A glass fiber mesh fast drying equipment

Abstract

The invention discloses a glass fiber mesh quick drying device, which relates to the technical field of glass fiber mesh processing, and comprises a main body and a drying mechanism. A shaping bin, a fine drying bin and a cleaning bin are provided inside the main body of the device from left to right, and partitions fixed to the inner wall of the main body of the device are provided between the shaping bin and the fine drying bin and the fine drying bin and the cleaning bin. Two cloth-passing holes distributed up and down are provided on the left and right side walls and the two middle partitions of the main body of the device, and a drying mechanism is provided inside the shaping bin. The invention performs double drying and dust removal treatment on the glass fiber mesh by cooperating with a hot air outlet, a warm air outlet and a dust blowing nozzle, wherein the first recovery bin recycles the hot air inside the shaping bin, and the second recovery bin recycles the hot air inside the fine drying bin, thereby effectively ensuring the drying effect and saving energy consumption.

Description

Technical Field

[0001] The invention relates to the technical field of glass fiber mesh cloth processing, in particular to a glass fiber mesh cloth rapid drying device. Background Art

[0002] Fiberglass mesh is often used in the construction field for wall reinforcement, thermal insulation, waterproofing and fire prevention. Fiberglass mesh is manufactured based on different types of glass fibers. During the manufacturing process, the glass fibers will be woven into a mesh structure and then processed through processes such as impregnation, coating, and drying to increase their strength and chemical corrosion resistance.

[0003] At present, a long drying tunnel or a drum is usually used to continuously dry a single glass fiber mesh, but a long drying tunnel will take up a lot of space, and the efficiency of drying a single glass fiber mesh at a time needs to be improved; secondly, a hot air blower is usually used to blow hot air to the glass fiber mesh during the drying process to accelerate the evaporation of water, but when the hot air is concentrated in a certain area, it will cause the temperature to be too high, which will cause damage to the glass fiber mesh; furthermore, during the drying process, the air in the humidifier or the antistatic agent is usually sprayed to reduce the static electricity generated by the glass fiber mesh during the drying process, but excessive spraying of the antistatic agent will lead to waste of the antistatic agent and affect the drying effect of the glass fiber mesh, and too little antistatic agent spraying will not have an effective antistatic effect; in addition, before winding and discharging, the moving glass fiber mesh is conveyed to the dust removal brush to clean the surface of the glass fiber mesh, but the impurities in the mesh gaps of the glass fiber mesh are not easy to be cleaned.

[0004] Therefore, in order to improve the drying efficiency of the glass fiber mesh and prevent the glass fiber mesh from being damaged, the present invention provides a glass fiber mesh rapid drying device. Summary of the invention

[0005] The purpose of the present invention is to solve the problems existing in the prior art and to propose a glass fiber mesh cloth rapid drying device.

[0006] In order to achieve the above-mentioned purpose, the present invention adopts the following technical scheme: a glass fiber mesh cloth rapid drying equipment, including an equipment main body and a drying mechanism, the interior of the equipment main body is provided with a shaping bin, a fine drying bin and a cleaning bin from left to right, and partitions fixed to the inner wall of the equipment main body are provided between the shaping bin and the fine drying bin and between the fine drying bin and the cleaning bin, two cloth passing holes symmetrically distributed up and down are provided on the left and right side walls and the two middle partitions of the equipment main body, and a drying mechanism is provided inside the shaping bin.

[0007] The drying mechanism 1 includes multiple tensioning components 1 and multiple tensioning components 2, and the multiple tensioning components 1 and tensioning components 2 are staggeredly distributed inside the shaping bin from left to right, and the tensioning component 2 includes two tensioning rollers 2 symmetrically distributed up and down, two gears 4 and two gears 5 coaxially fixedly connected to the gears 4 and meshing with each other, wherein the rear side wall of one of the gears 4 is coaxially fixedly connected with a support cylinder, and the side wall of the support cylinder is provided with multiple hot air outlets along the circumferential direction; the interior of the fine drying bin is provided with a drying mechanism 2, and the interior of the cleaning bin is provided with a dust blowing mechanism and a cleaning mechanism from left to right.

[0008] In the above-mentioned glass fiber mesh quick drying equipment, the tensioning component 1 includes two tensioning rollers 1 symmetrically distributed up and down and two meshingly connected gears 2, the front side wall of the tensioning roller 1 is coaxially connected with gear 1, the gear 2 is meshingly connected to the corresponding gear 1, and the tensioning roller 1, gear 1 and gear 2 are all rotatably connected to the front side of the equipment body, and the centers of gear 1 and gear 2 are on the same vertical line.

[0009] In the above-mentioned glass fiber mesh quick drying equipment, the front side wall of the tensioning roller 2 is coaxially connected with the gear 3, and the gear 3 and the corresponding gear 4 are jointly meshed and connected with a toothed belt, and the tensioning roller 2, gear 3, gear 4, and gear 5 are all rotatably connected to the front side of the equipment body.

[0010] In the above-mentioned glass fiber mesh cloth rapid drying equipment, the drying mechanism 2 includes a supporting mesh plate, two fine drying components and two anti-static components which are symmetrically distributed up and down with the supporting mesh plate as the center, the supporting mesh plate is arranged in the middle of the fine drying bin, and the front and rear side walls of the supporting mesh plate are both snap-connected to the front and rear inner walls of the equipment body, the fine drying component includes a plurality of recovery bins 1, and the front inner wall of the equipment body is fixedly connected with a recovery bin 1, the interior of the recovery bin 1 is slidably connected to a drying net box 1, and the front and rear side walls of the recovery bin 1 are rotatably connected to smoothing rollers through fixed vertical plates.

[0011] In the above-mentioned glass fiber mesh rapid drying equipment, the outer wall of the recovery bin one side close to the supporting mesh plate is connected to the fine drying bin through a plurality of warm air outlets symmetrically distributed on the left and right sides, and the exhaust pipe one on the recovery bin one on the left side of the fine drying bin is fixedly penetrated through the partition and connected to the shaping bin, and the multiple recovery bins one of the fine drying components are connected through a ventilation duct one.

[0012] In the above-mentioned glass fiber mesh cloth rapid drying equipment, the anti-static component includes an electrostatic agent bin, and the front inner wall of the equipment body is fixedly connected to the electrostatic agent bin, the recovery bin 1 and the electrostatic agent bin are staggered, and a plurality of electrostatic agent spray heads evenly distributed front and back are fixed to the middle of the outer wall of the electrostatic agent bin close to the supporting mesh plate, and a pressing head is installed on the left wall of the electrostatic agent spray head, and an inverted U-shaped support is fixedly connected to the left part of the outer wall of the electrostatic agent bin close to the supporting mesh plate, and a spray head is connected to the inverted U-shaped support by a spring for sliding left and right.

[0013] In the above-mentioned glass fiber mesh cloth rapid drying equipment, the spot spraying part is composed of a long rod, a short rod symmetrically fixed on the front and rear sides of the left side wall of the long rod, and a protrusion fixed on the left end of the short rod, and the front and rear side walls of the shaft rod of the smoothing roller are fixedly connected with a toggle disk, and the toggle disk corresponds one by one to the protrusion of the spot spraying part.

[0014] In the above-mentioned glass fiber mesh cloth rapid drying equipment, the dust blowing mechanism includes a recovery bin two, and the front inner wall of the equipment body is fixedly connected to the recovery bin two, the recovery bin two is connected to the fine drying bin through the exhaust pipe two on the left side wall, and the recovery bin two is connected to the cleaning bin through the dust blowing nozzle on the bottom wall, the interior of the recovery bin two is connected to a drying net box two for front-to-back sliding, and the right side wall and the rear side wall of the recovery bin two are connected to two driving parts distributed front and back in the cleaning bin through ventilation duct two, and the driving part is composed of a circular box part facing front and back and a windmill part rotatably connected inside the circular box part.

[0015] In the above-mentioned glass fiber mesh cloth rapid drying device, the cleaning mechanism includes a cam, the four driving members are all fixedly connected to the cam, and the cam is arranged on the outer wall of one side close to the two driving members distributed front and back.

[0016] In the above-mentioned glass fiber mesh quick drying equipment, the side wall of the cam is fitted with a connecting piece, and the connecting piece consists of a rectangular frame, round rods symmetrically fixed on the left and right sides of the rectangular frame, and a slider fixed on the end of the round rod away from the rectangular frame. The two sliders of the two connecting pieces distributed front and back are rotatably connected to the sides close to each other, and the two sliders of the two connecting pieces distributed front and back are slidably connected to the equipment body, and the sides of the sliders of the upper and lower connecting pieces close to each other are rotatably connected to the dust removal roller 2 through an L-shaped block.

[0017] Compared with the existing technology, the advantages of the present invention are: 1. Through the coordination of multiple sets of tensioning components 1 and tensioning components 2 for tensioning, two glass fiber meshes can be processed at the same time, thereby improving the processing efficiency, and the glass fiber mesh wrapped around the outer walls of the tensioning roller 1 and the tensioning roller 2 is transmitted to the right in a wave shape, thereby increasing the drying length of the glass fiber mesh in the shaping bin, and at the same time extending the drying time of the glass fiber mesh in the shaping bin, thereby avoiding the use of a drying tunnel that causes the equipment to occupy a large amount of space.

[0018] 2. Through the coordination of hot air outlets, warm air outlets and dust blowing nozzles, the glass fiber mesh is double dried and dusted. Recovery bin 1 recycles the hot air inside the shaping bin, and recovery bin 2 recycles the hot air inside the fine drying bin, saving energy. The rotating hot air outlet performs large-scale drying when ejecting hot air, so that the glass fiber mesh is shaped, which can prevent the hot air from being concentrated in a certain area and causing excessive temperature, thereby causing damage to the glass fiber mesh. The rotating hot air can increase the air flow inside the shaping bin, which helps to accelerate drying; the glass fiber mesh is further refined and dried through multiple rows of warm air outlets.

[0019] 3. The hot air inside the shaping bin is recycled through the recycling bin one, driving the rotation of the toggle plate and the expansion and contraction of the spring to spray the antistatic agent on the glass fiber mesh to prevent the glass fiber mesh from generating static electricity during the drying process. The spot spraying method can ensure the antistatic effect while preventing the waste and excessive spraying of the antistatic agent to affect the drying effect of the glass fiber mesh; the gas inside the fine drying bin is recycled through the recycling bin two, driving the windmill part of the driving part to rotate, so that the dust removal rollers one and two can move back and forth on the glass fiber mesh to remove dust on both sides, thereby improving the dust removal efficiency and thus improving the quality of the output material. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] The specific implementation modes of the present invention are further described in detail below in conjunction with the accompanying drawings.

[0021] in: Figure 1 The present invention provides a schematic diagram of the overall structure of a glass fiber mesh rapid drying device.

[0022] Figure 2 This is a structural schematic diagram of a drying mechanism 1 of a glass fiber mesh rapid drying equipment proposed by the present invention.

[0023] Figure 3 This is a structural schematic diagram of a tensioning component 2 of a glass fiber mesh quick drying device proposed by the present invention.

[0024] Figure 4 This is a structural schematic diagram of a drying mechanism 2 of a glass fiber mesh quick drying device proposed by the present invention.

[0025] Figure 5 This is a partial structural schematic diagram of a fine drying component of a glass fiber mesh quick drying device proposed by the present invention.

[0026] Figure 6 for Figure 5 A schematic diagram of the structure from another perspective.

[0027] Figure 7 This is a schematic structural diagram of an anti-static component of a glass fiber mesh quick drying device proposed by the present invention.

[0028] Figure 8 This is a partial structural schematic diagram of an anti-static component of a glass fiber mesh rapid drying device proposed by the present invention.

[0029] Fig. 9 This is a schematic structural diagram of the dust blowing mechanism and cleaning mechanism of a glass fiber mesh quick drying device proposed by the present invention.

[0030] Fig.10 for Fig. 9 A schematic diagram of the structure from another perspective.

[0031] Fig.11 This is a partial structural schematic diagram of a cleaning mechanism of a glass fiber mesh quick drying device proposed by the present invention.

[0032] In the figure: 1. Equipment body; 2. Shaping chamber; 3. Fine drying chamber; 4. Cleaning chamber; 5. Cloth hole; 6. Drying mechanism 1; 61. Tensioning assembly 1; 611. Tensioning roller 1; 612. Gear 1; 613. Gear 2; 62. Tensioning assembly 2; 621. Tensioning roller 2; 622. Gear 3; 623. Toothed belt; 624. Gear 4; 625. Gear 5; 63. Support cylinder; 64. Hot air outlet; 7. Drying mechanism 2; 71. Support mesh; 72. Fine drying assembly; 721. Recovery chamber 1; 722. Exhaust pipe 1; 723 , drying net box one; 724, warm air outlet; 725, smoothing roller; 726, ventilation duct one; 73, anti-static component; 731, electrostatic agent bin; 732, electrostatic agent nozzle; 733, pressing head; 734, inverted U-shaped support; 735, point spray component; 736, toggle plate; 8, dust blowing mechanism; 81, recovery bin two; 82, exhaust pipe two; 83, dust blowing nozzle; 84, drying net box two; 85, ventilation duct two; 86, driving member; 9, cleaning mechanism; 91, cam; 92, connecting member; 93, dust removal roller one; 94, dust removal roller two. DETAILED DESCRIPTION

[0033] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0034] Reference Figure 1A glass fiber mesh rapid drying equipment comprises an equipment body 1 and a drying mechanism 6. A shaping chamber 2, a fine drying chamber 3 and a cleaning chamber 4 are provided inside the equipment body 1 from left to right. Partitions fixed to the inner wall of the equipment body 1 are provided between the shaping chamber 2 and the fine drying chamber 3 and the fine drying chamber 3 and the cleaning chamber 4. Two cloth-passing holes 5 symmetrically distributed up and down are provided on the left and right side walls and the two middle partitions of the equipment body 1. A drying mechanism 6 is provided inside the shaping chamber 2, a drying mechanism 2 is provided inside the fine drying chamber 3, and a dust blowing mechanism 8 and a cleaning mechanism 9 are provided inside the cleaning chamber 4 from left to right.

[0035] The rear side wall of the equipment body 1 is a detachable structure. The rear side wall of the equipment body 1 and the corresponding parts are all snap-fitted and connected to support the parts. The glass fiber mesh cloth is passed through the cloth hole 5 on the left side wall of the equipment body 1, and the glass fiber mesh cloth is tensioned by adjusting the drying mechanism 1 6 inside the shaping bin 2, and a large-scale drying and shaping operation is performed; the hot air inside the shaping bin 2 is recovered by adjusting the drying mechanism 2 7 inside the fine drying bin 3, and the glass fiber mesh cloth is finely dried, and the antistatic agent is sprayed; the air inside the fine drying bin 3 is recovered by adjusting the dust blowing mechanism 8 inside the cleaning bin 4, and the glass fiber mesh cloth is dusted, and the cleaning mechanism 9 is driven by the dust blowing mechanism 8 to perform reciprocating dust removal operations.

[0036] Reference Figures 1 to 3 The drying mechanism 6 includes a plurality of tensioning components 1 61 and a plurality of tensioning components 2 62, which are staggeredly distributed inside the shaping bin 2 from left to right. The tensioning component 1 61 includes two tensioning rollers 1 611 symmetrically distributed up and down and two meshing gears 2 613 connected thereto. The front side wall of the tensioning roller 1 611 is coaxially connected with a gear 1 612, and the gear 2 613 is meshingly connected to the corresponding gear 1 612. The tensioning roller 1 611, the gear 1 612 and the gear 2 613 are all rotatably connected to the front side of the equipment body 1, and the centers of the gear 1 612 and the gear 2 613 are on the same vertical line.

[0037] Reference Figures 1 to 3 The tensioning component 2 62 includes two tensioning rollers 2 621 symmetrically distributed in the upper and lower parts, two gears 4 624 and two gears 5 625 coaxially fixedly connected to the gears 4 624 and meshingly connected to each other, wherein the rear side wall of one of the gears 4 624 is coaxially fixedly connected to a support cylinder 63, and the side wall of the support cylinder 63 is provided with a plurality of hot air outlets 64 along the circumferential direction; the front side wall of the tensioning roller 2 621 is coaxially connected to a gear 3 622, and the gear 3 622 and the corresponding gear 4 624 are meshingly connected to a toothed belt 623, and the tensioning roller 2 621, the gear 3 622, the gear 4 624 and the gear 5 625 are all rotatably connected to the front side of the device body 1.

[0038] Two glass fiber meshes are inserted from the left side wall of the equipment body 1 and finally passed out from the right side wall of the equipment body 1, and the glass fiber meshes are transmitted from left to right through an external traction device. During this process, the glass fiber mesh is inserted between the two corresponding tensioning rollers 611, and the upper glass fiber mesh is upward and the lower glass fiber mesh is downward and is wound around the outside of the tensioning roller 2 621, and this is repeated many times. The glass fiber mesh is tensioned by the tensioning roller 1 611 and the tensioning roller 2 621. Multiple sets of tensioning components 1 61 and tensioning components 2 62 cooperate to process two glass fiber meshes at the same time, thereby improving processing efficiency. The glass fiber mesh wrapped around the outer walls of the tensioning roller 1 611 and the tensioning roller 2 621 is transmitted to the right in a wave shape, thereby increasing the drying length of the glass fiber mesh inside the shaping chamber 2, and at the same time extending the drying time of the glass fiber mesh inside the shaping chamber 2, thereby avoiding the equipment occupying a large amount of space.

[0039] When the glass fiber mesh cloth is transmitted, the tensioning roller 611 and gear 612 on the upper side rotate counterclockwise, the tensioning roller 611 and gear 612 on the lower side rotate clockwise, the gear 2 613 meshing with the gear 1 612 on the upper side rotates clockwise, and the gear 2 613 meshing with the gear 1 612 on the lower side rotates counterclockwise to adapt to the rotation of the tensioning roller 611 and increase the connection stability of the two tensioning rollers 611.

[0040] When the glass fiber mesh cloth is transmitted, the tensioning roller 2 621 and gear 3 622 on the upper side rotate clockwise, and the tensioning roller 2 621 and gear 3 622 on the lower side rotate counterclockwise. The gear 4 624 on the upper side driven by the toothed belt 623 drives the gear 5 625 and the support tube 63 to rotate clockwise, and the gear 4 624 on the lower side driven by the toothed belt 623 drives the gear 5 625 and the support tube 63 to rotate counterclockwise. The two meshing gears 5 625 adapt to the rotation of the tensioning roller 2 621 to increase the transmission stability.

[0041] The pipes inside the support tube 63 and the gear five 625 are rotatably connected to the external hot air blower, and the hot air enters the interior of the shaping chamber 2 through the hot air outlet 64. The support tube 63 drives the hot air outlet 64 to rotate. The rotating hot air outlet 64 performs a large-scale drying when ejecting hot air, so that the glass fiber mesh is initially shaped, which can prevent the hot air from being concentrated in a certain area and causing the temperature to be too high, thereby causing the glass fiber mesh to be damaged. In addition, the rotating hot air can increase the air fluidity inside the shaping chamber 2, which helps to accelerate drying.

[0042] Reference Figure 1 and Figure 4The drying mechanism 2 7 includes a supporting mesh plate 71, two fine drying components 72 and two anti-static components 73 symmetrically distributed up and down with the supporting mesh plate 71 as the center. The supporting mesh plate 71 is arranged in the middle of the fine drying bin 3, and the front and rear side walls of the supporting mesh plate 71 are both snap-fitted and connected to the front and rear inner walls of the equipment body 1.

[0043] Reference Figure 1 , Figure 5 and Figure 6 The fine drying component 72 includes multiple recovery bins 721, the front inner wall of the equipment body 1 is fixedly connected to the recovery bin 721, the interior of the recovery bin 721 is slidably connected to a drying net box 723, and the front and rear side walls of the recovery bin 721 are rotatably connected to a smoothing roller 725 through a fixed vertical plate; the outer wall of the recovery bin 721 on one side close to the supporting net plate 71 is connected to the fine drying bin 3 through multiple warm air outlets 724 symmetrically distributed on the left and right, and the exhaust pipe 722 on the recovery bin 721 on the left side of the fine drying bin 3 is fixedly penetrated through the partition and connected to the shaping bin 2, and the multiple recovery bins 721 of the fine drying component 72 are connected through a ventilation duct 726.

[0044] Reference Figure 1 , Figure 7 and Figure 8 The anti-static component 73 includes an electrostatic agent bin 731, the front inner wall of the equipment body 1 is fixedly connected to the electrostatic agent bin 731, the recovery bin 721 and the electrostatic agent bin 731 are staggered, and a plurality of electrostatic agent spray heads 732 evenly distributed front and back are fixed to the middle of the outer wall of the electrostatic agent bin 731 on one side close to the supporting mesh plate 71, and a pressing head 733 is installed on the left wall of the electrostatic agent spray head 732. An inverted U-shaped support member 734 is fixedly connected to the left part of the outer wall of the electrostatic agent bin 731 on one side close to the supporting mesh plate 71, and a spray member 735 is connected to the inverted U-shaped support member 734 by a spring for sliding left and right.

[0045] Reference Figures 7 and 8 The dot spraying component 735 is composed of a long rod, a short rod symmetrically fixed to the left side wall of the long rod, and a protrusion fixed to the left end of the short rod. The front and rear side walls of the smoothing roller 725 are fixedly connected with a toggle plate 736, and the toggle plate 736 corresponds to the protrusion of the dot spraying component 735 one by one.

[0046] The glass fiber mesh cloth enters the fine drying chamber 3, and the supporting mesh plate 71 plays a role of smoothing and supporting. The recovery chamber 721 sucks the hot air inside the shaping chamber 2 for recycling through the internal air pump and the exhaust pipe 722. The hot air from multiple recovery chambers 721 is transmitted through the ventilation duct 726. After the hot air is dried by the desiccant set in the drying net box 723, the temperature of the hot air is lowered compared to the temperature inside the shaping chamber 2. The hot air with reduced temperature is blown toward the glass fiber mesh cloth through multiple rows of warm air outlets 724 for further fine drying.

[0047] At the same time, as the glass fiber mesh is conveyed, the outer wall of the smoothing roller 725 cooperates with the supporting mesh plate 71 to smooth the glass fiber mesh to prevent the mesh from drying and shrinking and causing deformation. The smoothing roller 725 rotates to drive the toggle plate 736 to rotate. When the toggle plate 736 rotates, the protrusion of the spot spraying member 735 is intermittently toggled, and the spot spraying member 735 moves to the right as a whole. The spring is stretched accordingly, and the long rod of the spot spraying member 735 moves to the right to press the pressing head 733. It should be noted that the pressing head 733 adopts existing mature technologies, such as pressing Pressure-type spray head, the top of the electrostatic agent bin 731 is a detachable structure, and an antistatic agent is arranged inside the electrostatic agent bin 731. The antistatic agent in the electrostatic agent bin 731 is sprayed out through the electrostatic agent spray head 732. With the rotation of the dial 736 and the expansion and contraction of the spring, the glass fiber mesh is intermittently sprayed with the antistatic agent to prevent the glass fiber mesh from generating static electricity during the drying process. The spot spraying method can ensure the antistatic effect while preventing the waste of the antistatic agent and excessive spraying to affect the drying effect of the glass fiber mesh. It should also be noted that the surface of the support mesh 71 is smooth, and in order to further reduce the friction of the glass fiber mesh when it moves, balls can be arranged on the upper and lower surfaces of the support mesh 71.

[0048] Reference Figure 1 , Fig. 9 and Fig.10 The dust blowing mechanism 8 includes a recovery bin 81, a front inner wall of the equipment body 1 is fixedly connected with the recovery bin 81, the recovery bin 81 is fixedly penetrated through the partition by an exhaust pipe 82 on the left side wall and is connected to the fine drying bin 3, the recovery bin 81 is connected to the cleaning bin 4 by a dust blowing nozzle 83 on the bottom wall, the interior of the recovery bin 81 is connected to a drying net box 84 for front-to-back sliding, the right side wall and the rear side wall of the recovery bin 81 are connected to two driving members 86 distributed front and back in the cleaning bin 4 through a ventilation duct 85; the driving member 86 is composed of a circular box member facing front and back and a windmill member rotatably connected inside the circular box member.

[0049] Reference Figure 1 , Figures 8 to 10 The cleaning mechanism 9 includes a cam 91, and the four driving members 86 are fixedly connected to the cam 91. The cam 91 is arranged on the outer wall of the side where the two driving members 86 distributed front and back are close to each other; the side wall of the cam 91 is fitted with a connecting member 92, and the connecting member 92 is composed of a rectangular frame, round rods symmetrically fixed on the left and right sides of the rectangular frame, and a slider fixed at the end of the round rod away from the rectangular frame. A dust removal roller 1 93 is rotatably connected between the sides where the sliders of the two connecting members 92 distributed front and back are close to each other, and the sides where the sliders of the two connecting members 92 distributed front and back are away from each other are slidably connected to the equipment body 1, and the sides where the sliders of the upper and lower connecting members 92 are close to each other are rotatably connected to a dust removal roller 2 94 through an L-shaped block.

[0050] The glass fiber mesh cloth enters the interior of the cleaning chamber 4, and the recovery chamber 2 81 draws the hot air inside the fine drying chamber 3 through the internally arranged air pump and the exhaust pipe 2 82 for secondary recycling. A part of the hot air is dried by the desiccant arranged inside the drying net box 2 84 and then discharged downward through the dust blowing nozzle 83. The gas discharged from the dust blowing nozzle 83 further dries the glass fiber mesh cloth and blows away the dust between the mesh gaps of the glass fiber mesh cloth.

[0051] Another part of the gas in the recovery bin 81 is blown to the driving member 86 through the ventilation duct 85, driving the windmill member of the driving member 86 to rotate, and the windmill member drives the cam 91 to rotate. When the cam 91 rotates, it produces different fitting states with the rectangular frame of the connecting member 92, pushing the connecting member 92 to move back and forth left and right. At the same time, the slider of the connecting member 92 slides back and forth on the inner wall of the equipment body 1, and the connecting member 92 drives the dust removal roller 1 93 and the dust removal roller 2 94 to move left and right, so that the dust removal roller 1 93 and the dust removal roller 2 94 rotate with the transmission of the glass fiber mesh cloth while moving back and forth left and right on the outer wall of the glass fiber mesh cloth, thereby improving the dust removal efficiency. The dust removal roller 2 94 is arranged between the two glass fiber mesh cloths. Specifically, the dust removal roller 1 93 and the dust removal roller 2 94 can be provided with an adhesive layer to remove the dust attached to the upper and lower surfaces of the glass fiber mesh cloth, thereby improving the quality of the output material.

[0052] Reference Figure 1-Figure 11 The specific operation steps of the glass fiber mesh fast drying equipment are as follows: first, two glass fiber meshes are passed through the cloth hole 5 on the left side wall of the equipment body 1, and the glass fiber meshes are tensioned by the tensioning roller 1 611 and the tensioning roller 2 621. The support cylinder 63 drives the hot air outlet 64 to rotate, and the rotating hot air outlet 64 performs a large-scale drying when ejecting hot air; the glass fiber mesh enters the interior of the fine drying chamber 3, and the outer wall of the smoothing roller 725 cooperates with the supporting mesh plate 71 to smooth the glass fiber mesh, and the recovery chamber 1 721 is used to clean the interior of the shaping chamber 2. The hot air is recycled and utilized, and is blown toward the glass fiber mesh through multiple rows of warm air outlets 724 for further fine drying; the antistatic agent is sprayed out through the antistatic agent nozzle 732, and the glass fiber mesh is sprayed with the antistatic agent; the glass fiber mesh enters the interior of the cleaning warehouse 4, the recycling warehouse 2 81 recycles the hot air inside the fine drying warehouse 3, the gas discharged from the dust blowing nozzle 83 dries the glass fiber mesh and blows away the dust between the grid gaps of the glass fiber mesh, and the dust removal roller 1 93 and the dust removal roller 2 94 reciprocate left and right to remove dust on both sides.

[0053] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A glass fiber mesh rapid drying device, comprising a device body (1) and a drying mechanism (6), characterized in that: The interior of the equipment body (1) is provided with a shaping chamber (2), a fine drying chamber (3) and a cleaning chamber (4) from left to right, and a partition plate fixed to the inner wall of the equipment body (1) is provided between the shaping chamber (2) and the fine drying chamber (3) and between the fine drying chamber (3) and the cleaning chamber (4), and two cloth-passing holes (5) symmetrically distributed up and down are provided on the left and right side walls and the two middle partition plates of the equipment body (1), and a drying mechanism (6) is provided inside the shaping chamber (2); The drying mechanism 1 (6) comprises a plurality of tensioning assemblies 1 (61) and a plurality of tensioning assemblies 2 (62), wherein the plurality of tensioning assemblies 1 (61) and tensioning assemblies 2 (62) are staggeredly distributed from left to right inside the shaping bin (2), and the tensioning assembly 2 (62) comprises two tensioning rollers 2 (621) symmetrically distributed up and down, two gears 4 (624) and two gears 5 (625) coaxially fixedly connected to the gears 4 (624) and meshingly connected with each other, wherein a rear side wall of one of the gears 4 (624) is coaxially fixedly connected to a support cylinder (63), and a side wall of the support cylinder (63) is provided with a plurality of hot air ejection outlets (64) along a circumferential direction; The interior of the fine drying chamber (3) is provided with a second drying mechanism (7), and the interior of the cleaning chamber (4) is provided with a dust blowing mechanism (8) and a cleaning mechanism (9) from left to right; The second drying mechanism (7) comprises a supporting mesh plate (71), two fine drying components (72) and two anti-static components (73) symmetrically distributed up and down with the supporting mesh plate (71) as the center, the supporting mesh plate (71) is arranged in the middle of the fine drying bin (3), and the front and rear side walls of the supporting mesh plate (71) are both snap-fitted and connected to the front and rear inner walls of the device body (1), the fine drying component (72) comprises a plurality of recovery bins (721), and the front inner wall of the device body (1) is fixedly connected with the recovery bin (721), the interior of the recovery bin (721) is slidably connected with a drying net box (723) in the front and rear directions, and the front and rear side walls of the recovery bin (721) are rotatably connected with a smoothing roller (725) through a fixed vertical plate; The dust blowing mechanism (8) comprises a second recovery bin (81), and the front inner wall of the equipment body (1) is fixedly connected with the second recovery bin (81), the second recovery bin (81) is connected to the fine drying bin (3) through a second exhaust pipe (82) on the left side wall fixedly penetrating the partition, and the second recovery bin (81) is connected to the cleaning bin (4) through a dust blowing nozzle (83) on the bottom wall, the interior of the second recovery bin (81) is connected to a second drying net box (84) in a front-to-back sliding manner, and the right side wall and the rear side wall of the second recovery bin (81) are connected to two driving member groups distributed front and back in the cleaning bin (4) through a second ventilation duct (85), each driving member group is composed of two driving members (86) distributed up and down, and the driving member (86) is composed of a round box member facing forward and backward and a windmill member rotatably connected inside the round box member; The cleaning mechanism (9) comprises a cam (91), the four driving members (86) are all fixedly connected to the cam (91), and the cam (91) is arranged on an outer wall of one side close to two driving members (86) distributed front and back; The anti-static component (73) comprises an electrostatic agent bin (731), and the front inner wall of the device body (1) is fixedly connected with the electrostatic agent bin (731), the recovery bin 1 (721) and the electrostatic agent bin (731) are arranged alternately, a plurality of electrostatic agent spray heads (732) are fixedly arranged in the middle of the outer wall of the electrostatic agent bin (731) on one side close to the supporting mesh plate (71), and a pressing head (733) is installed on the left wall of the electrostatic agent spray head (732), an inverted U-shaped support member (734) is fixedly connected to the left part of the outer wall of the electrostatic agent bin (731) on one side close to the supporting mesh plate (71), and a spray member (735) is connected to the inverted U-shaped support member (734) by means of a spring for sliding left and right; The point spraying component (735) is composed of a long rod, a short rod symmetrically fixed to the left side wall of the long rod, and a convex block fixed to the left end of the short rod, and the front and rear side walls of the shaft rod of the smoothing roller (725) are fixedly connected with a toggle plate (736), and the toggle plate (736) corresponds to the convex block of the point spraying component (735) one by one; The side wall of the cam (91) is fitted with a connecting piece (92), and the connecting piece (92) is composed of a rectangular frame, round rods symmetrically fixed on the left and right sides of the rectangular frame, and a slider fixed at the end of the round rod away from the rectangular frame. The sides of the sliders of the two connecting pieces (92) distributed front and back are both rotatably connected to a dust removal roller 1 (93), and the sides of the sliders of the two connecting pieces (92) distributed front and back are both slidably connected to the device body (1), and the sides of the sliders of the upper and lower connecting pieces (92) that are close to each other are both rotatably connected to a dust removal roller 2 (94) through an L-shaped block.

2. The glass fiber mesh rapid drying equipment according to claim 1, characterized in that: The tensioning assembly 1 (61) includes two tensioning rollers 1 (611) symmetrically distributed in the upper and lower parts and two meshingly connected gears 2 (613), the front side wall of the tensioning roller 1 (611) is coaxially connected with gear 1 (612), the gear 2 (613) is meshingly connected to the corresponding gear 1 (612), and the tensioning roller 1 (611), gear 1 (612) and gear 2 (613) are all rotatably connected to the front side of the equipment body (1), and the centers of gear 1 (612) and gear 2 (613) are on the same vertical line.

3. The glass fiber mesh rapid drying equipment according to claim 1, characterized in that: The front side wall of the tensioning roller 2 (621) is coaxially connected to the gear 3 (622), and the gear 3 (622) and the corresponding gear 4 (624) are jointly meshed and connected with a toothed belt (623). The tensioning roller 2 (621), gear 3 (622), gear 4 (624), and gear 5 (625) are all rotatably connected to the front side of the device body (1).

4. The glass fiber mesh rapid drying equipment according to claim 3, characterized in that: The outer wall of the recovery bin (721) on one side close to the supporting mesh plate (71) is connected to the fine drying bin (3) through a plurality of warm air outlets (724) symmetrically distributed on the left and right sides; an exhaust pipe (722) on the recovery bin (721) on the left side of the fine drying bin (3) is fixedly passed through the partition and connected to the shaping bin (2); and the plurality of recovery bins (721) of the fine drying assembly (72) are connected through a ventilation duct (726).

Images