pressure rod, 401-Connecting sleeve, 402-Scraper two, 001-Mesh cloth, 6a-Air jet hole one, 8a-Air jet hole two. Detailed Implementation

[0026] The technical solution of the present invention will be further described below with reference to the accompanying drawings. Example 1

[0027] An automated processing equipment for fiberglass mesh, such as Figures 1-6 As shown, the device includes a mounting frame 1, a round rod 2, a disc 3, a connecting cylinder 4, an electrically driven roller 5, an electrically driven roller 7, an electrically driven conveyor roller 9, a guide roller 10, a connecting plate 101, a scraper 102, and a striking mechanism. The mounting frame 1 is fixedly connected to the round rod 2. The round rod 2 is rotatably connected to two symmetrically distributed discs 3. All discs 3 are connected by a connecting cylinder 4. The mounting frame 1 is equipped with the electrically driven roller 5, the electrically driven roller 7, and the electrically driven conveyor roller 9. The mounting frame 1 is rotatably connected to the guide roller 10. The mounting frame 1 is bolted to the connecting plate 101, which is bolted to the scraper 102. The mounting frame 1 is equipped with a striking mechanism.

[0028] It also includes an annular airbag 6, a tube frame 61, an annular airbag 8, and a tube frame 81; the annular airbag 6 is provided on the outer side of the rotating part of the electrically driven roller 5; the tube frame 61 is fixedly connected to the rotating part of the electrically driven roller 5, and the tube frame 61 passes through the electrically driven roller 5 and communicates with the annular airbag 6; the annular airbag 8 is provided on the outer side of the rotating part of the electrically driven roller 7; the tube frame 81 is fixedly connected to the rotating part of the electrically driven roller 7, and the tube frame 81 passes through the electrically driven roller 7 and communicates with the annular airbag 8.

[0029] The connecting cylinder 4 is designed with a mesh structure.

[0030] The scraper 102 is set to be tilted with the left side higher than the right side, so that the glue scrapes scraped off the mesh cloth 001 can slide down the tilted scraper 102, preventing glue debris from accumulating on the scraper 102.

[0031] The specific workings of this invention are as follows:

[0032] Connect pipe rack 1 61 and pipe rack 2 81 to the external pumps respectively through connectors;

[0033] First, such as Figure 1 As shown, after the gluing and drying operations are completed, the mesh fabric 001 is sequentially passed around the connecting cylinder 4, the electrically driven roller 5, the electrically driven roller 7, the electrically driven conveying roller 9, and the guide roller 10. Finally, the end of the mesh fabric 001 is wound onto an external winding device. The external winding device winds the mesh fabric 001, causing it to move from right to left. The electrically driven rollers 5 and 7 are controlled to rotate clockwise from a front-to-back perspective. The rotating electrically driven rollers 5 and 7 assist the mesh fabric in its rotation. As the mesh fabric 001 moves, when it passes the annular airbag 6, the external pump injects air into the annular airbag 6 through the pipe frame 61, causing the annular airbag 6 on the electrically driven roller 5 to intermittently expand and contract. The expanding annular airbag 6 stretches the mesh fabric 001 in contact with it. Because the mesh fabric 001 has a certain degree of toughness, while the dried rubber block lacks toughness, when the mesh fabric 001 is stretched open by the annular airbag 6, the warp and weft threads on the mesh fabric 001 separate from the rubber block. This allows the adhesive pads on the mesh of mesh fabric 001 to detach naturally. Similarly, when mesh fabric 001 passes through annular airbag 28, the control pump injects air into annular airbag 28 through pipe frame 281. The expansion of annular airbag 28 causes mesh fabric 001 to expand a second time, separating the warp and weft threads on mesh fabric 001 from the adhesive pads, thus allowing the adhesive pads on the mesh of mesh fabric 001 to detach naturally. Subsequently, after mesh fabric 001 passes through annular airbag 16 and annular airbag 28, the mesh fabric is further agitated by a beating mechanism. The mesh fabric 001 is tapped to separate the adhesive residue adhering to it. In this way, the mesh fabric 001 is repeatedly stretched open by the annular airbags 6 and 8, which pre-treats the mesh fabric 001. This allows the tapping mechanism to easily knock off the adhesive residue from the mesh, avoiding adhesive residue in the mesh. This solves the problem in the prior art where simply tapping the mesh fabric 001 easily leads to omissions or adhesive residue, resulting in poor cleaning effect.

[0034] During the adhesive application process, the uncured adhesive on the fiberglass mesh 001 hangs downwards under the influence of gravity, forming sharp adhesive burrs on the lower surface of the fiberglass mesh 001, posing a safety hazard. Therefore, it is necessary to clean these burrs from the lower surface of the fiberglass mesh 001. Thus, when the mesh 001 with adhesive burrs on its lower surface passes through the scraper 102, this invention uses the scraper 102 to remove the adhesive burrs from the surface of the mesh 001, thereby cleaning the surface of the mesh 001 and improving the overall production quality of the mesh 001.

[0035] Furthermore, in the existing technology, when the mesh fabric 001 is transferred out of the drying equipment, the side of the mesh fabric 001 with burrs will come into contact with and be squeezed against the surface of the guide roller, causing the burrs to deform. This causes the burrs on the surface of the mesh fabric 001 to change from an easy-to-clean protrusion state to a difficult-to-clean clump state, resulting in a decrease in the length of the burrs and an increase in their diameter, which increases the difficulty of subsequent cleaning of the burrs.

[0036] Therefore, when transferring the mesh fabric 001 from the drying equipment, the present invention uses a connecting cylinder 4 with a mesh structure to receive the mesh fabric 001, allowing the adhesive burrs on the mesh fabric 001 to pass through the mesh holes of the connecting cylinder 4, reducing the probability of deformation of the adhesive burrs on the surface of the mesh fabric 001, thereby reducing the difficulty of subsequent cleaning of the adhesive burrs; subsequently, after the mesh fabric 001 is transferred from the connecting cylinder 4 to the annular airbag 6, the side with adhesive burrs faces upward, and when the annular airbag 6 expands, the adhesive burrs on the mesh fabric 001 will spread to the right, making the roots of the adhesive burrs closer to the scraper 102. When the mesh fabric 001 with adhesive burrs passes through the scraper 102, the adhesive burrs on its surface are cleaned, and the surface reaches a flat state, further improving the overall production quality of the mesh fabric 001. Example 2

[0037] Based on Example 1, such as Figure 1-3 As shown, the striking mechanism includes an electric push rod 201, a striking block 202, an electric push rod 203, and a striking block 204; two electric push rods 201 are bolted to the bottom of the mounting frame 1; the telescopic parts of all electric push rods 201 are fixedly connected to a striking block 202, and the striking block 202 is located between the electric drive roller 5 and the electric drive roller 7; two electric push rods 203 are bolted to the mounting frame 1; the telescopic parts of all electric push rods 203 are fixedly connected to a striking block 204, and the striking block 204 is located between the electric drive roller 7 and the electric drive conveyor roller 9.

[0038] The striking mechanism also includes an electric push rod 301 and a pressure rod 302; two electric push rods 301 are arranged directly above the striking block 1 202, and two more electric push rods 301 are arranged directly above the striking block 2 204; the telescopic parts of the electric push rods 301 at the same horizontal height are rotatably connected to a pressure rod 302.

[0039] Both the first striking block 202 and the second striking block 204 are designed as plate structures. Compared with the cylindrical striking structure in the prior art, the plate-shaped first striking block 202 and the second striking block 204 have a larger contact area with the mesh cloth 001, and can strike more adhesive blocks in one go.

[0040] Both the first striking block 202 and the second striking block 204 are made of hard rubber. Compared with metal, the hard rubber material of the first striking block 202 and the second striking block 204 can reduce the damage to the mesh cloth 001.

[0041] The specific operation of the patting mechanism is as follows: When the mesh fabric 001 passes through the patting block 1 202, the telescopic part of the electric push rod 1 201 is controlled to drive the patting block 1 202 to move up and down reciprocally, patting the mesh fabric 001 and causing the adhesive on the mesh of the mesh fabric 001 to be knocked off; similarly, when the mesh fabric 001 passes through the patting block 2 204, the telescopic part of the electric push rod 2 203 is controlled to drive the patting block 2 204 to move up and down reciprocally, patting the mesh fabric 001 and causing the adhesive on the mesh of the mesh fabric 001 to be knocked off.

[0042] It should be noted that after the mesh cloth 001 passes through the electrically driven roller 2 7, the side of the mesh cloth 001 that has not been patted faces upward. The patting block 1 202 pats one side of the mesh cloth 001, while the patting block 204 pats the other side of the mesh cloth 001, so that both sides of the mesh cloth 001 can be patted, ensuring the cleaning effect of the adhesive on the mesh cloth 001.

[0043] In the existing technology, when the mesh cloth 001 is patted, it will be in a taut state because it is being patted and moved at the same time. If the mesh cloth 001 is in a taut state, when the patting block 202 pats a local area of ​​the mesh cloth 001, the mesh cloth 001 will be subjected to force as a whole, resulting in the patting force being dispersed, which reduces the patting and cleaning effect of the adhesive block.

[0044] Therefore, before patting, the present invention first controls the mesh cloth 001 to stop moving, and then controls the telescopic part of the electric push rod 301 to drive the pressure rod 302 to press down, so that the mesh cloth 001 presents a "V" shape. Subsequently, the telescopic part of the electric push rod 301 is controlled to drive the pressure rod 302 to move upward and away from the mesh cloth 001. At this time, the mesh cloth 001 is in a loose state. Then, the patting blocks 1 202 and 2 204 are controlled to move up and down repeatedly to pat the mesh cloth 001. Since the mesh cloth 001 is in a loose state, when the patting blocks 1 202 and 2 204 pat the mesh cloth 001, only the area patted by the patting blocks 1 202 and 2 204 can receive the patting force of the patting blocks 1 202 and 2 204. The patting force will not be dispersed, avoiding the problem of glue residue due to the decrease in patting effect. Example 3

[0045] Based on Example 2, such as Figure 4-6As shown, it also includes a connecting sleeve 401 and a scraper 402; the round rod 2 is fixedly connected to the connecting sleeve 401; the connecting sleeve 401 is fixedly connected to the scraper 402, and the scraper 402 is close to the inner side of the connecting cylinder 4.

[0046] The annular airbag 6 has several air jet holes 6a; the annular airbag 8 has several air jet holes 8a; each air jet hole 6a and air jet hole 8a is provided with a self-sealing membrane.

[0047] Both jet nozzle 1 (6a) and jet nozzle 2 (8a) are designed with a horn-shaped structure that is larger inside and smaller outside. By utilizing Bernoulli's principle, the flow rate of the airflow ejected from jet nozzle 1 (6a) and jet nozzle 2 (8a) is increased, thereby increasing the impact force of the airflow on the adhesive block and improving the cleaning effect.

[0048] The specific workings of this invention are as follows:

[0049] When the mesh cloth 001 is transferred through the mesh connecting cylinder 4, the adhesive burrs will pass through the mesh holes of the mesh connecting cylinder 4 and protrude from the inner side of the connecting cylinder 4. At this time, the disc 3 and the connecting cylinder 4 will rotate as the mesh cloth 001 moves, while the connecting sleeve 401 and the second scraper 402 are in a fixed state. When the adhesive burrs passing through the connecting cylinder 4 come into contact with the second scraper 402, they can scrape off the adhesive burrs on the mesh cloth 001, thereby reducing the difficulty of subsequent cleaning by the first scraper 102.

[0050] Simultaneously, when the annular airbags 6 and 8 inflate to a certain extent, the self-sealing membranes on the jet holes 6a and 8a will be opened by the airflow, allowing the gas inside the annular airbags 6 and 8 to be ejected outwards from the jet holes 6a and 8a. This causes the adhesive blocks that have been stretched by the annular airbags 6 and 8 to the point of adhering to the mesh fabric 001 to be washed off, reducing the amount of adhesive blocks adhering to the mesh fabric 001 and further reducing the difficulty of cleaning the beating blocks 202 and 204. In this way, the adhesive blocks on the mesh of the mesh fabric 001 are treated multiple times, minimizing the possibility of adhesive block leakage or adhesion. When a certain amount of airflow is discharged from the annular airbags 6 and 8, the self-sealing membranes on the jet holes 6a and 8a will close, allowing the annular airbags 6 and 8 to begin the next inflation.

[0051] The above description is only a preferred embodiment of the present invention. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the principle of the present invention, and these improvements and modifications should also be considered within the scope of protection of the present invention.

Claims

1. An automated processing equipment for glass fiber mesh fabric, comprising a mounting frame (1), a round rod (2), a disc (3), a connecting cylinder (4), an electrically driven rotating roller one (5), an electrically driven rotating roller two (7), an electrically driven conveying roller (9), a guide roller (10), a connecting plate (101), a scraper one (102), and a beating mechanism; the mounting frame (1) is fixedly connected to the round rod (2); the round rod (2) is rotatably connected to a plurality of symmetrically distributed discs (3); all the discs (3) are connected together The mounting frame (1) is connected to a connecting cylinder (4); the mounting frame (1) is equipped with an electrically driven rotating roller (5); the mounting frame (1) is equipped with an electrically driven rotating roller (7); the mounting frame (1) is equipped with an electrically driven conveying roller (9); the mounting frame (1) is rotatably connected to a guide roller (10); the mounting frame (1) is fixedly connected to a connecting plate (101); the connecting plate (101) is fixedly connected to a scraper (102); the mounting frame (1) is provided with a beating mechanism for beating the mesh cloth (001); the feature is that, It also includes an annular airbag one (6), a tube frame one (61), an annular airbag two (8) and a tube frame two (81); the rotating part of the electric drive roller one (5) is provided with an annular airbag one (6); the rotating part of the electric drive roller one (5) is fixedly connected to the tube frame one (61), and the tube frame one (61) passes through the electric drive roller one (5) and is connected to the annular airbag one (6); the rotating part of the electric drive roller two (7) is provided with an annular airbag two (8); the rotating part of the electric drive roller two (7) is fixedly connected to the tube frame two (81), and the tube frame two (81) passes through the electric drive roller two (7) and is connected to the annular airbag two (8); The connecting cylinder (4) is configured as a mesh structure; It also includes a connecting sleeve (401) and a scraper (402); the round rod (2) is fixedly connected to the connecting sleeve (401); the connecting sleeve (401) is fixedly connected to the scraper (402), and the scraper (402) is close to the inner side of the connecting cylinder (4); The annular airbag one (6) has several air jet holes one (6a); the annular airbag two (8) has several air jet holes two (8a); each air jet hole one (6a) and air jet hole two (8a) is provided with a self-sealing membrane; Both jet nozzle one (6a) and jet nozzle two (8a) are designed as a horn-shaped structure with the inner part being larger than the outer part.

2. The automated processing equipment for glass fiber mesh fabric according to claim 1, characterized in that, The scraper (102) is set to be tilted with the left side higher than the right side.

3. The automated processing equipment for glass fiber mesh fabric according to claim 1, characterized in that, The slapping mechanism includes an electric push rod 1 (201), a slapping block 1 (202), an electric push rod 2 (203), and a slapping block 2 (204); a mounting frame (1) is fixedly connected to several electric push rods 1 (201); the telescopic parts of all electric push rods 1 (201) are fixedly connected to a slapping block 1 (202), and the slapping block 1 (202) is located between the electric drive roller 1 (5) and the electric drive roller 2 (7); a mounting frame (1) is fixedly connected to several electric push rods 2 (203); the telescopic parts of all electric push rods 2 (203) are fixedly connected to a slapping block 2 (204), and the slapping block 2 (204) is located between the electric drive roller 2 (7) and the electric drive conveyor roller (9).

4. The automated processing equipment for glass fiber mesh fabric according to claim 3, characterized in that, The slapping mechanism also includes an electric push rod (301) and a pressure rod (302); several electric push rods (301) are arranged directly above the slapping block (202), and several other electric push rods (301) are arranged directly above the slapping block (204); the telescopic parts of the electric push rods (301) at the same horizontal height are rotatably connected to a pressure rod (302).

5. The automated processing equipment for glass fiber mesh fabric according to claim 4, characterized in that, Both the first striking block (202) and the second striking block (204) are designed as plate structures.

6. The automated processing equipment for glass fiber mesh fabric according to claim 5, characterized in that, Both the first striking block (202) and the second striking block (204) are made of hard rubber.

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