Rapid glass coating device
By introducing technical means such as spray brushes, wave-type water scrapers and anti-fouling coatings in the glass coating device, the problem of inability to effectively remove viscous contaminants on the glass surface in the prior art is solved, and efficient cleaning and coating quality are achieved Improvement.
Patent Information
- Application Number
- CN202420012655.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-01-03
- Publication Date
- 2024-12-13
- Estimated Expiration
- 2034-01-03
AI Technical Summary
During the cleaning process, existing glass coating devices cannot effectively remove some contaminants with stickiness or firmly bonded on the glass surface, affecting the coating quality.
A glass rapid coating device was designed, including a spray head, brush mechanism, motor, water scraper and water circulation system in the cleaning cover. It is efficiently cleaned by spraying brushes, detergents and physical friction, and is cleaned using wave-type cleaning. The blade increases contact area and elasticity, and combines anti-fouling coating and sewage holes to improve cleaning results.
It achieves efficient and thorough cleaning of the glass surface, improves coating quality and consistency, reduces stain residue, extends the service life of the equipment and reduces maintenance costs.
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Figure CN222160020U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of glass rapid coating devices, and in particular to a glass rapid coating device. Background Art
[0002] As the requirements for glass performance become higher and higher, glass has evolved from the original single function of sheltering from wind and rain to the current multiple functions of environmental protection, energy saving, sound insulation, and aesthetics. The emergence of glass coating devices has improved the optical properties of glass and played a better role in protecting the glass surface.
[0003] At present, the prior art discloses a glass coating device including a frame, a transmission device is bolted to the top of the frame, a first shell is bolted to the top of the transmission device, a nozzle is bolted to the interior of the first shell, the bottom of the nozzle is connected to a nozzle, and a motor is bolted to the top of the first shell. The utility model places the glass on the top of the transmission device for transmission, rinses the glass through the nozzle and the nozzle, and then the motor drives the brush head to brush the top of the glass. After brushing, when the glass is transmitted to the interior of the second shell, the blower and the heating wire are started, the blower blows air, and then the wind is heated by the heating wire to dry the glass surface.
[0004] During storage, the glass before coating is easily contaminated with dust or other pollutants due to poor storage environment, so it needs to be cleaned before coating. However, when cleaning in the cleaning mechanism of the above coating device, the nozzle and brush head in the first shell only use water to rinse and scrub the glass surface, which cannot clean some sticky or firmly attached pollutants on the glass surface, which ultimately affects the coating quality. Utility Model Content
[0005] The utility model provides a glass rapid coating device, which improves the glass cleaning effect and ensures the coating quality.
[0006] The technical solution of the utility model is as follows:
[0007] A glass rapid coating device comprises a conveying mechanism, a cleaning housing, and a coating mechanism. The cleaning housing is provided with a cleaning mechanism, and the cleaning mechanism comprises a motor, a brush mechanism linked to an output shaft of the motor, a nozzle, and a water circulation mechanism connected to the nozzle.
[0008] The brush mechanism includes a spray brush and a cleaning brush, the spray brush is close to the feed port of the cleaning cover, the spray brush is provided with a cleaning component, the cleaning component includes a nozzle, a liquid outlet pipe, and a detergent container, the detergent container is connected to the nozzle through the liquid outlet pipe, a water scraper and a fixing groove for fixing the water scraper are provided on the surface of the cleaning brush, the detergent container is located inside the spray brush, a plurality of liquid outlet holes are provided on the detergent container, the liquid outlet holes are connected to the liquid outlet pipe, a liquid filling port for adding detergent is provided at one end of the detergent container, a water retaining cover is provided above the spray brush, and the water retaining cover is fixedly connected to the inner wall of the cleaning cover.
[0009] Furthermore, the water scraper is slidingly connected to the fixed groove; the cross-section of the fixed groove is trapezoidal, and a cleaning blade is provided at the bottom of the water scraper; the cleaning blade is wavy; a sewage discharge hole is provided on the cleaning blade; and an anti-fouling coating is provided on the surface of the cleaning blade.
[0010] Furthermore, the water circulation mechanism includes a first pumping pipe, a second pumping pipe, a third pumping pipe, a water pump, a water collecting tank, a drainage trough, and the nozzle is connected to the second pumping pipe, the other end of the second pumping pipe is connected to the water outlet of the water pump, the water inlet of the water pump is connected to one end of the first pumping pipe, the other end of the first pumping pipe is connected to the water collecting tank, and one side of the water collecting tank is provided with a third pumping pipe connected to the drainage trough, and the drainage trough is fixedly connected to the bottom of the conveying mechanism.
[0011] Furthermore, the inner wall of the first water pumping pipe is coated with phenolic resin paint; the inner wall of the second water pumping pipe is coated with phenolic resin paint; and the inner wall of the third water pumping pipe is coated with phenolic resin paint.
[0012] Furthermore, the cleaning cover is also provided with a water retaining curtain and a drying mechanism, the water retaining curtain is located between the cleaning mechanism and the drying mechanism, the drying mechanism includes a drying fan and a heating lamp; the drying fan is fixedly connected to the top of the drying mechanism, and the heating lamp is fixedly connected to the inside of the drying mechanism.
[0013] The working principle and beneficial effects of the utility model are:
[0014] 1. A cleaning mechanism is set in the cleaning cover. Through the coordinated use of the nozzle, brush mechanism, motor, water curtain and water scraper in the cleaning mechanism, the glass surface can be efficiently cleaned and pre-treated. The brush mechanism can efficiently and thoroughly clean the glass surface by spraying detergent, physical friction cleaning and water scraper treatment, thereby improving the effect of glass cleaning and ensuring the quality of coating.
[0015] 2. The cleaning blade of the water scraper is wavy, which can increase the contact area between the water scraper and the glass and improve the cleaning effect. The wavy cleaning blade can also change the elasticity of the scraper, so that it can better fit the glass surface. The drainage hole at the bottom of the blade allows water droplets and stains to be discharged from the blade smoothly, reducing the retention of residues. The anti-fouling coating on the surface of the blade can reduce the adhesion of stains on the blade. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] The utility model is further described in detail below in conjunction with the accompanying drawings and specific implementation methods.
[0017] Figure 1 It is a structural schematic diagram of this embodiment;
[0018] Figure 2 is a side sectional view of this embodiment;
[0019] Figure 3 Connected to the water circulation mechanism in this embodiment;
[0020] Figure 4 is a schematic structural diagram of the cleaning blade of this embodiment;
[0021] Figure 5 Schematic diagram of the structure of the spray brush in this embodiment;
[0022] Figure 6 is an enlarged schematic diagram of the cleaning brush in this embodiment;
[0023] Figure 7 is a schematic structural diagram of a detergent container in this embodiment;
[0024] Figure 8 It is a front view of this embodiment.
[0025] In the figure: 1. conveying mechanism; 2. cleaning cover; 201. brush mechanism; 202. water retaining curtain; 203. water scraper; 204. motor; 205. first pumping pipe; 206. water collecting tank; 207. pumping pump; 208. second pumping pipe; 209. nozzle; 210. drying fan; 211. heating lamp; 212. drain trough; 213. third pumping pipe; 214. cleaning mechanism; 215. drying mechanism; 216. water circulation mechanism; 217. spray brush; 218. cleaning blade; 219. fixing groove; 220. drainage hole; 221. antifouling coating; 222. cleaning brush; 223. nozzle; 224. detergent container; 225. liquid outlet pipe; 226. liquid outlet; 227. cleaning component; 228. liquid filling port; 229. water retaining cover; 3. coating mechanism. DETAILED DESCRIPTION
[0026] The following will be combined with the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments of the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.
[0027] like Figure 1-Figure 8 As shown, this embodiment proposes a glass rapid coating device, including a conveying mechanism 1, a cleaning cover 2 located on the conveying mechanism 1, and a coating mechanism 3. The glass is placed on the conveying mechanism 1, and the conveying mechanism 1 includes a roller conveyor belt. The glass first enters the cleaning mechanism 214, and the cleaning mechanism 214 is provided with a nozzle 209, a motor 204, a water curtain 202, and a water scraper 203; a motor 204 and a brush mechanism 201 linked to the output shaft of the motor 204 are provided on one side of the cleaning mechanism 214, and the other end of the brush mechanism 201 is fixedly connected to the cleaning mechanism 214, and the brush mechanism 201 is driven to rotate through the connection between the output shaft of the motor 204 and the brush mechanism 201 to clean the glass. The brush mechanism 201 is provided with a nozzle 223, a liquid outlet pipe 225, and a detergent container 224 in the cleaning component 227, and the cleaning component 227 can provide users with a more efficient, accurate and effective cleaning method. It is also possible to precisely control the rotation speed and direction of the brush mechanism 201, thereby meeting the requirements of different coating processes. Directly connecting the motor 204 to the brush mechanism 201 can reduce the number of transmission components and the space occupied, making the device structure more concise and compact. A centrifugal nozzle 209 is used in the cleaning mechanism 214, and the water flow is centrifugally ejected to form tiny water droplets, which can evenly spray the cleaning liquid onto the target surface, covering a wider area. The centrifugal nozzle 209 is also relatively large in diameter, so the impact of the water flow is strong, which can better wash away dirt and attachments. The centrifugal nozzle 209 can evenly spray the cleaning liquid onto the glass surface, and at the same time has a strong spray force, which can clean dirt and attachments more thoroughly and quickly. The centrifugal nozzle 209 only requires less cleaning liquid and water flow when in use, which can not only save water resources, but also reduce cleaning costs.
[0028] A plurality of nozzles 223 are provided on the side of the spray brush 217, and a detergent container 224 is located inside the spray brush 217. A plurality of liquid outlets 226 are provided on the detergent container 224, and the liquid outlets 226 are connected to the liquid outlet pipe 225. A liquid filling port 228 for adding detergent is provided at one end of the detergent container 224. The detergent container 224 and the nozzle 223 are connected through the liquid outlet pipe 225. The advantage of the detergent container 224 and the nozzle 223 being connected through the liquid outlet pipe 225 is that since a plurality of nozzles 223 are provided on the side of the spray brush 217, and the detergent container 224 is connected to the nozzle 223 through the liquid outlet pipe 225, the detergent can be sprayed evenly without dead angles, thereby improving the cleaning effect. Since a liquid filling port 228 for adding detergent is provided at one end of the detergent container 224, detergent can be added conveniently, thereby avoiding the situation of insufficient detergent during the cleaning process. Alternatively, liquid can be automatically added through a pipeline, and the connection of the pipeline should not be affected by the rotation of the detergent container 224, and the interface can rotate together, which will not be described in detail in this embodiment.
[0029] Since the detergent container 224 is connected to the nozzle 223 through the liquid outlet pipe 225, the spraying amount of the detergent can be accurately controlled, avoiding excessive spraying of the detergent and reducing waste. The cleaning method of the spray brush 217 can effectively clean the stains on the glass surface, thereby achieving a better cleaning effect. The detergent contains the chemical component of sodium hydroxide, which is a strong alkali with high alkalinity and can neutralize acidic substances, remove grease and other organic dirt. The detergent container 224 has a hollow columnar shape, and the brush mechanism 201 shaft passes through the hollow part in the middle and is fixedly connected to the detergent container 224.
[0030] A water retaining cover 229 is provided above the spray brush 217. The advantage of the fixed connection between the water retaining cover 229 and the inner wall of the cleaning cover 2 is that the establishment of the water retaining cover 229 can effectively prevent water and detergent from splashing out during the cleaning process, and keep the surrounding environment dry and tidy. Especially when cleaning requires high water pressure or spraying a large amount of detergent, the water retaining cover 229 can prevent water and detergent from splashing to other areas. The fixed connection of the water retaining cover 229 can provide an additional protective layer to prevent the internal equipment of the cleaning cover 2 from being eroded, damaged or contaminated by water. This can extend the service life of the cleaning equipment and reduce the frequency of maintenance and replacement.
[0031] The water curtain 202 is located between the cleaning mechanism 214 and the drying mechanism 215, and the water curtain 202 can effectively reduce the splashing phenomenon generated when the water flow is sprayed. The existence of the water curtain 202 can make the cleaning process more efficient. It can assist the water scraper 203 to better remove the dirt on the glass surface, and prevent the dirt on the cleaning brush 222 from being carried away by the water flow, ensuring that the cleaning effect is more thorough and stable. The water scraper 203 is connected to the top of the inner wall of the cleaning mechanism 214 to effectively prevent the splashing and side leakage generated during the cleaning process, and ensure the efficient operation of the cleaning equipment. Specifically, this helps to keep the surrounding environment dry and tidy, and avoid water droplets splashing to the outside of the equipment or the surrounding area. The side leakage of water generated during the cleaning process can be effectively prevented. This helps to ensure that the cleaning fluid and dirt are effectively collected and processed, and avoids contaminating the surrounding environment or other parts of the equipment. It can also reduce the accumulation of moisture and corrosion inside the cleaning equipment, which helps to extend the service life of the equipment and reduce maintenance costs. A water scraper 203 is provided on the surface of the cleaning brush 222. The cross section of the water scraper is wavy. The design of the wavy water scraper 203 has the following advantages: the wavy shape can increase the contact area of the scraper, making the scraping more thorough and reducing residual water marks. The wavy shape can effectively collect and guide water to the edge of the scraper to prevent water droplets from dripping on the drum. A fixed groove 219 is provided on the surface of the cleaning brush 222 for fixing the water scraper 203. This design can effectively embed the water scraper 203 on the cleaning brush 222, and the structure of the fixed groove 219 is used to ensure that it maintains a certain contact force and angle with the surface of the cleaning brush 222, and increase the limiting area, and then cooperate with fasteners (such as bolts) for reinforcement to achieve a better cleaning effect. This design can improve cleaning efficiency, reduce the risk of missed brushing or water scraper 203 falling off, and ensure the continuity and stability of the cleaning operation.
[0032] The surface of the cleaning blade 218 of the water scraper 203 is provided with an antifouling coating, which is an antifouling coating 221, which can reduce the contact angle formed by water droplets on the surface of the cleaning blade 218 and enhance the scraping effect, thereby effectively preventing water stains and dirt from accumulating on the surface of the cleaning blade 218. The bottom of the water scraper 203 is provided with a drain hole 220, which can help the blade quickly drain the accumulated water to ensure that the cutting surface remains dry. For tools such as water scrapers that need to scrape off water stains, the drain hole 220 can effectively improve the scraping effect, prevent water droplets from being retained on the cleaning blade 218, and improve the cleaning effect. The drain hole 220 can reduce the accumulation of chips, fragments or other impurities generated during the cutting process at the bottom of the cleaning blade 218. This can avoid the accumulation of accumulations during the cutting process, reduce the impact on the cutting quality, and extend the service life of the cleaning blade 218. The material of the antifouling coating 221 is a nano coating, a very thin coating, which can make the surface extremely hydrophobic, and water droplets form balls on it, rolling dirt off the surface and reducing the adhesion of stains. Due to the hydrophobicity of the nano coating and the micro-nano structure of the surface, it can automatically clean the dirt attached to the surface through its own effects or external effects, such as wind, water flow, etc. The nano coating can effectively block the intrusion of pollutants and reduce the adhesion of various stains, thereby keeping the surface clean. The drainage hole 220 can easily clean and maintain the blade to prevent the growth and residue of accumulation. The user can clean the bottom of the blade by rinsing or wiping to maintain its good cutting performance and service life.
[0033] The surface of the cleaning brush 222 is provided with a fixing groove 219 with a trapezoidal cross section for fixing the water scraper 203. These grooves are designed to fix the water scraper 203 so that it can effectively remove moisture from the surface of the drum. The trapezoidal shape can provide better stability and fixing force to ensure that the water scraper 203 will not loosen or shift during use. Such a design can ensure that the water scraper 203 is in full contact with the cleaning brush 222, thereby effectively scraping off moisture to achieve a better cleaning effect. The water scraper 203 is connected to the fixing groove 219 on the surface of the cleaning brush 222 by sliding. The advantage of this is that the fixing groove 219 can ensure that the water scraper 203 and the brush mechanism 201 can always maintain appropriate contact force and pressure during the working process, thereby more effectively cleaning the surface. This connection method can ensure good synergy between the water scraper 203 and the cleaning brush 222, and better remove dirt and residues. A plurality of cleaning brushes 222 are arranged in the cleaning housing 2. The plurality of cleaning brushes 222 can enhance the cleaning strength and effect, and can increase the cleaning strength of stubborn stains. The plurality of concentrated actions of the cleaning brushes 222 can more thoroughly remove the pollutants on the glass surface, thereby achieving a better cleaning effect.
[0034] A plurality of cleaning brushes 222 are added to the cleaning housing 2. By increasing the number of cleaning brushes 222, the water scraper 203 on the surface of the cleaning brush 222 can quickly scrape off the residual moisture on the glass surface, ensuring that there is no water stain on the glass surface, effectively removing dirt or other pollutants on the glass surface, and improving the cleaning effect. In addition, the plurality of cleaning brushes 222 can operate at the same time and can clean the glass surface at the same time. Compared with the case where there is only one cleaning brush 222, the plurality of cleaning brushes 222 can cover a larger cleaning area when they work at the same time, greatly improving the cleaning efficiency.
[0035] The conveying mechanism 1 is provided with a drainage trough 212, which is fixedly connected to the conveying mechanism 1. The drainage trough 212 can effectively collect water and debris flowing through the bottom of the conveying mechanism 1 to keep the conveying mechanism 1 clean. The fixed connection between the drainage trough 212 and the conveying mechanism 1 can ensure the stability and reliability of the drainage trough 212. The design of the drainage trough 212 can facilitate the daily maintenance and cleaning of the conveying mechanism 1. The drainage trough 212 can collect and store used water, thereby realizing the centralized treatment of wastewater. By collecting wastewater in the drainage trough 212 and treating it, water waste can be reduced. A water circulation mechanism 216 is formed by the first pumping pipe 205, the second pumping pipe 208, the third pumping pipe 213, the drainage trough 212, the water collection box 206, and the pumping pump 207. The filter net in the pumping pump 207 and the drainage trough 212 can filter impurities in the water. The filter net can block impurities in the water, such as silt, suspended matter and other impurities, to ensure that the water source meets the requirements. This helps reduce wear and clogging inside the pump and increases the efficiency and life of the pump. The filter prevents impurities from entering the working parts of the pump, such as the impeller, seals, etc., reducing their wear and failure. This helps reduce the cost of repairs and replacement parts and extends the life of the pump. The filter blocks larger particulate matter from entering the pipe system and reduces the risk of clogging the pipe. This is especially important for long-term pipe systems, which can reduce the frequency of repairs and pipe cleaning. The filter is an activated carbon filter, which removes organic matter and impurities from the water. The activated carbon filter has a very small pore size and can intercept tiny particles and organic matter, such as sand, mud, dirt, bacteria, etc. By pre-treating the water quality, the activated carbon filter can reduce wear and clogging of the internal parts of the pump, improve the operation efficiency of the pump, and extend the life of the equipment. The pump 207 is started, and the water in the water tank passes through the third pumping pipe 213, passes through the water collecting tank 206, and then passes through the first pumping pipe 205 and the pump 207. The water in the pump 207 is sprayed out from the nozzle 209 through the second pumping pipe 208 to clean the glass surface. Through such a water circulation mechanism 216, water resources can be effectively utilized, waste can be reduced, and the quality and reliability of water supply can be ensured.
[0036] The inner walls of the first pumping pipe, the second pumping pipe and the third pumping pipe are coated with phenolic resin coating, which is a polymer material that can form a smooth and hard surface, reduce friction and water flow resistance. In addition, phenolic resin coating also has good anti-corrosion, anti-rust, acid and alkali resistance and other properties.
[0037] The cleaning housing 2 is also provided with a water retaining curtain 202 and a drying mechanism 215. The water retaining curtain 202 is located between the cleaning mechanism 214 and the drying mechanism 215. The drying mechanism includes a drying fan 210 and a heating lamp 211. The drying fan 210 is fixedly connected to the top of the drying mechanism 215, and the heating lamp 211 is fixedly connected to the drying mechanism 215. By fixing the heating lamp 211 to the inner part of the drying mechanism 215, uniform heating of the entire cleaning device can be achieved. The heating lamp 211 transfers heat energy to the inner wall of the drying mechanism 215, and the inner wall evenly dissipates the heat to the inside of the cleaning mechanism 214, ensuring that the items are heated evenly and avoiding local overheating or underheating. Connecting the heating lamp 211 and the inner wall of the drying mechanism 215 can increase the temperature of the drying mechanism 215, accelerate the evaporation rate of the items, and improve the drying effect. The heat in the drying mechanism 215 is provided by the heating lamp 211. Through the connection with the inner wall of the drying mechanism 215, the heat can be better transferred to the surface of the items and the water can be evaporated quickly. Connecting the heating lamp 211 to the inner wall of the drying mechanism 215 can improve energy utilization efficiency and reduce energy waste. Due to the close connection between the heating lamp 211 and the inner wall, heat transfer is more efficient, and the heating and drying process can be completed in a shorter time, reducing energy consumption and reducing environmental pollution. Connecting the heating lamp 211 and the inner wall of the drying mechanism 215 can increase the stability of the equipment. The heating lamp 211 is tightly connected to the inner wall and is not easily disturbed or vibrated by external forces, thereby maintaining stable operation of the equipment and avoiding malfunctions or safety hazards caused by the falling off or displacement of the heating lamp 211. The faster drying speed means that the turnover cycle of the equipment is shortened, and the drying task can be completed faster, which improves the utilization rate and production efficiency of the equipment.
[0038] The working process of this embodiment is:
[0039] When the glass enters the cleaning housing 2, it will first pass through the spray brush 217 of the brush mechanism 201. The rotation of the spray brush 217 causes the detergent in the spray brush 217 to spray the glass surface through the nozzle 223, and then the water scraper 203 and the brush of the cleaning brush 222 remove the dirt and dust remaining on the glass surface, so that the glass surface can be kept clean and transparent, achieving the best cleaning effect. The glass then passes through the drying mechanism 215. The drying fan and heating lamp in the drying mechanism 215 can quickly dry the water stains remaining on the glass surface, and finally the cleaned glass is transmitted to the coating mechanism 3 for coating.
[0040] Through the organic combination of the above equipment, the stability and controllability of the coating process can be improved, thereby improving the quality and consistency of the coating. Cleaning, flattening and proper pretreatment are important steps to ensure the adhesion and appearance quality of the coating.
[0041] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.
Claims
1. A glass rapid coating device, comprising a conveying mechanism (1), a cleaning housing (2), and a coating mechanism (3), wherein a cleaning mechanism (214) is provided in the cleaning housing (2), and the cleaning mechanism (214) is provided with a motor (204), a brush mechanism (201) linked to an output shaft of the motor (204), a nozzle (209), and a water circulation mechanism (216) connected to the nozzle (209), characterized in that: The brush mechanism (201) comprises a spray brush (217) and a cleaning brush (222); the spray brush (217) is close to the feed port of the cleaning housing (2); the spray brush (217) is provided with a cleaning component (227); the cleaning component (227) comprises a nozzle (223), a liquid outlet pipe (225), and a detergent container (224); the detergent container (224) is connected to the nozzle (223) via the liquid outlet pipe (225); a water scraper (203) is provided on the surface of the cleaning brush (222) and a fixing groove (219) for fixing the water scraper (203); the detergent container (224) is located inside the spray brush (217); a plurality of liquid outlet holes (226) are provided on the detergent container (224); the liquid outlet holes (226) are connected to the liquid outlet pipe (225); one end of the detergent container (224) is provided with a liquid filling port (228) for adding detergent; a water retaining cover shell (229) is provided above the spray brush (217); the water retaining cover shell (229) is fixedly connected to the inner wall of the cleaning cover shell (2).
2. A glass rapid coating device according to claim 1, characterized in that: The water scraper (203) is slidably connected to the fixed groove (219); the cross section of the fixed groove (219) is trapezoidal; a cleaning blade (218) is provided at the bottom of the water scraper (203); the cleaning blade (218) is wavy; a sewage discharge hole (220) is provided on the cleaning blade (218); and an anti-fouling coating (221) is provided on the surface of the cleaning blade (218).
3. The glass rapid coating device according to claim 1, characterized in that: The water circulation mechanism (216) comprises a first water pumping pipe (205), a second water pumping pipe (208), a third water pumping pipe (213), a water pump (207), a water collecting tank (206), a drainage trough (212), a nozzle (209) connected to the second water pumping pipe (208), the other end of the second water pumping pipe (208) connected to the water outlet of the water pump (207), the water inlet of the water pump (207) connected to one end of the first water pumping pipe (205), the other end of the first water pumping pipe (205) connected to the water collecting tank (206), a third water pumping pipe (213) connected to the drainage trough (212) is provided on one side of the water collecting tank (206), and the drainage trough (212) is fixedly connected to the bottom of the conveying mechanism (1).
4. The glass rapid coating device according to claim 3, characterized in that: The inner wall of the first water pumping pipe (205) is coated with a phenolic resin coating; the inner wall of the second water pumping pipe (208) is coated with a phenolic resin coating; and the inner wall of the third water pumping pipe (213) is coated with a phenolic resin coating.
5. The glass rapid coating device according to claim 3, characterized in that: The cleaning housing (2) is further provided with a water retaining curtain (202) and a drying mechanism (215); the water retaining curtain (202) is located between the cleaning mechanism (214) and the drying mechanism (215); the drying mechanism comprises a drying fan (210) and a heating lamp (211); the drying fan (210) is fixedly connected to the top of the drying mechanism (215), and the heating lamp (211) is fixedly connected to the inside of the drying mechanism (215).
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