Coating equipment for corrosion-resistant glass

Abstract

The utility model relates to the field of coating equipment, in particular to coating equipment for corrosion-resistant glass. The technical problems that according to existing coating equipment for corrosion-resistant glass, glass is often directly placed on a conveying belt to be conveyed forwards, the glass is prone to deviation or sliding off in the conveying process, and the coating effect is reduced are solved, and compared with traditional coating equipment for corrosion-resistant glass, the coating equipment for corrosion-resistant glass has the advantages that the production efficiency is high; comprising a supporting assembly, a fixing assembly, a coating assembly, a curing assembly, a sealing module and a glass sheet, the fixing assembly is arranged to fix the glass sheet in the moving process, so that the glass sheet is not prone to shifting or sliding off, the coating assembly is arranged to conduct coating treatment on the surface of the glass sheet, and the coating effect is good. By arranging the curing assembly, the coating liquid on the glass sheet can be cured, the durability and stability of a film layer are improved, by arranging the sealing module, it can be guaranteed that coating and curing are conducted in a sealed environment, and the coating and curing effects are prevented from being affected by external air.

Description

Technical Field

[0001] The utility model relates to the field of coating equipment, in particular to a coating equipment for corrosion-resistant glass. Background Art

[0002] Glass is an inorganic non-metallic material, generally made from a variety of inorganic minerals as the main raw materials, with a small amount of auxiliary raw materials added. Its main components are silicon dioxide and other oxides. Corrosion-resistant glass is a glass material with high corrosion resistance, capable of maintaining stability and transparency in harsh environments such as acids and alkalis for a long time. This type of glass usually adopts special chemical compositions and manufacturing processes to enhance its corrosion resistance. The coating equipment for corrosion-resistant glass is used to coat a thin film on the surface of corrosion-resistant glass. Existing coating equipment for corrosion-resistant glass usually directly places the glass on a conveyor belt for forward transmission, which is prone to causing the glass to shift or slip during the transmission process, resulting in a decline in the coating effect. Summary of the Utility Model

[0003] In order to overcome the existing coating equipment for corrosion-resistant glass, which usually directly places the glass on a conveyor belt for forward transmission, and is prone to causing the glass to shift or slip during the transmission process, resulting in a decline in the coating effect.

[0004] The technical solution of the utility model is: a coating equipment for corrosion-resistant glass, including a support assembly, a fixing assembly, a coating assembly, a curing assembly, a sealing module, and a glass sheet. A fixing assembly for fixing the glass sheet is provided in the middle of the support assembly. A coating assembly for coating the glass sheet is provided at the upper end of the support assembly. A curing assembly for curing the coated glass sheet is provided along one side of the coating assembly. A sealing module for sealing the coating assembly and the curing assembly is provided at the upper edge side of the support assembly. A glass sheet for coating treatment is fixed on the fixing assembly.

[0005] Preferably, by setting the fixing assembly, the glass sheet can be fixed during the movement process, so that the glass sheet is not prone to shifting or slipping. By setting the coating assembly, the surface of the glass sheet can be coated. By setting the spray head, the coating liquid can be sprayed. By evenly arranging multiple groups of spray heads, the spraying can be made more uniform. By setting the pressure controller, the hydraulic pressure can be adjusted according to different glass and coating requirements. By setting the curing assembly, the coating liquid on the glass sheet can be cured to improve the durability and stability of the film layer. By setting the sealing module, it can ensure that the coating and curing are carried out in a sealed environment, avoiding the influence of external air on the coating and curing effects.

[0006] Preferably, the support assembly includes a workbench and foot columns. Two sets of chutes for the sliding of the fixing assembly are symmetrically opened at the upper end of the workbench. Multiple sets of foot columns for supporting the workbench are symmetrically arranged at the lower edge side of the workbench. By installing the fixing assembly through the chutes, the relevant structures of the fixing assembly can slide along the chutes to drive the glass sheet to move.

[0007] Preferably, the fixing assembly includes a first driving motor, a unidirectional threaded rod, a first slider, a mounting block, a second driving motor, a first bidirectional threaded rod, a second slider, a second bidirectional threaded rod, a third slider, a support block, a protective layer and a third driving motor. Two sets of unidirectional threaded rods are symmetrically arranged. Two first sliders for sliding are symmetrically sleeved on the outer sides of the two sets of unidirectional threaded rods. The first driving motor drives the first slider to move along its surface by driving the unidirectional threaded rod to rotate. A mounting block for installing the first bidirectional threaded rod is provided at the upper end of the first slider. A first bidirectional threaded rod for rotation is provided between two mounting blocks on the same side. Output shafts are provided on both the second driving motor and the third driving motor. The output shaft of the second driving motor extends through the outer side of the mounting block to the inner side to drive the first bidirectional threaded rod to rotate. By setting the second driving motor to drive the first bidirectional threaded rod to rotate, the first bidirectional threaded rod can drive the second slider to slide left and right along its surface to adjust the left and right spacing of the support block.

[0008] Preferably, two second sliders for sliding are symmetrically sleeved on the outer side of the first bidirectional threaded rod. Two second sliders on the same side of the first bidirectional threaded rod are rotationally connected by a second bidirectional threaded rod. The output shaft of the third driving motor extends through the outer side of the second slider to the inner side to drive the second bidirectional threaded rod to rotate. By setting the third driving motor to drive the second bidirectional threaded rod to rotate, the second bidirectional threaded rod can drive the third slider to move back and forth along its surface to adjust the front and back spacing of the support block.

[0009] Preferably, two third sliders for sliding are symmetrically arranged on the outer side of the second bidirectional threaded rod in rotation. A support block for placing the glass sheet is provided at the upper end of the third slider. A protective layer for protecting the glass sheet is attached to the surface of the support block. By providing the protective layer on the support block, it can play a role in protecting the glass sheet and prevent the glass sheet from being damaged due to excessive clamping force.

[0010] Preferably, the coating component includes a first mounting bracket, a heating coil, a control module, a liquid storage tank, a first liquid guide pipe, a second liquid guide pipe, a spray head, a liquid inlet pipe and a pressure controller. The inner wall of the first mounting bracket is symmetrically attached with a heating coil for heating. One end of the heating coil passes through the inner side of the first mounting bracket and extends to the outside to be fixedly connected with a control module for controlling the working state of the heating coil. In the middle of the upper end of the first mounting bracket, there is a liquid storage tank for storing the coating liquid. At the bottom of the liquid storage tank, there is a connecting pipe passing through the upper end of the first mounting bracket and extending to the lower end to communicate with the first liquid guide pipe. On both sides of the first liquid guide pipe, multiple groups of second liquid guide pipes for dispersing the coating liquid are evenly arranged. At the lower ends of the second liquid guide pipes, multiple groups of spray heads for spraying the coating liquid are evenly arranged. In the middle of the upper end of the liquid storage tank, there is a pressure controller for controlling the hydraulic pressure. At the side of the upper end of the liquid storage tank, there is a liquid inlet pipe for pouring the coating liquid. Control valves for controlling the inflow and outflow of the coating liquid are arranged on the outer sides of the liquid inlet pipe and the spray heads. By setting the heating coil, the glass sheet before coating can be heated to evaporate the residual moisture on its surface, avoiding the influence of water vapor on coating. By arranging control valves on the outer sides of each spray head, the control valve on the outer side of the spray head at the corresponding position can be opened according to the size of different glass sheets for spraying coating, avoiding the waste of coating liquid caused by all spray heads being opened.

[0011] Preferably, the curing component includes a second mounting bracket and ultraviolet lamps. The second mounting bracket is arranged with the same structure as the first mounting bracket. Three groups of ultraviolet lamps for irradiating the glass sheet after coating to cure the coating on its surface are evenly arranged on the top of the second mounting bracket. By arranging ultraviolet lamps on the top of the second mounting bracket, the glass sheet can be moved to directly below the ultraviolet lamps through the fixing component, and the surface of the glass sheet can be irradiated by the ultraviolet lamps. The film layer is cured through the chemical reaction caused by light, thereby improving the durability and stability of the film layer.

[0012] The beneficial effects of the present utility model:

[0013] 1. Compared with traditional coating equipment for corrosion-resistant glass, which usually has a relatively complex structure, the glass is often directly placed on the conveyor belt and conveyed forward. During the conveying process, it is easy for the glass to shift or slip, resulting in a decline in the coating effect. By setting a fixing component, the glass sheet can be fixed during the movement process, so that the glass sheet is not easy to shift or slip. By setting four groups of symmetrically arranged support blocks, they can be used to place the glass. By setting a second driving motor and a third driving motor, the positions of the four groups of support blocks can be adjusted, so that the support blocks can be adjusted according to glass sheets of different sizes and clamped. By setting the second driving motor, it can drive the first bidirectional threaded rod to rotate, so that the first bidirectional threaded rod can drive the second slider to slide left and right along its surface to adjust the left and right spacing of the support blocks, making it applicable to glass sheets of different lengths. By setting the third driving motor, it can drive the second bidirectional threaded rod to rotate, so that the second bidirectional threaded rod can drive the third slider to move back and forth along its surface to adjust the front and back spacing of the support blocks, making it applicable to glass sheets of different widths. By setting a protective layer on the support blocks, it can play a role in protecting the glass sheet and prevent the glass sheet from being damaged due to excessive clamping force. By setting the first driving motor, it can drive the unidirectional threaded rod to rotate, so that the unidirectional threaded rod can drive the four groups of support blocks to move left and right as a whole during rotation to drive the glass sheet to move horizontally, so that it can be moved to the corresponding positions for coating and curing treatments respectively.

[0014] 2. By setting a coating component, the surface of the glass sheet can be coated. By setting a nozzle, it can be used to spray the coating liquid. By evenly arranging multiple groups of nozzles, the spraying can be made more uniform. By setting a pressure controller, the hydraulic pressure can be adjusted according to different glass and coating requirements. By setting a control valve outside each nozzle, it is possible to open the control valve outside the nozzle at the corresponding position according to glass sheets of different sizes for spraying and coating, avoiding waste of the coating liquid caused by all nozzles being opened. By setting a curing component, the coating liquid on the glass sheet can be cured to improve the durability and stability of the film layer. By setting an ultraviolet lamp on the top of the second mounting frame, the glass sheet can be moved directly below the ultraviolet lamp through the fixing component, and the surface of the glass sheet is irradiated by the ultraviolet lamp, and the film layer is cured through the chemical reaction caused by light, so as to play a role in improving the durability and stability of the film layer. By setting a sealing module, it can ensure that the coating and curing are carried out in a sealed environment, avoiding the influence of external air on the coating and curing effects. By setting a heating coil, the glass sheet before coating can be heated to evaporate the residual moisture on its surface and avoid the influence of water vapor on the coating. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 The figure shows an exploded schematic view of a coating device for corrosion-resistant glass of the present utility model;

[0016] Figure 2 Shown is a schematic diagram of a support assembly in a coating device for corrosion-resistant glass of the present utility model;

[0017] Figure 3 Shown is a schematic diagram of a glass sheet in a coating device for corrosion-resistant glass of the present utility model;

[0018] Figure 4 Shown is a schematic diagram of a fixing assembly in a coating device for corrosion-resistant glass of the present utility model;

[0019] Figure 5 Shown is a schematic diagram of a support block in a coating device for corrosion-resistant glass of the present utility model;

[0020] Figure 6 Shown is a schematic diagram of a coating assembly in a coating device for corrosion-resistant glass of the present utility model;

[0021] Figure 7 Shown is a schematic diagram of a nozzle in a coating device for corrosion-resistant glass of the present utility model;

[0022] Figure 8 Shown is a schematic diagram of a curing assembly in a coating device for corrosion-resistant glass of the present utility model.

[0023] Explanation of reference numerals: 1, support assembly; 2, fixing assembly; 3, coating assembly; 4, curing assembly; 5, sealing module; 6, glass sheet; 101, workbench; 102, sliding groove; 103, foot column; 201, first driving motor; 202, one-way threaded rod; 203, first slider; 204, mounting block; 205, second driving motor; 206, first bidirectional threaded rod; 207, second slider; 208, second bidirectional threaded rod; 209, third slider; 210, support block; 211, protective layer; 212, third driving motor; 301, first mounting frame; 302, heating coil; 303, control module; 304, liquid storage tank; 305, first liquid guide pipe; 306, second liquid guide pipe; 307, nozzle; 308, liquid inlet pipe; 309, pressure controller; 401, second mounting frame; 402, ultraviolet lamp. Detailed implementation manners

[0024] The present utility model will be further described below in conjunction with the accompanying drawings and embodiments.

[0025] Please refer to Figure 1-3, the present utility model provides an embodiment: a coating device for corrosion-resistant glass, which includes a support assembly 1, a fixing assembly 2, a coating assembly 3, a curing assembly 4, a sealing module 5 and a glass sheet 6. A fixing assembly 2 for fixing the glass sheet 6 is provided in the middle of the support assembly 1. A coating assembly 3 for coating the glass sheet 6 is provided at the upper end of the support assembly 1. A curing assembly 4 for curing the coated glass sheet 6 is provided along one side of the coating assembly 3. A sealing module 5 for sealing the coating assembly 3 and the curing assembly 4 is provided at the upper end side of the support assembly 1. A glass sheet 6 for coating treatment is fixed on the fixing assembly 2. The support assembly 1 includes a workbench 101 and foot columns 103. Two groups of sliding grooves 102 for the fixing assembly 2 to slide are symmetrically provided at the upper end of the workbench 101. Multiple groups of foot columns 103 for supporting the workbench 101 are symmetrically provided at the lower end side of the workbench 101. By installing the fixing assembly 2 through the sliding grooves 102, the relevant structures of the fixing assembly 2 can slide along the sliding grooves 102 to drive the glass sheet 6 to move.

[0026] Please refer to Figure 4-5, in this embodiment, the fixing component 2 includes a first driving motor 201, a unidirectional threaded rod 202, a first slider 203, a mounting block 204, a second driving motor 205, a first bidirectional threaded rod 206, a second slider 207, a second bidirectional threaded rod 208, a third slider 209, a support block 210, a protective layer 211 and a third driving motor 212. There are two sets of unidirectional threaded rods 202 arranged symmetrically. On the outer sides of the two sets of unidirectional threaded rods 202, there are symmetrically sleeved first sliders 203 for sliding. The first driving motor 201 drives the first slider 203 to move along its surface by driving the unidirectional threaded rod 202 to rotate. At the upper end of the first slider 203, there is a mounting block 204 for mounting the first bidirectional threaded rod 206. Between the two mounting blocks 204 on the same side, there is a first bidirectional threaded rod 206 for rotation. Both the second driving motor 205 and the third driving motor 212 are provided with output shafts. The output shaft of the second driving motor 205 passes through the outer side of the mounting block 204 and extends to the inner side to drive the first bidirectional threaded rod 206 to rotate. By setting the second driving motor 205 to drive the first bidirectional threaded rod 206 to rotate, the first bidirectional threaded rod 206 can drive the second slider 207 to slide left and right along its surface to adjust the left and right spacing of the support block 210. On the outer side of the first bidirectional threaded rod 206, there are symmetrically sleeved two sets of second sliders 207 for sliding. The two second sliders 207 on the same side of the first bidirectional threaded rod 206 are rotationally connected by a second bidirectional threaded rod 208. The output shaft of the third driving motor 212 passes through the outer side of the second slider 207 and extends to the inner side to drive the second bidirectional threaded rod 208 to rotate. By setting the third driving motor 212 to drive the second bidirectional threaded rod 208 to rotate, the second bidirectional threaded rod 208 can drive the third slider 209 to move back and forth along its surface to adjust the front and back spacing of the support block 210. On the outer side of the rotating second bidirectional threaded rod 208, there are symmetrically sleeved two sets of third sliders 209 for sliding. At the upper end of the third slider 209, there is a support block 210 for placing the glass sheet 6. The surface of the support block 210 is fitted with a protective layer 211 for protecting the glass sheet 6. By providing the protective layer 211 on the support block 210, it can play a role in protecting the glass sheet 6 and prevent the glass sheet 6 from being damaged due to excessive clamping force.

[0027] Please refer to Figure 6-7, in this embodiment, the coating component 3 includes a first mounting bracket 301, a heating coil 302, a control module 303, a liquid storage tank 304, a first liquid guide pipe 305, a second liquid guide pipe 306, a spray head 307, a liquid inlet pipe 308 and a pressure controller 309. The inner wall of the first mounting bracket 301 is symmetrically attached with a heating coil 302 for heating on the left and right. One end of the heating coil 302 passes through the inside of the first mounting bracket 301 and extends to the outside to be fixedly connected with a control module 303 for controlling the working state of the heating coil 302. In the middle of the upper end of the first mounting bracket 301, there is a liquid storage tank 304 for storing the coating liquid. At the bottom of the liquid storage tank 304, there is a connecting pipe that passes through the upper end of the first mounting bracket 301 and extends to the lower end to communicate with the first liquid guide pipe 305. On both sides of the first liquid guide pipe 305, a plurality of groups of second liquid guide pipes 306 for dispersing the coating liquid are evenly distributed. At the lower ends of the second liquid guide pipes 306, a plurality of groups of spray heads 307 for spraying the coating liquid are evenly distributed. In the middle of the upper end of the liquid storage tank 304, there is a pressure controller 309 for controlling the liquid pressure. On the side of the upper end of the liquid storage tank 304, there is a liquid inlet pipe 308 for pouring the coating liquid. Control valves for controlling the inflow and outflow of the coating liquid are provided on the outer sides of the liquid inlet pipe 308 and the spray heads 307. By setting the heating coil 302, the glass sheet 6 before coating can be heated to evaporate the residual moisture on its surface, avoiding the influence of water vapor on the coating. By setting control valves on the outer sides of each spray head 307, the control valves on the outer sides of the spray heads 307 at the corresponding positions can be opened according to the size of different glass sheets 6 for spraying and coating, avoiding waste of the coating liquid caused by all the spray heads 307 being opened.

[0028] Please refer to Figure 8 , in this embodiment, the curing component 4 includes a second mounting bracket 401 and an ultraviolet lamp 402. The second mounting bracket 401 is arranged with the same structure as the first mounting bracket 301. At the top of the second mounting bracket 401, three groups of ultraviolet lamps 402 for irradiating the glass sheet 6 after coating to cure the coating on its surface are evenly distributed. By setting the ultraviolet lamp 402 at the top of the second mounting bracket 401, the glass sheet 6 can be moved to directly below the ultraviolet lamp 402 through the fixing component 2, and its surface is irradiated by the ultraviolet lamp 402. The film layer is cured through the chemical reaction caused by light, thereby playing a role in improving the durability and stability of the film layer.

[0029] When working, first adjust the spacing of the support blocks 210 to the corresponding size according to the size of the glass sheet 6. Drive the first bidirectional threaded rod 206 to rotate through the second drive motor 205, so that the first bidirectional threaded rod 206 drives the second slider 207 to slide left and right along its surface to adjust the left and right spacing of the support blocks 210 to make it adapt to the length of the glass sheet 6. Drive the second bidirectional threaded rod 208 to rotate through the third drive motor 212, so that the second bidirectional threaded rod 208 drives the third slider 209 to move back and forth along its surface to adjust the front and back spacing of the support blocks 210 to make it adapt to the width of the glass sheet 6;

[0030] Then place the glass sheet 6 above the four groups of support blocks 210. Through the drive control of the second drive motor 205 and the third drive motor 212, finely adjust the position of the support blocks 210 so that the four groups of support blocks 210 clamp the sides of the glass sheet 6, making the protective layer 211 fit tightly with the glass sheet 6;

[0031] Then drive the glass sheet 6 to move to the position directly below the nozzle 307 inside the first mounting bracket 301 through the first drive motor 201. Drive the unidirectional threaded rod 202 to rotate through the first drive motor 201, so that the unidirectional threaded rod 202 drives the four groups of support blocks 210 to move as a whole in the direction of the coating assembly 3 during rotation, and move the glass sheet 6 to the position directly below the nozzle 307;

[0032] Control the heating coil 302 through the control module 303 to heat the glass sheet 6 to dry the water vapor on the surface of the glass sheet 6;

[0033] After that, close the door of the sealing module 5 to make the internal components in a sealed state and then start coating. After adjusting the hydraulic pressure to an appropriate size through the pressure controller 309, open the control valve of the nozzle 307 corresponding to the glass sheet 6, and use the nozzle 307 to spray the coating liquid on the surface of the glass;

[0034] Then drive the unidirectional threaded rod 202 to rotate through the first drive motor 201, so that the unidirectional threaded rod 202 drives the four groups of support blocks 210 to move as a whole in the direction of the curing assembly 4 during rotation, so that the glass sheet 6 is directly below the ultraviolet lamp 402, and irradiate the surface of the glass sheet 6 with the ultraviolet lamp 402 for an appropriate period of time;

[0035] Finally, open the door of the sealing module 5, move the glass sheet 6 to one end away from the coating assembly 3 through the first drive motor 201, the second drive motor 205 and the third drive motor 212 and loosen the support blocks 210, and take out the coated and cured glass for standby.

[0036] Through the above steps, the staff first adjusts the spacing of the support blocks 210 to the corresponding size according to the size of the glass sheet 6. The second driving motor 205 drives the first bidirectional threaded rod 206 to rotate, so that the first bidirectional threaded rod 206 drives the second slider 207 to slide left and right along its surface to adjust the left and right spacing of the support blocks 210 to match the length of the glass sheet 6. The third driving motor 212 drives the second bidirectional threaded rod 208 to rotate, so that the second bidirectional threaded rod 208 drives the third slider 209 to move back and forth along its surface to adjust the front and rear spacing of the support blocks 210 to match the width of the glass sheet 6. Then, the glass sheet 6 is placed above the four support blocks 210. Through the driving control of the second driving motor 205 and the third driving motor 212, the positions of the support blocks 210 are finely adjusted so that the four support blocks 210 clamp the sides of the glass sheet 6, making the protective layer 211 closely fit with the glass sheet 6. By setting the support blocks 210, the glass sheet 6 can be fixed during the movement process, so that the glass sheet 6 is not prone to deviation or slipping. By setting the protective layer 211 on the support blocks 210, it can protect the glass sheet 6 and prevent the glass sheet 6 from being damaged due to excessive clamping force. Then, the glass sheet 6 is driven by the first driving motor 201 to move to the position directly below the nozzle 307 inside the first mounting frame 301. The first driving motor 201 drives the unidirectional threaded rod 202 to rotate, so that the unidirectional threaded rod 202 drives the four support blocks 210 to move as a whole in the direction of the coating assembly 3 during the rotation process, moving the glass sheet 6 to the position directly below the nozzle 307. The control module 303 controls the heating coil 302 to heat the glass sheet 6 to dry the water vapor on the surface of the glass sheet 6. By setting the heating coil 302, the glass sheet 6 before coating can be heated to evaporate the residual water on its surface to avoid the influence of water vapor on coating. After that, the door of the sealing module 5 is closed, and after the internal components are in a sealed state, coating starts. After the hydraulic pressure is adjusted to an appropriate size by the pressure controller 309, the control valve of the nozzle 307 corresponding to the glass sheet 6 is opened, and the coating liquid is sprayed on the surface of the glass by the nozzle 307. By setting the pressure controller 309, the hydraulic pressure can be adjusted according to different glass and coating requirements. Then, the first driving motor 201 drives the unidirectional threaded rod 202 to rotate, so that the unidirectional threaded rod 202 drives the four support blocks 210 to move as a whole in the direction of the curing assembly 4 during the rotation process, making the glass sheet 6 directly below the ultraviolet lamp 402. The surface of the glass sheet 6 is irradiated by the ultraviolet lamp 402 for an appropriate time. By setting the ultraviolet lamp 402 to irradiate the surface of the coated glass, the film layer is cured through the chemical reaction caused by light, thereby improving the durability and stability of the film layer. Finally, the door of the sealing module 5 is opened,The glass sheet 6 is moved to one end away from the coating module 3 by the first drive motor 201, the second drive motor 205 and the third drive motor 212, and the support block 210 is loosened. Then the glass that has been coated and cured can be taken out for standby. By setting the sealing module 5, it can be ensured that the coating and curing are carried out in a sealed environment, avoiding the influence of external air on the coating and curing effects.

[0037] The embodiments of the present invention have been described in detail above in conjunction with the accompanying drawings. However, the present invention is not limited to the above embodiments. Within the scope of knowledge possessed by those skilled in the art, various changes can also be made without departing from the gist of the present invention.

Claims

1. A coating device for corrosion-resistant glass, comprising a support assembly (1); characterized in that: It also includes a fixing component (2), a coating component (3), a curing component (4), a sealing module (5) and a glass sheet (6). A fixing component (2) for fixing the glass sheet (6) is provided in the middle of the support component (1). A coating component (3) for coating the glass sheet (6) is provided at the upper end of the support component (1). A curing component (4) for curing the coated glass sheet (6) is provided along one side of the coating component (3). A sealing module (5) for sealing the coating component (3) and the curing component (4) is provided at the upper end side of the support component (1). The glass sheet (6) for coating treatment is fixed on the fixing component (2); The fixing component (2) includes a first driving motor (201), a unidirectional threaded rod (202), a first slider (203), a mounting block (204), a second driving motor (205), a first bidirectional threaded rod (206), a second slider (207), a second bidirectional threaded rod (208), a third slider (209), a support block (210), a protective layer (211) and a third driving motor (212). Two groups of unidirectional threaded rods (202) are symmetrically arranged. Two first sliders (203) for sliding are symmetrically sleeved on the outer sides of the two groups of unidirectional threaded rods (202). The first driving motor (201) drives the first slider (203) to move along its surface by driving the unidirectional threaded rod (202) to rotate. A mounting block (204) for mounting the first bidirectional threaded rod (206) is provided at the upper end of the first slider (203). A first bidirectional threaded rod (206) for rotation is provided between the two mounting blocks (204) on the same side. Output shafts are provided on both the second driving motor (205) and the third driving motor (212). The output shaft of the second driving motor (205) passes through the outside of the mounting block (204) and extends to the inside to drive the first bidirectional threaded rod (206) to rotate; Two groups of second sliders (207) for sliding are symmetrically sleeved on the outer side of the first bidirectional threaded rod (206). The two second sliders (207) on the same side on the first bidirectional threaded rod (206) are rotationally connected by a second bidirectional threaded rod (208). The output shaft of the third driving motor (212) passes through the outside of the second slider (207) and extends to the inside to drive the second bidirectional threaded rod (208) to rotate; Two groups of third sliders (209) for sliding are symmetrically arranged on the outer side of the rotating second bidirectional threaded rod (208). A support block (210) for placing the glass sheet (6) is provided at the upper end of the third slider (209). A protective layer (211) for protecting the glass sheet (6) is attached to the surface of the support block (210).

2. The coating device for corrosion-resistant glass according to claim 1, wherein: The support component (1) includes a workbench (101) and foot columns (103). Two groups of sliding grooves (102) for the fixing component (2) are symmetrically opened at the upper end of the workbench (101). A plurality of foot columns (103) for supporting the workbench (101) are symmetrically provided at the lower end side of the workbench (101).

3. A coating device for corrosion-resistant glass according to claim 1, characterized in that: The coating component (3) includes a first mounting frame (301), a heating coil (302), a control module (303), a liquid storage tank (304), a first liquid guide pipe (305), a second liquid guide pipe (306), a spray head (307), a liquid inlet pipe (308) and a pressure controller (309). The inner wall of the first mounting frame (301) is symmetrically attached with a heating coil (302) for heating on the left and right. One end of the heating coil (302) passes through the inside of the first mounting frame (301) and extends to the outside to be fixedly connected with a control module (303) for controlling the working state of the heating coil (302). The middle of the upper end of the first mounting frame (301) is provided with a liquid storage tank (304) for storing the coating liquid. The bottom of the liquid storage tank (304) is provided with a connecting pipe that passes through the upper end of the first mounting frame (301) and extends to the lower end to communicate with the first liquid guide pipe (305). A plurality of groups of second liquid guide pipes (306) for dispersing the coating liquid are evenly distributed on both sides of the first liquid guide pipe (305). A plurality of groups of spray heads (307) for spraying the coating liquid are evenly distributed at the lower ends of the second liquid guide pipes (306). The middle of the upper end of the liquid storage tank (304) is provided with a pressure controller (309) for controlling the hydraulic pressure. The side of the upper end of the liquid storage tank (304) is provided with a liquid inlet pipe (308) for pouring the coating liquid. Control valves for controlling the inlet and outlet of the coating liquid are provided on the outer sides of the liquid inlet pipe (308) and the spray head (307).

4. The coating device for corrosion-resistant glass according to claim 1, characterized in that: The curing component (4) includes a second mounting frame (401) and an ultraviolet lamp (402). The second mounting frame (401) is arranged with the same structure as the first mounting frame (301). Three groups of ultraviolet lamps (402) for irradiating the glass sheet (6) after coating to cure the coating on its surface are evenly distributed on the top of the second mounting frame (401).

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