Scratch-resistant glass surface cleaning equipment and cleaning method thereof

Abstract

The invention relates to scratch-resistant glass surface cleaning equipment and a cleaning method thereof. The scratch-resistant glass surface cleaning equipment comprises a front-section cleaning mechanism, a polishing mechanism and a rear-section cleaning mechanism which are arranged in sequence, the polishing mechanism comprises a machine body, an adsorption distance adjusting component arranged on a working table of the machine body, a plurality of adsorption components sequentially connected with the adsorption distance adjusting component in the circumferential direction of the adsorption distance adjusting component, a polishing disc located above the adsorption components, and a polishing translation driving component connected with the polishing disc and arranged on the machine body. The adsorption distance adjusting part is used for adjusting the distance between the adsorption parts according to the size information of the scratch-resistant glass so as to adapt to the scratch-resistant glass of different sizes, adsorption stress is evenly distributed on the glass, the glass damage risk caused by uneven stress in the polishing process is reduced, and the polishing quality of the scratch-resistant glass is improved. Therefore, uniform and effective cleaning and polishing of glass with different sizes are realized.

Description

Technical Field

[0001] The present application relates to the field of scratch-resistant glass surface cleaning, and in particular to a scratch-resistant glass surface cleaning device and a cleaning method thereof. Background Art

[0002] Traditional scratch-resistant glass surface cleaning equipment often cannot provide uniform adsorption stress when processing glass of inconsistent sizes due to the uneven distribution of adsorption components. This unevenness leads to local over-grinding or under-grinding during the polishing process, which in turn causes unevenness and potential damage to the glass surface, affecting the final cleaning effect and the scratch resistance of the glass. Especially during the polishing process, if the adsorption and grinding force cannot properly match the actual conditions of different areas, excessive wear will occur in certain areas, which will not only reduce the scratch resistance of the glass, but also cause irreversible damage to the glass, thereby affecting the overall quality and service life of the product.

[0003] Application Contents In order to solve the problem of how to improve the cleaning efficiency and quality of traditional scratch-resistant glass surface cleaning equipment to adapt to the cleaning needs of glass of different sizes and reduce polishing damage caused by uneven distribution of adsorption components, the present application provides a scratch-resistant glass surface cleaning equipment and a cleaning method thereof.

[0004] The present application provides a scratch-resistant glass surface cleaning device that adopts the following technical solution: A scratch-resistant glass surface cleaning device comprises a front-stage cleaning mechanism, a polishing mechanism and a rear-stage cleaning mechanism which are arranged in sequence, wherein the front-stage cleaning mechanism is used for pre-cleaning the scratch-resistant glass, the polishing mechanism is used for polishing and grinding the scratch-resistant glass, and the rear-stage cleaning mechanism is used for cleaning the scratch-resistant glass after polishing. The polishing mechanism comprises a body, an adsorption distance adjustment component arranged on a working table of the body, a plurality of adsorption components which are sequentially connected to the adsorption distance adjustment component along the circumference of the adsorption distance adjustment component, a polishing disc located above the adsorption component, and a polishing translation driving component which is connected to the polishing disc and arranged on the body, wherein the adsorption distance adjustment component is used for adjusting the distance between each adsorption component according to the size information of the scratch-resistant glass so as to be suitable for scratch-resistant glass of different sizes, and when the scratch-resistant glass is adsorbed and matched with the adsorption component, the polishing translation driving component drives the polishing disc to polish the scratch-resistant glass.

[0005] By adopting the above technical solution, the problem of uneven cleaning of traditional equipment when processing glass of different sizes is solved by setting an adsorption distance adjustment component in the polishing mechanism. The adsorption distance adjustment component can adjust the distance between the adsorption components according to the specific size of the glass, so that the adsorption components can be evenly distributed and effectively adsorb the glass surface. In this way, the adsorption stress is evenly distributed on the glass, reducing the risk of glass damage caused by uneven stress during the polishing process, thereby achieving uniform and effective cleaning and polishing of glass of different sizes, and being able to achieve full-process cleaning and polishing operations on the scratch-resistant glass surface. The front-end cleaning mechanism pre-cleans the glass surface to remove preliminary surface dirt, the polishing mechanism fixes the glass through the adsorption component and uses the polishing disc for fine grinding, and the rear-end cleaning mechanism thoroughly cleans the polished glass to remove residual polishing paste and tiny particles, thereby improving the cleanliness and flatness of the glass surface and ensuring the quality of the final product.

[0006] Preferably, the adsorption distance adjustment component includes a fixed seat fixed on the working surface of the machine body, a disc located above the fixed seat and connected to the adsorption component, a push-pull rod slidably matched with the disc, a rotation component located above the disc, and a guide rod for connecting the push-pull rod and the rotation component. When the rotation component rotates, the push-pull rod is driven by the guide rod to move along the radial direction of the disc, thereby driving each of the adsorption components to move towards or away from the disc at the same time.

[0007] By adopting the above technical solution, the distance between the adsorption components can be flexibly adjusted to adapt to glass of different sizes. The self-rotating component drives the push-pull rod to move radially along the disc through the guide rod, thereby driving the adsorption component to move inward or outward to achieve stable fixation of glass of different sizes, thereby improving the application range and operational flexibility of the equipment.

[0008] Preferably, the self-rotating assembly includes a driving gear rotatably arranged on the disc, and a driven gear meshing with the driving gear, wherein the driven gear rotatably cooperates with the disc and is coaxially arranged so that the driven gear rotates with the rotation of the driving gear.

[0009] By adopting the above technical solution, the push-pull rod and the adsorption component can be moved smoothly. Such a design ensures the synchronization and accuracy of the adsorption components during adjustment, thereby improving the fixing effect of the glass and the accuracy of the polishing operation.

[0010] Preferably, a guide hole is provided on the driving gear, and the guide hole is plugged into and matched with the guide rod. The guide hole is arc-shaped, and the shape of the arc is consistent with the path shape of the guide rod when it moves with the rotation of the driven gear.

[0011] By adopting the above technical solution, the driving gear is provided with a guide hole, and the guide hole is plugged and matched with the guide rod, so that the guide rod can move along a predetermined arc path when the driving gear rotates. This design ensures the consistency between the movement trajectory of the guide rod and the actual operation path, so that the movement of the push-pull rod and the adsorption component is smoother and more accurate, and the reliability of glass fixing and the operating efficiency of the overall equipment are improved.

[0012] Preferably, a limiting member is provided at the end of the guide rod away from the push-pull rod, the limiting member is detachably connected to the guide rod, and the diameter of the limiting member gradually decreases in the direction away from the driven gear.

[0013] By adopting the above technical solution, the guide rod can be prevented from being disengaged or shifted during movement. The gradually decreasing design of the limiter further enhances the stability of the guide rod, thereby improving the safety and accuracy of the adsorption component during adjustment and ensuring the accuracy of the position of the glass during polishing.

[0014] Preferably, the disc is provided with a slide groove which slidably cooperates with the push-pull rod, the groove surface of the slide groove is directly connected to the outer circumference of the disc along the radial direction of the disc, and the opening direction at the connection with the outer circumference of the disc is set corresponding to the adsorption component.

[0015] By adopting the above technical solution, it can ensure that the push-pull rod moves more smoothly in the slide slot, and the corresponding arrangement of the opening and the adsorption component enables the push-pull rod to accurately drive the adsorption component to adjust. Such a design optimizes the movement path of the adsorption component, thereby improving the accuracy and efficiency of the adsorption operation.

[0016] Preferably, the adsorption component includes a connecting column connected to the push-pull rod, and a suction cup located above the connecting column.

[0017] By adopting the above technical solution, the position of the suction cup can be precisely adjusted by connecting the connecting column and the push-pull rod. The setting of the suction cup ensures the stable fixation of the glass during the polishing process, thereby improving the effect of the polishing operation, reducing the risk of glass movement or detachment, and improving the operating safety and polishing quality of the overall equipment.

[0018] Preferably, the polishing disc is provided with a polishing paste nozzle, which is used to spray glass polishing paste on the scratch-resistant glass surface, and the polishing translation drive component includes an up-and-down moving component connected to the polishing disc and used to drive the polishing disc to rise and fall, a forward-and-backward moving component connected to the up-and-down moving component and used to drive the up-and-backward moving component to move forward and backward, and a left-and-right moving component connected to the forward-and-backward moving component and used to drive the left-and-right moving component to move left and right.

[0019] By adopting the above technical solution, the polishing paste can be evenly applied before polishing, making the polishing process more efficient. The polishing translation drive component accurately controls the moving path and position of the polishing disc through the linkage of the up-down, front-back and left-right moving components, thereby achieving comprehensive polishing of the glass surface and improving the polishing uniformity and smoothness of the glass surface.

[0020] Preferably, the front-end cleaning mechanism includes a front-end carrying platform, and a front-end clean water brush assembly and a front-end drying assembly sequentially arranged on the front-end carrying platform, and the rear-end cleaning mechanism includes a rear-end carrying platform, and a rear-end clean water brush assembly and a rear-end drying assembly sequentially arranged on the rear-end carrying platform.

[0021] By adopting the above technical solution, the glass can be fully cleaned and dried before entering the polishing stage and after polishing. The front-end cleaning mechanism effectively removes dirt on the glass surface, and the rear-end cleaning mechanism further cleans and dries the polished glass surface, thereby improving the overall cleanliness and polishing quality of the glass.

[0022] A method for cleaning a scratch-resistant glass surface, using a scratch-resistant glass surface cleaning device, comprises the following steps: Acquire size information of the scratch-resistant glass, and control the adsorption distance adjustment component to adjust the corresponding distances between the adsorption components according to the size information; Pre-cleaning the surface of the scratch-resistant glass by a front-stage cleaning mechanism, wherein the pre-cleaning includes at least a predetermined number of cleaning processes and a drying process under predetermined drying conditions, wherein the cleaning process includes at least one water rinse and one brush wash; Placing the pre-cleaned scratch-resistant glass on the adsorption component, so that the adsorption component and the scratch-resistant glass are pneumatically adsorbed and matched; After spraying a predetermined ratio of glass polishing paste and clean water on the scratch-resistant glass that is pneumatically adsorbed by the adsorption component, polishing the scratch-resistant glass sprayed with the predetermined ratio of glass polishing paste and clean water by a polishing mechanism; The surface of the scratch-resistant glass is subsequently cleaned by a rear cleaning mechanism, wherein the subsequent cleaning includes at least a predetermined number of cleaning processes and a drying process under predetermined drying conditions, wherein the cleaning process includes at least one water rinse and one brush scrub.

[0023] By adopting the above technical solution, the cleaning method includes obtaining the size information of the scratch-resistant glass, controlling the adsorption distance adjustment component to adjust the distance between each adsorption component according to the size information, which can ensure the stable fixation of the glass before polishing, and remove the initial dirt and moisture on the glass surface through the cleaning and drying process of the front-end cleaning mechanism to ensure the effect of the polishing process. The polishing paste and water spraying during the polishing process, combined with the precise operation of the polishing mechanism, make the glass surface smoother and scratch-free. Finally, through further cleaning and drying by the rear-end cleaning mechanism, the residue is removed and the final clean state of the glass is ensured, thereby improving the efficiency of the entire cleaning process and the quality of the finished glass.

[0024] In summary, the present application includes at least one of the following beneficial technical effects: 1. The problem of uneven cleaning in traditional equipment when processing glass of different sizes is solved by setting an adsorption distance adjustment component in the polishing mechanism. The adsorption distance adjustment component can adjust the distance between the adsorption components according to the specific size of the glass, so that the adsorption components can be evenly distributed and effectively adsorbed on the glass surface. In this way, the adsorption stress is evenly distributed on the glass, reducing the risk of glass damage caused by uneven stress during the polishing process, thereby achieving uniform and effective cleaning and polishing of glass of different sizes; 2. The present application can realize the full-process cleaning and polishing operation of the scratch-resistant glass surface. The front-end cleaning mechanism pre-cleans the glass surface to remove the initial dirt on the surface, the polishing mechanism fixes the glass through the adsorption component and uses the polishing disk for fine grinding, and the rear-end cleaning mechanism thoroughly cleans the polished glass to remove the residual polishing paste and tiny particles, thereby improving the cleanliness and flatness of the glass surface and ensuring the quality of the final product. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 This is a simplified structural diagram of a scratch-resistant glass surface cleaning device according to an embodiment of the present application.

[0026] Figure 2 It is a schematic diagram of the three-dimensional structure of the polishing mechanism in the embodiment of the present application.

[0027] Figure 3 It is a schematic diagram of the three-dimensional structure of the polishing mechanism in the embodiment of the present application in which the polishing translation drive component is omitted.

[0028] Figure 4 This is an embodiment of the present application Figure 3 A is an enlarged view of the middle image.

[0029] Figure 5 It is a top view of the adsorption distance adjustment component and the adsorption component in the embodiment of the present application.

[0030] Figure 6This is an embodiment of the present application Figure 5 Schematic diagram of the cross section of AA.

[0031] Figure 7 It is a three-dimensional structural schematic diagram of the front cleaning mechanism in the embodiment of the present application.

[0032] Description of reference numerals: 1. Front cleaning mechanism; 11. Front carrying platform; 12. Front water brush assembly; 13. Front drying assembly; 2. Polishing mechanism; 21. Machine body; 22. Adsorption distance adjustment component; 221. Disc; 222. Limiting member; 223. Push-pull rod; 224. Rotation assembly; 2241. Driving gear; 2242. Driven gear; 2243. Guide hole; 225. Guide rod; 226. Slide; 23. Adsorption component; 231. Connecting column; 232. Suction cup; 24. Polishing disc; 25. Polishing translation drive component; 251. Up and down moving assembly; 252. Forward and backward moving assembly; 253. Left and right moving assembly; 26. Polishing paste spray tube; 3. Back cleaning mechanism; 31. Back carrying platform; 32. Back water brush assembly; 33. Back drying assembly. DETAILED DESCRIPTION

[0033] The following is combined with Figure 1-7 This application is described in further detail.

[0034] like Figure 1-2 As shown, a scratch-resistant glass surface cleaning device comprises a front-stage cleaning mechanism 1, a polishing mechanism 2 and a rear-stage cleaning mechanism 3 which are arranged in sequence, wherein the front-stage cleaning mechanism 1 is used for pre-cleaning the scratch-resistant glass, the polishing mechanism 2 is used for polishing and grinding the scratch-resistant glass, and the rear-stage cleaning mechanism 3 is used for cleaning the scratch-resistant glass after polishing. The polishing mechanism 2 comprises a body 21, an adsorption distance adjustment component 22 arranged on a working table of the body 21, a plurality of adsorption components 23 connected to the adsorption distance adjustment component 22 in sequence along the circumference of the adsorption distance adjustment component 22, a polishing disc 24 located above the adsorption component 23, and a polishing translation driving component 25 connected to the polishing disc 24 and arranged on the body 21, the adsorption distance adjustment component 22 is used for adjusting the distance between each adsorption component 23 according to the size information of the scratch-resistant glass to be suitable for scratch-resistant glass of different sizes, and when the scratch-resistant glass is adsorbed and matched with the adsorption component 23, the polishing translation driving component 25 drives the polishing disc 24 to polish the scratch-resistant glass.

[0035] In this embodiment, a scratch-resistant glass surface cleaning device includes a front-end cleaning mechanism 1, a polishing mechanism 2 and a rear-end cleaning mechanism 3, which are arranged in sequence to complete the entire process from preliminary cleaning to polishing and then to final cleaning. First, the front-end cleaning mechanism 1 is used to pre-clean the scratch-resistant glass. The mechanism removes the initial dirt and moisture on the glass surface through multiple cleaning and drying steps to prepare for the polishing process. The front-end cleaning mechanism 1 is designed to thoroughly clean the glass to ensure that there is no residue on the surface that affects the subsequent polishing effect. Next is the polishing mechanism 2, which is the core part of the entire device and is responsible for fine polishing and grinding the scratch-resistant glass. The polishing mechanism 2 includes a body 21 and an adsorption distance adjustment component 22 installed on the work surface of the body 21. The adjustment component can adjust the distance between multiple adsorption components 23 according to the specific size information of the glass. The adsorption components 23 are arranged in sequence along the circumference of the adjustment component, and can be adapted to glasses of different sizes through precise adjustment. When the glass is fixed by the adsorption component 23, the polishing disc 24 in the polishing mechanism 2 starts to work. The polishing disc 24 is located above the adsorption component 23, and is connected and driven by the polishing translation drive component 25. The polishing translation drive component 25 can realize the precise movement of the polishing disc 24 on the glass surface, perform uniform polishing, eliminate surface defects and fine scratches, so that the glass surface is smooth and has high-quality gloss. Finally, there is the rear-stage cleaning mechanism 3, which is used to clean the scratch-resistant glass after polishing. Polishing paste and tiny particles will remain on the surface of the polished glass, and these residues need to be thoroughly removed by the rear-stage cleaning mechanism 3. The cleaning mechanism adopts a similar method to the front-stage cleaning, and through multiple cleaning and drying processes, it ensures that the glass surface is completely clean, providing the best surface conditions for final delivery or further processing. Through this design, the entire equipment can effectively complete the full process of scratch-resistant glass, from pre-cleaning, fine polishing to final cleaning, to ensure that the finished glass has high-quality scratch resistance and excellent surface finish.

[0036] In summary, the full-process cleaning and polishing operation of the scratch-resistant glass surface can be realized. The front-end cleaning mechanism 1 pre-cleans the glass surface to remove preliminary dirt on the surface, the polishing mechanism 2 fixes the glass through the adsorption component 23 and uses the polishing disk 24 for fine grinding, and the rear-end cleaning mechanism 3 thoroughly cleans the polished glass to remove residual polishing paste and tiny particles, thereby improving the cleanliness and flatness of the glass surface and ensuring the quality of the final product.

[0037] Specifically, Figure 3-5As shown, the adsorption distance adjustment component 22 includes a fixed seat fixed on the working surface of the body 21, a disk 221 located above the fixed seat and connected to the adsorption component 23, a push-pull rod 223 slidably matched with the disk 221, a rotation component 224 located above the disk 221, and a guide rod 225 for connecting the push-pull rod 223 and the rotation component 224. When the rotation component 224 rotates, the push-pull rod 223 is driven by the guide rod 225 to move along the radial direction of the disk 221, thereby driving each of the adsorption components 23 to move towards or away from the disk 221 at the same time.

[0038] In this embodiment, the adsorption distance adjustment component 22 in the polishing mechanism 2 is composed of a fixed seat, a disc 221, a push-pull rod 223, a rotation component 224 and a guide rod 225. The fixed seat is fixed on the working surface of the body 21, and the disc 221 is located above the fixed seat and connected to the glass through the adsorption component 23. The guide rod 225 can drive the push-pull rod 223 to slide radially along the disc 221 by cooperating with the push-pull rod 223 and the rotation component 224. When the rotation component 224 is started, the guide rod 225 is driven to drive the push-pull rod 223 to move radially in the slide groove 226 of the disc 221, thereby adjusting the distance between the adsorption components 23 so that it can adapt to scratch-resistant glass of different sizes. This adjustment process is precise and synchronous, ensuring that each adsorption component 23 can firmly adsorb the glass at the appropriate position to prevent the glass from shifting during the polishing process.

[0039] In summary, the distance between the adsorption components 23 can be flexibly adjusted to accommodate glasses of different sizes. The self-rotating assembly 224 drives the push-pull rod 223 to move radially along the disk 221 through the guide rod 225, thereby driving the adsorption component 23 to move inward or outward, achieving stable fixation of glasses of different sizes, thereby improving the application range and operational flexibility of the device.

[0040] Specifically, Figure 4-5 As shown, the self-rotating component 224 includes a driving gear 2241 rotatably disposed on the disk 221, and a driven gear 2242 meshing with the driving gear 2241. The driven gear 2242 is rotatably engaged with the disk 221 and is coaxially disposed so that the driven gear 2242 rotates as the driving gear 2241 rotates.

[0041] In this embodiment, the driving gear 2241 is driven by a motor or other transmission device, and the driven gear 2242 meshes with the driving gear 2241 and rotates synchronously with the rotation of the driving gear 2241. Since the driven gear 2242 is coaxially arranged with the disk 221, when the driving gear 2241 rotates, the driven gear 2242 drives the disk 221, and simultaneously adjusts the distance of the adsorption component 23 inward or outward synchronously. This design enables all the adsorption components 23 on the disk 221 to move evenly and accurately, thereby ensuring that glasses of different sizes can be firmly adsorbed at the most suitable position, providing a reliable fixing foundation for subsequent polishing operations.

[0042] In summary, the push-pull rod 223 and the adsorption component 23 are ensured to move smoothly. Such a design ensures the synchronization and accuracy of each adsorption component 23 during adjustment, thereby improving the fixing effect of the glass and the accuracy of the polishing operation.

[0043] Specifically, Figure 5 As shown, a guide hole 2243 is provided on the driving gear 2241, and the guide hole 2243 is plugged into the guide rod 225. The guide hole 2243 is arc-shaped, and the arc shape is consistent with the path shape of the guide rod 225 when it moves with the rotation of the driven gear 2242.

[0044] In this embodiment, the guide hole 2243 is designed to be in an arc shape, and its arc is completely consistent with the movement path of the guide rod 225 when the driving gear 2241 rotates. This arc design enables the guide rod 225 to move accurately along the predetermined path when the driving gear 2241 rotates, ensuring that the radial movement process of the push-pull rod 223 on the disc 221 is stable and smooth, thereby driving the adsorption component 23 to adjust synchronously according to the designed movement trajectory. In this way, unnecessary friction or resistance can be avoided during the adjustment process, ensuring the adjustment accuracy and operation reliability of the adsorption component 23.

[0045] In summary, the driving gear 2241 is provided with a guide hole 2243, and the guide hole 2243 is plugged and matched with the guide rod 225, so that the guide rod 225 can move along a predetermined arc path when the driving gear 2241 rotates. This design ensures the consistency between the movement trajectory of the guide rod 225 and the actual operation path, so that the movement of the push-pull rod 223 and the adsorption component 23 is smoother and more accurate, thereby improving the reliability of glass fixing and the operating efficiency of the overall equipment.

[0046] Specifically, Figure 3-5As shown, a stopper 222 is provided at the end of the guide rod 225 away from the push-pull rod 223 . The stopper 222 is detachably connected to the guide rod 225 , and a diameter of the stopper 222 gradually decreases in a direction away from the driven gear 2242 .

[0047] In this embodiment, a stopper 222 is provided at the distal end of the guide rod 225, and the stopper 222 is detachably connected to the guide rod 225 by means of a thread or a buckle. The diameter of the stopper 222 is designed to gradually decrease from the end of the guide rod 225 outwards, and such a design can play a limiting role in the movement of the guide rod 225, preventing the guide rod 225 from deviating from the predetermined track due to inertia or external force. The conical structure of the stopper 222 can effectively reduce the resistance during the movement, while providing a better guiding effect, thereby enhancing the stability of the entire adsorption system. This design ensures that during high-intensity polishing operations, the glass will not be loosened or deflected due to the movement of the adsorption component 23, further improving the safety of the equipment and the accuracy of operation.

[0048] In summary, the guide rod 225 can be prevented from being disengaged or shifted during movement. The gradually decreasing design of the stopper 222 further enhances the stability of the guide rod 225, thereby improving the safety and accuracy of the adsorption component 23 during the adjustment process, and ensuring the accuracy of the position of the glass during the polishing process.

[0049] Specifically, Figure 4 As shown, the disc 221 is provided with a slide groove 226 that slidably cooperates with the push-pull rod 223. The groove surface of the slide groove 226 is directly connected to the outer peripheral side of the disc 221 along the radial direction of the disc 221, and the opening direction at the connection with the outer peripheral side of the disc 221 is set corresponding to the adsorption component 23.

[0050] In this embodiment, a stopper 222 is provided at the distal end of the guide rod 225, and the stopper 222 is detachably connected to the guide rod 225 by means of a thread or a buckle. The diameter of the stopper 222 is designed to gradually decrease from the end of the guide rod 225 outwards, and such a design can play a limiting role in the movement of the guide rod 225, preventing the guide rod 225 from deviating from the predetermined track due to inertia or external force. The conical structure of the stopper 222 can effectively reduce the resistance during the movement, while providing a better guiding effect, thereby enhancing the stability of the entire adsorption system. This design ensures that during high-intensity polishing operations, the glass will not be loosened or deflected due to the movement of the adsorption component 23, further improving the safety of the equipment and the accuracy of operation.

[0051] In summary, it can ensure that the push-pull rod 223 moves more smoothly in the slide slot 226, and the corresponding arrangement of the opening and the adsorption component 23 enables the push-pull rod 223 to accurately drive the adsorption component 23 to adjust. Such a design optimizes the movement path of the adsorption component 23, thereby improving the accuracy and efficiency of the adsorption operation.

[0052] Specifically, Figure 4 As shown, the adsorption component 23 includes a connection column 231 connected to the push-pull rod 223 , and a suction cup 232 located above the connection column 231 .

[0053] In this embodiment, one end of the connecting column 231 is connected to the push-pull rod 223 by a thread or a buckle, and the other end is fixed with a suction cup 232. The suction cup 232 provides a strong adsorption force through a vacuum pump or a pneumatic device, and can firmly adsorb the glass. By adjusting the length of the connecting column 231 and the position of the push-pull rod 223, the height and position of the suction cup 232 can be flexibly controlled to adapt to glass of different thicknesses and sizes. The design of the suction cup 232 takes into account the material properties of the glass, and can provide a stable adsorption force without damaging the glass surface, ensuring that the glass will not shift or fall off during the polishing process, thereby improving the safety of the equipment and the reliability of operation.

[0054] In summary, the position of the suction cup 232 can be precisely adjusted by connecting the connecting column 231 with the push-pull rod 223. The setting of the suction cup 232 ensures that the glass is stably fixed during the polishing process, thereby improving the effect of the polishing operation, reducing the risk of glass movement or detachment, and improving the operating safety and polishing quality of the overall equipment.

[0055] Specifically, Figure 2 As shown, the polishing disc 24 is provided with a polishing paste nozzle 26, and the polishing paste nozzle 26 is used to spray glass polishing paste on the scratch-resistant glass surface. The polishing translation drive component 25 includes an up-down moving component 251 connected to the polishing disc 24 and used to drive the polishing disc 24 to rise and fall, a front-to-back moving component 252 connected to the up-to-down moving component 251 and used to drive the up-to-back moving component 251 to move forward and backward, and a left-to-right moving component 253 connected to the front-to-back moving component 252 and used to drive the front-to-back moving component 252 to move left and right.

[0056] In this embodiment, a polishing paste spray pipe 26 is provided on the polishing disc 24, and the spray pipe is connected to the polishing paste storage tank through a pipeline. Before the polishing starts, the spray pipe will evenly spray the polishing paste on the glass surface, and spray an appropriate amount of clean water as needed to adjust the dilution of the polishing paste. The polishing translation drive component 25 includes an up-and-down moving component 251, a front-and-back moving component 252, and a left-and-right moving component 253. The up-and-down moving component 251 is connected to the polishing disc 24 through a cylinder or a screw drive device, and can control the lifting and lowering of the polishing disc 24 to adjust the polishing pressure and height. The front-and-back moving component 252 is connected to the up-and-down moving component 251, and is used to control the longitudinal movement of the polishing disc 24 along the glass surface. The left-and-right moving component 253 is connected to the end of the front-and-back moving component 252, and controls the polishing disc 24 to move horizontally on the glass surface. Through the linkage of these three moving components, the polishing disc 24 can cover every corner of the glass along a preset track, ensuring the uniformity and accuracy of the polishing operation, thereby improving the smoothness and transparency of the glass surface.

[0057] In summary, the polishing paste can be evenly applied before polishing, making the polishing process more efficient. The polishing translation drive component 25 accurately controls the moving path and position of the polishing disc 24 through the linkage of the up-down, front-back and left-right moving components 253, thereby achieving comprehensive polishing of the glass surface, improving the polishing uniformity and the smoothness of the glass surface.

[0058] Specifically, Figure 1 and 7 As shown, the front-end cleaning mechanism 1 includes a front-end carrying platform 11, and a front-end clean water brush assembly 12 and a front-end drying assembly 13 which are sequentially arranged on the front-end carrying platform 11; the rear-end cleaning mechanism 3 includes a rear-end carrying platform 31, and a rear-end clean water brush assembly 32 and a rear-end drying assembly 33 which are sequentially arranged on the rear-end carrying platform 31.

[0059] In this embodiment, the front cleaning mechanism 1 includes a front carrying platform 11, on which a front water brush assembly 12 and a front drying assembly 13 are sequentially mounted. The front water brush assembly 12 is responsible for preliminary cleaning of the scratch-resistant glass surface. During the cleaning process, the brush assembly sprays clean water evenly on the glass surface, and gently wipes the glass surface with a rotating brush to remove dust and stains attached to the glass surface. After the cleaning is completed, the glass will automatically enter the front drying assembly 13, which uses a high-efficiency fan or infrared heating system to quickly evaporate the moisture on the glass surface to ensure that the glass is completely dry before entering the next process, and the subsequent polishing effect will not be affected by water stains. The rear cleaning mechanism 3 includes a rear carrying platform 31, on which a rear water brush assembly 32 and a rear drying assembly 33 are sequentially mounted. The polished glass is first cleaned by the rear water brush assembly 32, which removes the polishing paste, tiny particles and other stains remaining on the glass surface during the polishing process by rinsing with a rotating brush and clean water. After thorough cleaning, the glass enters the rear drying assembly 33, which uses hot air or infrared rays to quickly dry the glass, ensuring that there is no water stain or residue on the surface of the glass after cleaning, and that it is highly clean, providing a guarantee for final packaging and shipment. The entire cleaning and drying process is fast and efficient, further improving the quality and cleanliness of the finished glass.

[0060] In summary, the glass can be fully cleaned and dried before and after polishing. The front cleaning mechanism 1 effectively removes dirt on the glass surface, and the rear cleaning mechanism 3 further cleans and dries the polished glass surface, thereby improving the overall cleanliness and polishing quality of the glass.

[0061] Specifically, a method for cleaning a scratch-resistant glass surface uses a scratch-resistant glass surface cleaning device, comprising the following steps: Acquire size information of the scratch-resistant glass, and control the adsorption distance adjustment component 22 to adjust the corresponding distances between the adsorption components 23 according to the size information; Pre-cleaning the surface of the scratch-resistant glass by the front-stage cleaning mechanism 1, wherein the pre-cleaning includes at least a predetermined number of cleaning processes and a drying process under predetermined drying conditions, wherein the cleaning process includes at least one water rinse and one brush wash; The pre-cleaned scratch-resistant glass is placed on the adsorption component 23, so that the adsorption component 23 and the scratch-resistant glass are pneumatically adsorbed and matched; After the scratch-resistant glass that has been pneumatically adsorbed by the adsorption component 23 is sprayed with a glass polishing paste and clean water in a predetermined proportion, the scratch-resistant glass that has been sprayed with the glass polishing paste and clean water in a predetermined proportion is polished by the polishing mechanism 2; The surface of the scratch-resistant glass is subsequently cleaned by the rear cleaning mechanism 3 , and the subsequent cleaning includes at least a predetermined number of cleaning processes and a drying process under predetermined drying conditions, and the cleaning process includes at least one water rinse and one brush scrubbing.

[0062] In this embodiment, first, the size information of the scratch-resistant glass is obtained. This step can be obtained through automatic measuring equipment or pre-set database information. According to this size information, the device automatically controls the action of the adsorption distance adjustment component 22, so that the distance between each adsorption component 23 is adjusted accordingly to adapt to the specific size of the glass. After the adjustment is completed, the position and distance of the adsorption component 23 will accurately match the size of the glass, ensuring the stability of the glass fixation in subsequent operations.

[0063] Next, the scratch-resistant glass surface is pre-cleaned by the front cleaning mechanism 1. The pre-cleaning process usually includes multiple cleaning and drying processes to ensure the initial cleanliness of the glass surface. First, the glass will be rinsed with clean water, using high-pressure water to remove most of the dust and dirt on the surface. Then, the clean water brush assembly will further scrub the glass surface, and the physical friction of the brush will thoroughly remove stubborn stains. After cleaning, the glass enters the drying process, using hot air or infrared heating to quickly evaporate the water to ensure that the glass remains dry and clean before the next operation.

[0064] After the pre-cleaning is completed, the scratch-resistant glass is placed on the adsorption component 23. The glass is firmly fixed on the device through the pneumatic adsorption of the adsorption component 23 and the glass. The pneumatic adsorption is achieved by a vacuum suction cup 232 or a pneumatic clamp. When the adsorption component 23 is in close contact with the glass surface, the device will start the adsorption function to firmly fix the glass in its position to prevent any movement or deviation during the polishing process.

[0065] Subsequently, the device will automatically spray a predetermined ratio of glass polishing paste and clean water on the scratch-resistant glass that has been pneumatically adsorbed by the adsorption component 23. The ratio of the polishing paste and the amount of clean water sprayed are precisely adjusted according to the material and surface treatment requirements of the glass to ensure the best polishing effect. After the spraying is completed, the polishing mechanism 2 is started, and the polishing disc 24 begins to finely polish the glass surface. During the polishing process, the polishing disc 24 moves evenly on the glass surface, and uses the fine grinding effect of the polishing paste to gradually eliminate the fine scratches and unevenness on the surface, making the glass surface smoother and more transparent.

[0066] Finally, the polished scratch-resistant glass is subsequently cleaned by the post-cleaning mechanism 3. The subsequent cleaning process includes at least one rinse with clean water and one brush scrubbing to ensure that the polishing paste and tiny particles remaining during the polishing process are completely removed. After cleaning, the glass enters the drying process, and the water on the glass surface is completely evaporated by efficient drying equipment again, so that the glass surface is finally highly clean, providing the best conditions for delivery or further processing. This series of steps ensures the smoothness and flawlessness of the glass surface, so that the final product has high-quality scratch resistance and aesthetics.

[0067] A method for cleaning the surface of scratch-resistant glass. The specific method steps are as follows: using a plate washer to clean the surface of the glass, adjusting the track speed of the equipment to 15 revolutions per minute, using clean water to drip on the surface of the glass, and passing through a brush area to clean the surface, passing through a drying area at a temperature of 50°C and baking for 10 seconds to pre-clean the surface of the scratch-resistant glass; using glass polishing paste: surfactants, lubricants, polishing powder and other ingredients to make glass polishing grinding paste, pouring it on the surface of the glass, and adding an appropriate amount of clean water; using special polishing equipment, using a wool wheel, modulating the speed of the equipment, using pneumatic suction to hold the bottom of the glass, and then sticking the wool wheel with the polishing paste to evenly polish and grind the surface of the glass for 30 seconds; placing the polished scratch-resistant glass on the plate washer to be cleaned with clean water and dried; and then obtaining a scratch-resistant microcrystalline glass with a clean surface.

[0068] In summary, the cleaning method includes obtaining the size information of the scratch-resistant glass, controlling the adsorption distance adjustment component 22 to adjust the distance between each adsorption component 23 according to the size information, which can ensure the stable fixation of the glass before polishing, and remove the initial dirt and moisture on the glass surface through the cleaning and drying process of the front-end cleaning mechanism 1 to ensure the effect of the polishing process. The polishing paste and water spraying during the polishing process, combined with the precise operation of the polishing mechanism 2, make the glass surface smoother and scratch-free. Finally, through further cleaning and drying by the rear-end cleaning mechanism 3, the residue is removed and the final clean state of the glass is ensured, thereby improving the efficiency of the entire cleaning process and the quality of the finished glass.

[0069] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A scratch-resistant glass surface cleaning device, characterized in that: The invention comprises a front cleaning mechanism (1), a polishing mechanism (2) and a rear cleaning mechanism (3) which are arranged in sequence, wherein the front cleaning mechanism (1) is used for pre-cleaning the scratch-resistant glass, the polishing mechanism (2) is used for polishing and grinding the scratch-resistant glass, and the rear cleaning mechanism (3) is used for cleaning the scratch-resistant glass after polishing, and the polishing mechanism (2) comprises a machine body (21), an adsorption distance adjustment component (22) arranged on a working table of the machine body (21), and a plurality of adsorption distance adjustment components (22) which are arranged in sequence along the circumference of the adsorption distance adjustment component (22) and are connected to the adsorption distance adjustment component (22). ) connected to the adsorption component (23), a polishing disc (24) located above the adsorption component (23), and a polishing translation driving component (25) connected to the polishing disc (24) and arranged on the machine body (21); the adsorption distance adjusting component (22) is used to adjust the distance between each adsorption component (23) according to the size information of the scratch-resistant glass so as to be suitable for scratch-resistant glass of different sizes; when the scratch-resistant glass is adsorbed and matched with the adsorption component (23), the polishing translation driving component (25) drives the polishing disc (24) to polish the scratch-resistant glass.

2. The scratch-resistant glass surface cleaning device according to claim 1, characterized in that: The adsorption distance adjustment component (22) comprises a fixed seat fixed on the working surface of the body (21), a disk (221) located above the fixed seat and connected to the adsorption component (23), a push-pull rod (223) slidably matched with the disk (221), a rotation component (224) located above the disk (221), and a guide rod (225) used to connect the push-pull rod (223) and the rotation component (224). When the rotation component (224) rotates, the push-pull rod (223) is driven by the guide rod (225) to move along the radial direction of the disk (221), thereby driving each of the adsorption components (23) to move towards or away from the disk (221) at the same time.

3. The scratch-resistant glass surface cleaning device according to claim 2, characterized in that: The self-rotating assembly (224) comprises a driving gear (2241) rotatably arranged on the disk (221), and a driven gear (2242) meshingly matched with the driving gear (2241); the driven gear (2242) rotatably cooperates with the disk (221) and is coaxially arranged, so that the driven gear (2242) rotates as the driving gear (2241) rotates.

4. The scratch-resistant glass surface cleaning device according to claim 3, characterized in that: The driving gear (2241) is provided with a guide hole (2243), and the guide hole (2243) is plugged into and matched with the guide rod (225). The guide hole (2243) is arc-shaped, and the shape of the arc is consistent with the path shape of the guide rod (225) when it moves with the rotation of the driven gear (2242).

5. The scratch-resistant glass surface cleaning device according to claim 4, characterized in that: A limiting member (222) is provided at the end of the guide rod (225) away from the push-pull rod (223); the limiting member (222) is detachably connected to the guide rod (225), and the diameter of the limiting member (222) gradually decreases in a direction away from the driven gear (2242).

6. The scratch-resistant glass surface cleaning device according to claim 2, characterized in that: The disc (221) is provided with a slide groove (226) that slidably cooperates with the push-pull rod (223), and the groove surface of the slide groove (226) is directly connected to the outer peripheral side of the disc (221) along the radial direction of the disc (221), and the opening at the connection with the outer peripheral side of the disc (221) is arranged in a direction corresponding to the adsorption component (23).

7. The scratch-resistant glass surface cleaning device according to claim 2, characterized in that: The adsorption component (23) comprises a connection column (231) connected to the push-pull rod (223), and a suction cup (232) located above the connection column (231).

8. The scratch-resistant glass surface cleaning device according to claim 1, characterized in that: The polishing disc (24) is provided with a polishing paste spray pipe (26), and the polishing paste spray pipe (26) is used to spray glass polishing paste on the scratch-resistant glass surface. The polishing translation driving component (25) comprises an up-down moving component (251) connected to the polishing disc (24) and used to drive the polishing disc (24) to rise and fall, a front-back moving component (252) connected to the up-down moving component (251) and used to drive the up-down moving component (251) to move forward and backward, and a left-right moving component (253) connected to the front-back moving component (252) and used to drive the front-back moving component (252) to move left and right.

9. The scratch-resistant glass surface cleaning device according to claim 1, characterized in that: The front cleaning mechanism (1) comprises a front carrying platform (11), and a front water brush assembly (12) and a front drying assembly (13) which are sequentially arranged on the front carrying platform (11); the rear cleaning mechanism (3) comprises a rear carrying platform (31), and a rear water brush assembly (32) and a rear drying assembly (33) which are sequentially arranged on the rear carrying platform (31).

10. A method for cleaning a scratch-resistant glass surface, using a scratch-resistant glass surface cleaning device as claimed in any one of claims 1 to 9, characterized in that: The steps include: Acquire size information of the scratch-resistant glass, and control the adsorption distance adjustment component to adjust the corresponding distances between the adsorption components according to the size information; Pre-cleaning the surface of the scratch-resistant glass by a front-stage cleaning mechanism, wherein the pre-cleaning includes at least a predetermined number of cleaning processes and a drying process under predetermined drying conditions, wherein the cleaning process includes at least one water rinse and one brush wash; Placing the pre-cleaned scratch-resistant glass on the adsorption component, so that the adsorption component and the scratch-resistant glass are pneumatically adsorbed and matched; After spraying a predetermined ratio of glass polishing paste and clean water on the scratch-resistant glass that is pneumatically adsorbed by the adsorption component, polishing the scratch-resistant glass sprayed with the predetermined ratio of glass polishing paste and clean water by a polishing mechanism; The surface of the scratch-resistant glass is subsequently cleaned by a rear cleaning mechanism, wherein the subsequent cleaning includes at least a predetermined number of cleaning processes and a drying process under predetermined drying conditions, wherein the cleaning process includes at least one water rinse and one brush scrub.

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