Glasses cleaning suite

Abstract

The invention provides a glasses cleaning suite which comprises a cleaning part and a foot sleeve part, the cleaning part comprises a wet cleaning part and a wiping part, the wet cleaning part comprises a pipe body, an elastic supporting structure and a scrubbing layer, the pipe body can store and control washing liquid, the scrubbing layer is supported by the elastic supporting structure and used for scrubbing dust on lenses, and the wiping part comprises the elastic supporting structure, a suction wiping layer and a polishing layer. The elastic supporting structure is used for supporting the absorbing and wiping layer or the polishing layer and is used for removing soft flocks or absorbing liquid and wiping and removing marks and polishing the lenses; the foot sleeve parts are arranged on the two glasses legs, and each foot sleeve part is provided with a moisturizing cavity and a temperature-permeable cavity; wherein the wet cleaning piece and the wiping piece can be respectively inserted and accommodated in the moisturizing cavity and the temperature-permeable cavity. The problem that the glasses are provided with cleaning parts is solved, hidden carrying is light and attractive, wearing is stable and comfortable, constant-temperature moisturizing of the wet cleaning part and warm quick drying of the wiping part are achieved through the head temperature, and the protective and convenient cleaning mode of wet wiping and suction wiping polishing of the lenses is achieved.

Description

Technical Field

[0001] This application relates to an eyeglass cleaning kit, primarily used for cleaning eyeglasses. Background Technology

[0002] As a nearsighted glasses wearer, the inventor of this application has worn various types of glasses, including rimless, semi-rimless, and full-rimmed glasses. Cleaning glasses is a troublesome task. For example, the lenses are often covered with eye secretions, dandruff, fingerprints, dust, condensation, rainwater, soup, and oil stains. The inventor often uses traditional eyeglass cleaning cloths or even the corner of a garment to dry-wipe the lenses. This method cannot remove stubborn dirt and can also smear non-solid eye discharge onto the lenses, or leave particles on the cleaning cloth, causing scratches on the lenses. People usually store and carry eyeglass cleaning cloths with their glasses in an eyeglass case. However, many people often forget to leave them behind or simply don't like carrying their eyeglass cases, making cleaning inconvenient or causing the cleaning cloths to become dusty and dirty.

[0003] Currently, there are disposable lens cleaning wipes and other eyeglass cleaning devices on the market that can effectively remove oil, stains, and fog. However, they also have the following shortcomings: disposable wipes and individually packaged wipes will lead to resource waste if used every day for a long time, and the liquid on the wipes will wet or remain on the fingertips; other eyeglass cleaning devices are either single-function, have many parts and high production costs, or are bulky or heavy, inconvenient to carry and lack decorative appeal.

[0004] In view of the above problems, there is a need for an eyeglass cleaning kit that can use appropriate tools to clean the various types of dirt on the lenses without scratching them. It also needs to solve the problems of comfortable wearing of the glasses and the integration of the cleaning kit with the temples for easy carrying. Summary of the Invention

[0005] This application provides an eyeglass cleaning kit that enables a protective and convenient cleaning method for wet wiping and vacuum polishing of lenses.

[0006] This application provides an eyeglass cleaning kit, including a cleaning component and temple tips. The cleaning component includes a wet cleaning component and a wiping component. The wet cleaning component includes a tube, a support structure, and a cleaning layer. The tube can store and control cleaning fluid and supports the cleaning layer through the support structure for wiping dirt off the lenses. The wiping component includes a support structure, an absorption layer, and a polishing layer. The support structure supports the absorption layer or the polishing layer for brushing away lint or absorbing liquid to clean and polish the lenses. The temple tips are mounted on two temples and each temple tip has a moisturizing cavity and a temperature-transmitting cavity. The wet cleaning component and the wiping component can be inserted into and accommodated in the moisturizing cavity and the temperature-transmitting cavity, respectively.

[0007] Understandably, compared to commonly used eyeglass cleaning cloths, the cleaning kit is protected from accidental particle adhesion, and the pre-wet washing followed by wiping eliminates the risk of accidentally scratching the lenses. Compared to individually packaged wipes, it has lower usage costs and a longer lifespan, thus achieving a protective and convenient cleaning method for wet wiping and polishing the lenses. Furthermore, its compact design allows for easy placement in the temples, and this concealed carrying method makes it easy to access in case of emergency.

[0008] As an optional implementation, one end of the tube is sealed to form a suction bladder. The tube is made of at least one of transparent or translucent silicone, rubber, fluoropolymer, and polyester elastomer. The tube can fit tightly against the inner wall of the moisturizing cavity, and the suction bladder can abut against the opening of the moisturizing cavity. This allows the wet-washed parts to remain moist in the moisturizing cavity and prevents the washing solution from evaporating. It also ensures that the wet-washed parts will not fall out of the moisturizing cavity during movement. When the wet-washed parts are inserted into the moisturizing cavity, the suction bladder acts as a limit. At the same time, the liquid level in the suction bladder can be visually observed, and the design also has a decorative effect.

[0009] As an optional implementation, the support structure includes a gasket and a flat tube extending from the end of the tube body, with the flat tube and the tube body forming a receiving position. The cleaning layer is bonded to the gasket in a two-layer superposition manner to form a cleaning strip, and the cleaning strip is inserted into the reservoir opening. The cleaning strip can be accommodated in the receiving position after being bent. Alternatively, the support structure includes a spreading sheet extending from the tube body in a relatively opposite arrangement. This allows the wet cleaning part to have a large liquid storage capacity in the reservoir cavity within a small size, ensuring that the cleaning solution in the suction bag can be used for a long time. The spreading sheet extending from the tube body facilitates the diversification of cleaning parts to be suitable for cleaning various types of eyeglasses.

[0010] Furthermore, the cleaning layer is made of highly absorbent microfiber material. The expansion and contraction of the suction bladder can regulate the liquid content of the cleaning layer and draw liquid into the reservoir via the cleaning belt. The flat tube can bend elastically to support the cleaning belt, allowing it to conform to the curved surface of the lens when wet-wiping. This design prevents the microfiber material in the cleaning layer from scratching the lens, extends its lifespan, and accelerates liquid penetration into the cleaning layer under the suction force of the suction bladder. This allows the suction bladder to flexibly control the liquid output, achieving optimal cleaning results with minimal liquid usage. The flat tube's elastic support keeps the cleaning belt away from the suction bladder at the hand end, facilitating cleaning of eyeglasses where the frame edge is thicker than the lens.

[0011] As an optional implementation, the spring support structure further includes a main spring piece, a first sub-spring piece, a second sub-spring piece, a first forked spring piece, and a second forked spring piece. The first and second sub-spring pieces are respectively oscillatingly connected to the two sides of the oscillating end of the main spring piece, and the handles of the first and second forked spring pieces are respectively oscillatingly connected to the two sides of the handle end of the main spring piece. This stacking of spring pieces effectively prevents irreversible damage to the main spring piece from continuous bending over a long period.

[0012] Furthermore, the first spring clip is attached to the handle end of the first fork spring clip, and the suction layer extends and covers the handle end of the second fork spring clip. The suction layer between the first spring clip and the handle end of the first fork spring clip is folded and connected in a "Z" shape. The second spring clip is attached to the polishing layer, and the polishing layer and the suction layer are separated. This creates an uninterrupted diffusion and penetration path for the suction layer, increasing its liquid absorption capacity, which is sufficient to handle a large amount of liquid hanging on the lens. At the same time, the liquid in the suction layer will not wet the polishing layer, and the dry polishing layer removes dirt without leaving marks, resulting in a good polishing effect.

[0013] Furthermore, the handle end of the main spring is fitted with a handle cap that adapts to the suction bladder. When the main spring is bent under force, the swinging end of the first fork spring elastically supports the swinging end of the first sub-spring and the suction layer. When the main spring bends in the opposite direction, the swinging end of the second fork spring elastically supports the swinging end of the second sub-spring and the polishing layer. Through the elastic support between the springs, a stable triangular support structure is formed, which will not hinder the cleaning operation of the cleaning tape for eyeglasses with a frame edge greater than the lens thickness, while ensuring sufficient support and appropriate elasticity during operation. The handle cap facilitates operation and grip, and prevents finger grease from touching and contaminating the suction and polishing layers.

[0014] Furthermore, the spring is made of at least one of metal alloys and polyester elastomers. This ensures that the spring has a continuous elastic output, guaranteeing that the wiping layer and polishing layer can adhere firmly to the curved surface of the lens, resulting in a good cleaning effect. The wiping layer is made of the same material as the wiping layer. The wiping layer is made of highly absorbent microfiber material. The microfiber fabric is soft, has high cleaning power, and will not scratch the lens. It can restore its liquid absorption capacity after quick air drying and can be reused repeatedly. The polishing layer is made of at least one of suede, sheepskin, and cowhide natural leather. Natural leather is soft and delicate, does not easily shed lint, and has a good effect on mirror polishing and de-marking.

[0015] As an optional implementation, the temple tip portion also includes a temple tip sleeve that fits onto the temple, with the temple tip sleeve and the moisturizing cavity or heat-transmitting cavity being an integral structure, and the front end of the temple tip sleeve gradually widening and smoothly transitioning into the moisturizing cavity or heat-transmitting cavity; and / or the temple tip portion and the temple are an integral structure. In this way, the temple tip portion uses a combination of a sleeve body and a cavity body to form a smooth transition contour, ensuring the wearing comfort of the temple.

[0016] As an optional implementation, the surfaces of the moisturizing chamber and the heat permeability chamber are provided with concave textures and perforations, some of which penetrate the heat permeability chamber. The concave textures are gradient streamlined grooves, and the perforations are circular. Alternatively, the moisturizing chamber and the heat permeability chamber may be designed with cartoon characters, and the handle, cap, and suction pouch may be shaped to match the cartoon character of the moisturizing chamber or the heat permeability chamber. The perforations are located near the scalp of the moisturizing chamber and the heat permeability chamber, increasing friction and preventing the glasses from slipping, thus improving the stability of the glasses. The concave textures visually present a streamlined groove effect, which is aesthetically pleasing and also facilitates the overall flow of air or body heat within the heat permeability chamber, accelerating the drying of the cleaning kit. The cartoon character designs of the moisturizing chamber, the heat permeability chamber, and the handle, cap, and suction pouch enhance the aesthetics of the glasses cleaning kit and allow for greater design diversity.

[0017] This application discloses an eyeglass cleaning kit comprising a cleaning component and temple tips. The cleaning component includes a wet cleaning component and a wiping component. The wet cleaning component includes a tube, a spring-loaded structure, and a cleaning layer. The tube stores and controls cleaning fluid, supporting the cleaning layer through the spring-loaded structure for wiping dirt off the lenses. The wiping component includes a spring-loaded structure, a suction layer, and a polishing layer. The spring-loaded structure supports the suction layer or polishing layer for brushing away lint or absorbing liquid for cleaning and polishing. The temple tips are located on the two temples and each temple tip has a moisturizing cavity and a temperature-transmitting cavity, into which the wet cleaning component and the wiping component can be inserted respectively. This application solves the problem of configuring cleaning components for eyeglasses. It is concealed, lightweight, and aesthetically pleasing, and provides stable and comfortable wear. It utilizes head temperature to maintain a constant temperature for the wet cleaning component and allows the wiping component to dry quickly with warmth. By simulating the contact and pressure of fingertips touching the lens surface, it achieves a protective and convenient cleaning method for wet wiping dirt and suction polishing the lenses. In addition, the cartoon-style design of the suction cup and temple tips enhances its decorative appeal. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the eyeglass cleaning kit provided in the first preferred embodiment of this application;

[0019] Figure 2 for Figure 1 The diagram shows the wet cleaning component and the wiping component of the eyeglass cleaning kit being removed from the moisturizing chamber and the temperature permeability chamber, respectively.

[0020] Figure 3 This is a schematic diagram of the wet cleaning component in the eyeglass cleaning kit provided in the first preferred embodiment of this application;

[0021] Figure 4 for Figure 3 A cross-sectional view of the wet cleaning component in the eyeglass cleaning kit shown;

[0022] Figure 5 This is a schematic diagram of the wiping component in the eyeglass cleaning kit provided in the first preferred embodiment of this application;

[0023] Figure 6for Figure 5 A cross-sectional view of the cleaning component in the eyeglass cleaning kit shown;

[0024] Figure 7 for Figure 5 Another cross-sectional view of the cleaning component in the eyeglass cleaning kit shown;

[0025] Figure 8 This is a schematic diagram of the temple cover portion of the eyeglass cleaning kit provided in the first preferred embodiment of this application;

[0026] Figure 9 This is a schematic diagram illustrating the use of the eyeglass cleaning kit of this application;

[0027] Figure 10 This is a schematic diagram of the eyeglass cleaning kit provided in the second preferred embodiment of this application;

[0028] Figure 11 for Figure 10 The diagram shows the wet cleaning component and the wiping component of the eyeglass cleaning kit being removed from the moisturizing chamber and the temperature permeability chamber, respectively.

[0029] Figure 12 This is a schematic diagram of the wet cleaning component in the eyeglass cleaning kit provided in the second preferred embodiment of this application;

[0030] Figure 13 for Figure 12 A schematic diagram showing the unfolded cleaning layer in the eyeglass cleaning kit;

[0031] Figure 14 This is a schematic diagram of the wiping component in the eyeglass cleaning kit provided in the second preferred embodiment of this application;

[0032] Figure 15 for Figure 14 The diagram shows the unfolded suction layer of the eyeglass cleaning kit.

[0033] Figure 16 for Figure 14 The diagram shows the unfolded polishing layer in the eyeglass cleaning kit.

[0034] List of reference numerals

[0035] 1. Cleaning component; 10a. Wet cleaning component; 10b. Wiping component; 11. Tube body; 110. Suction bag; 111. Flat tube; 1111. Storage position; 112. Liquid storage chamber; 1120. Liquid storage chamber opening; 1121. Liquid storage chamber hole; 1122. Tube side hole; 113. Gasket; 114a. First spring; 114b. Second spring; 114c. Third spring; 114d. Fourth spring; 114e. Fifth spring; 114f. Sixth spring; 12a. Washing layer; 12b. Absorbent layer; 13. Washing tape; 14. Main spring; 140a. First sub-spring; 140b. Second sub-spring; 141a. First forked spring; 141b. Second forked spring; 15. Polishing layer; 16. Hand cap; 160. Hand cavity; 161. Hand cavity hole; 2. Temple cover; 20a. Moisturizing cavity; 20b. Temperature transmission cavity; 200. Concave texture; 201. Concave hole; 202. Concave curved surface; 21. Temple cover; 3. Temple. Detailed implementation method

[0036] To better understand the purpose, function, and specific design of this application, the eyeglass cleaning kit of this application will be described in further detail below with reference to the accompanying drawings.

[0037] It should be noted that, in the description of this application, unless otherwise explicitly specified and limited, the terms "connection", "plug-in", and "socket" should be interpreted broadly. For example, a connection can be a fixed connection, a detachable connection, an integral connection, or a swing connection. Those skilled in the art can understand the specific meaning of the above terms in this application according to the specific circumstances.

[0038] First refer to Figure 1 , Figure 2 and Figure 10 , Figure 11 The present application describes the eyeglass cleaning kit. Figure 1 This is a schematic diagram of the eyeglass cleaning kit provided in the first preferred embodiment of this application; Figure 2 for Figure 1 The diagram shows the wet cleaning component and the wiping component being removed from the moisturizing chamber and the temperature-transmitting chamber in the eyeglass cleaning kit. Figure 10 This is a schematic diagram of the eyeglass cleaning kit provided in the second preferred embodiment of this application; Figure 11 for Figure 10 The diagram shows the wet cleaning component and the wiping component of the eyeglass cleaning kit being removed from the moisturizing chamber and the temperature permeability chamber, respectively.

[0039] like Figure 1 , Figure 2 and Figure 10 , Figure 11As shown, this application solves the problem of configuring cleaning components for eyeglasses. The eyeglass cleaning kit includes a cleaning component 1 and temple tips 2. The cleaning component 1 includes a wet cleaning component 10a and a wiping component 10b. The wet cleaning component 10a includes a tube 11, a support structure, and a cleaning layer 12a. The tube 11 can store and control cleaning liquid and supports the cleaning layer 12a through the support structure for wiping dirt off the lenses. The wiping component 10b includes a support structure, an absorption layer 12b, and a polishing layer 15. The support structure supports the absorption layer 12b or the polishing layer 15 for brushing away hair or absorbing liquid to clean and polish the lenses. The temple tips 2 are provided on two temples 3, and the temple tips 2 are respectively provided with a moisturizing cavity 20a and a temperature-transmitting cavity 20b. The wet cleaning component 10a and the wiping component 10b can be inserted into and accommodated in the moisturizing cavity 20a and the temperature-transmitting cavity 20b, respectively.

[0040] As can be seen from the above description, compared to commonly used eyeglass cleaning cloths, the cleaning component 1 is isolated and protected, preventing accidental adhesion of particles, and the method of first wet washing and then wiping eliminates the risk of accidentally scratching the lenses; compared to individually packaged cleaning wipes, it has lower usage costs and a longer lifespan. Furthermore, its compact structure makes it easy to install on the temples, and this concealed carrying method allows for quick access in case of emergency, while also providing a beautiful, comfortable, and stable fit.

[0041] It should be noted that the eyeglass cleaning solution is neutral and can protect the lenses during cleaning. Various liquids can clean lenses, such as lens-specific cleaning solutions and anti-fogging solutions, which can effectively remove dust, dirt, and fingerprints. If the lenses are not covered with grease or grime, ordinary drinking water can also be used to clean lens dust. After repeated use, the wet cleaning component 10a and the wiping component 10b may become dirty. These can be washed with common neutral detergents and dried. Repeating this process provides a long-term protective cleaning method for the lenses.

[0042] Figure 3 This is a schematic diagram of the wet cleaning component in the eyeglass cleaning kit provided in the first preferred embodiment of this application; Figure 4 for Figure 3 The diagram shows a cross-sectional view of the wet cleaning component in the eyeglass cleaning kit; the specific unfolding method of the first preferred embodiment of the eyeglass cleaning kit can be found in [reference needed]. Figure 3 , Figure 4As shown. Specifically, one end of the tube 11 of the wet cleaning part 10a is sealed to form a suction bag 110. The tube 11 is made of at least one of transparent or semi-transparent silicone, rubber, fluoropolymer, and polyester elastomer. The tube 11 can fit tightly against the inner wall of the moisturizing cavity 20a, and the suction bag 110 can abut against the opening of the moisturizing cavity 20a. The above materials have high flexibility, good weather resistance, and chemical corrosion resistance. Even if it is curled, it can quickly return to its original shape, effectively avoiding irreversible damage caused by long-term bending deformation. It also ensures that when the wet cleaning part 10a is inserted into the moisturizing cavity 20a, the tube 11 can fit tightly against the inner wall of the moisturizing cavity 20a, which is airtight. This allows the cleaning solution in the suction bag 110 to be stored for a long time, and also ensures that the wet cleaning part 10a will not fall out of the moisturizing cavity 20a during movement. The amount of cleaning solution in the suction bag 110 can be visually observed through the transparent tube 11. Understandably, the shape of the suction bag 110 can be derived into many different forms according to actual needs, such as a specific logo shape. This is not limited here, as long as it does not affect the comfort of wearing glasses and can enhance visual aesthetics. The outer periphery of the suction bag 110 is larger than that of the tube 11, which can play a limiting role. The suction bag 110 is provided with a concave curved surface 202 that fits the fingertip, making it easy to grasp and operate with the fingertip.

[0043] like Figure 3 or Figure 4 As shown, the elastic structure in the wet cleaning component 10a includes a gasket 113 and a flat tube 111 extending from the end of the tube body 11. The flat tube 111 and the tube body 11 form a receiving position 1111. The cleaning layer 12a is attached to the gasket 113 in a two-layer superposition manner to form a cleaning strip 13, and the cleaning strip 13 is inserted into the liquid storage cavity opening 1120. The cleaning strip 13 can be accommodated in the receiving position 1111 after being bent. The cleaning layer 12a can be fixedly connected to the gasket 113 by sewing, gluing, or ultrasonic pressing. Through experimental verification, the two-layer superposition of the cleaning layer 12a allows the liquid to penetrate into the cleaning layer 12a more quickly under the action of adsorption force. The increased thickness of the cleaning layer 12a and the support of the gasket 113 can adapt to the concave and convex surfaces of the lens, so that there are no gaps between the cleaning layer 12a and the contact surface of the lens. The scrubbing belt 13 can be folded and stored in the storage position 1111, which is conducive to the quick storage of the wet cleaning part 10a when it is inserted into the moisturizing cavity 20a. At the same time, the thin-layer design of the scrubbing belt 13 allows the wet cleaning part 10a to have a large liquid storage capacity in a small size.

[0044] In this embodiment, the cleaning layer 12a is a layer of highly absorbent microfiber material. The expansion and contraction of the suction bladder 110 can regulate the liquid content of the cleaning layer 12a and draw liquid into the storage chamber 112 through the cleaning belt 13. The flat tube 111 can bend elastically to support the cleaning belt 13 to elastically conform to the curved surface of the wet-wiping lens. Choosing a suitable material for wiping the lens is very important. Ordinary cloth may have poor liquid absorption or contain coarse fibers, which can easily scratch the lens. The cleaning layer 12a is made of at least one of microfiber fabric and porous adsorption layered material. The microfiber fabric has a fiber fineness of 0.05~0.2dtex and a huge specific surface area, which can form a dense capillary liquid absorption network. It has strong liquid absorption, high cleaning power, softness, and can quickly regain its liquid absorption capacity after air drying. It has antibacterial properties and can be reused repeatedly. The cleaning layer 12a can also be a velvet layer with a fluffy structure formed by a mixture of microfiber polyester and nylon. It can absorb liquid under pressure, and the capillary gaps facilitate air circulation when drying. The suction cell 110 allows for flexible control of the liquid output of the cleaning layer 12a, achieving optimal cleaning results with minimal liquid usage and ensuring the cleaning solution in the suction cell 110 can be used for an extended period. Understandably, the flat tube structure of the elastomer is flexible and has lasting elasticity. Supported by the flat tube 111, the cleaning band 13 is positioned away from the suction cell 110 at the handheld end. The cleaning layer 12a can slide to fit and conform to the curved surface of the wet-wiping lens. It can also dislodge the turbid liquid and lint from the cleaning band 13 as it slides out of the lens, and it is also convenient for cleaning eyeglasses where the frame edge is thicker than the lens.

[0045] Figure 5 This is a schematic diagram of the wiping component in the eyeglass cleaning kit provided in the first preferred embodiment of this application; Figure 6 for Figure 5 A cross-sectional view of the cleaning component in the eyeglass cleaning kit shown; Figure 7 for Figure 5 Another cross-sectional view of the cleaning component in the eyeglass cleaning kit shown. (See image) Figure 5 or Figure 6 As shown, the spring support structure also includes a main spring piece 14, a first sub-spring piece 140a, a second sub-spring piece 140b, a first forked spring piece 141a, and a second forked spring piece 141b. The first sub-spring piece 140a and the second sub-spring piece 140b are respectively oscillatingly connected to the two sides of the oscillating end of the main spring piece 14, and the handles of the first forked spring piece 141a and the second forked spring piece 141b are respectively oscillatingly connected to the two sides of the handle of the main spring piece 14. Experimental verification shows that the multi-layered spring pieces have a larger bending range during cleaning operations than a single spring piece. The handle can be moved away from the lens, preventing fingertips from touching the lens surface, ensuring continuous output of elastic force, preventing the elastic force of the spring pieces from weakening during use, providing a cushioned feel for handling the concave and convex surfaces of the lens, and effectively preventing irreversible damage to the main spring piece 14 due to long-term continuous bending.

[0046] Furthermore, the first split spring 140a and the handle end of the first forked spring 141a are attached to the suction layer 12b, and extend to cover the handle end of the second forked spring 141b. The suction layer 12b between the first split spring 140a and the handle end of the first forked spring 141a is folded in a "Z" shape (e.g., ...). Figure 5 As shown), the second spring sheet 140b is bonded to the polishing layer 15, and the polishing layer 15 is separated from the wiping layer 12b. By bonding the wiping layer 12b and the polishing layer 15 to the first spring sheet 140a and the second spring sheet 140b respectively in a minimum of two-layer stacked manner, the curvature fit and force of wiping a lens with a cloth using a fingertip are simulated. This allows the wiping component 10b to simultaneously achieve the functions of wiping dry and cleaning, as well as scratch removal and polishing, within a relatively small design size. Furthermore, it is connected to the front end of the main spring sheet 14 by a folded edge (as shown). Figure 6 As shown, to prevent the wiping element 10b from peeling off from the beginning of the spring during long-term use or when inserted into the temperature transmission cavity 20b, the wiping layer 12b is folded in a "Z" shape for easy storage, while forming a path for the cleaning solution to penetrate and diffuse in the wiping layer 12b. Experiments have verified that the uninterrupted wiping layer 12b allows the cleaning solution to diffuse and transfer quickly, eventually resulting in the same humidity at the beginning and end of the wiping layer 12b. This increases the number of wiping layer 12b layers, which can absorb and clean a large amount of cleaning solution hanging on the lens and allow it to diffuse and dry quickly. By separating the wiping layer 12b and the polishing layer 15 or is isolated by the main spring 14, the liquid absorbed by the wiping layer 12b will not wet the polishing layer 15, and the polishing layer 15 will remain dry, resulting in a better scratch removal and polishing effect.

[0047] Furthermore, the handle end of the main spring 14 is fitted with a handle cap 16 adapted to the suction bag 110 (such as...). Figure 5 As shown), when the main spring 14 is bent under force, the swinging end of the first fork spring 141a will elastically support the swinging end of the first sub-spring 140a and the suction layer 12b (as shown). Figure 6 As shown), when the main spring 14 bends in the reverse direction, the swinging end of the second fork spring 141b will elastically support the swinging end of the second sub-spring 140b and the polished layer 15 (as shown). Figure 7As shown, the handle cap 16 includes a handle cavity 160 and a handle cavity hole 161 that fit onto the end of the spring handle. The shape of the handle cap 16 matches the shape of the suction bag 110, enhancing its aesthetics and providing comfortable wear. It prevents finger oils on the handle cap 16 from contaminating the suction layer 12b or the polishing layer 15. The handle cavity hole 161 facilitates ventilation and drying of the suction layer 12b and also increases friction for easy fingertip gripping. Understandably, by holding the handle cap 16, one can use the suction layer 12b to flick away lint and debris from the lens, and the elasticity can also help to shake off particles adhering to the surface of the suction layer 12b, preventing particles from scratching the lens and ensuring that the suction layer 12b is clean before each lens cleaning. Through the elastic support between the springs, a stable triangular support structure is formed. The force applied by the fingertip can be transmitted to the first spring 140a or the second spring 140b, so that the wiping layer 12b on the first spring 140a or the polishing layer 15 on the second spring 140b can elastically adapt to the concave and convex surfaces of the lens, increasing the contact area and improving cleaning efficiency. Even glasses with frame edges higher than lens thickness are easy to hold and operate, while ensuring sufficient support and continuous elastic output during operation.

[0048] In this embodiment, the spring is made of at least one of plastic and metal elastic materials. The spring provides strong support for the cleaning component 10b to fit snugly against the curved surface of the lens, and also directly affects the volume of the cleaning component and the entire foot cover. Based on extensive experimental verification, the inventors of this application have selected PET (polyethylene terephthalate) material for the exemplary spring. When the main spring 14 has a length of 30.5 mm and a width of 5 mm, the thickness can be 0.3 mm; when the first and second sub-springs 140a and 140b have a length of 18.5 mm and a width of 5 mm, the thickness can be 0.3 mm; when the first and second forked springs 141a and 141b have a length of 18.5 mm and a width of 5 mm, the thickness can be 0.2 mm. This allows the cleaning component 10b to form an overall optimal proportion (excluding the handle cap 16) of 32 mm in length, 5 mm in width, and 3 mm in thickness, making it easy to carry discreetly, lightweight, aesthetically pleasing, and elastic, which is beneficial for holding and cleaning operations. The polishing layer 15 is made of at least one of suede, sheepskin, and cowhide suede. Suede is made from deer, goat, sheep, or cowhide that has undergone special tanning and has a surface that has been sanded to create a dense, uniform, soft, and extremely fine nap. It has a large surface area and oleophilic properties, effectively absorbing dust, grease, fingerprints, and other tiny particles. Furthermore, the material is pure, durable, and does not easily shed lint. A clean, dry suede surface provides a damping feel when wiping the lens, and polishing leaves no streaks and yields excellent results. The wiping layer 12b is made of the same material as the washing layer 12a, and will not be described further here.

[0049] Figure 8This is a schematic diagram of the temple tip portion of the eyeglass cleaning kit provided in the first preferred embodiment of this application; as shown in the figure, the temple tip portion 2 also includes a temple tip 21 that is fitted onto the temple 3. The temple tip 21 and the moisturizing cavity 20a or the heat permeability cavity 20b are an integral structure. The front end of the temple tip 21 gradually expands and smoothly transitions to the moisturizing cavity 20a or the heat permeability cavity 20b, and forms a concave curved surface 202, so that the sleeve and the cavity are combined to form a smooth transition decorative and stable structure, which is conducive to wearing comfort.

[0050] See Figure 1 , Figure 2 The surfaces of the moisturizing cavity 20a and the heat-permeable cavity 20b are provided with grooves 200 and recesses 201, and some of the grooves 200 and recesses 201 penetrate the heat-permeable cavity 20b (e.g. Figure 8 As shown), the concave texture 200 is a gradient streamlined groove, and the shape of the concave texture 200 matches the shape of the handle cap 16 or the suction bag 110. The pattern of the concave texture 200 is diverse, as long as the design layout of the concave texture 200 needs to match the appearance of the glasses and be aesthetically pleasing. In this embodiment, the concave texture 200 is distributed in a radiating pattern on the outside of the moisturizing cavity 20a and the heat transmission cavity 20b, which visually presents a streamlined groove effect. At the same time, it is conducive to the overall circulation of air or body temperature in the heat transmission cavity 20b, which can accelerate the dehumidification and drying of the cleaning part 10b. Since the temple part 2 is located at the ear position and in contact with the scalp, the wet cleaning part 10a does not freeze at a low temperature in the moisturizing cavity 20a through body temperature conduction and heat radiation, and the cleaning part 10b dries quickly in the heat transmission cavity 20b. The shape of the recess 201 can be designed as a rectangle or an irregular shape according to visual effect requirements. The number and location of the recess 201 can also be selected according to appearance and ventilation requirements. Preferably, the recess 201 is circular and is located in the position close to the scalp in the moisturizing cavity 20a and the temperature permeable cavity 20b to increase friction, play a role in preventing the glasses from slipping, and enhance the stability of wearing.

[0051] When using this eyeglass cleaning kit, pinch the temple tips 2 of the crossed temples 3 with your hand, exposing the suction bladder 110 and the stem cap 16, so that the two temples 3 support the suspended eyeglass lenses and the lens surface is in a downward tilted state (e.g. Figure 9As shown, for small amounts of static-attracted substances such as hair and dander on the lens, simply pull out the cleaning component 10b and use the wiping layer 12b to sweep them away. For fingerprints, oil, stains, granular crystals, or viscous eye discharge on the lens, pull out the wet cleaning component 10a and adjust the liquid content on the wiping layer 12a according to the degree of dirtiness of the lens to clean it. The elasticity of the tube 11 can even be used to eject the dirt from the lens area. After cleaning, insert the wet cleaning component 10a back into the moisturizing chamber 20a, then use the wiping layer 12b of the cleaning component 10b to absorb the liquid and dry the lens. Finally, use the polishing layer 15 to polish the lens to remove scratches, and then insert the cleaning component 10b back into the temperature transmission chamber 20b. It should be noted that when rinsing or soaking the lens directly with water, if a large amount of liquid is hanging on the lens, the wet cleaning component 10a can be used to absorb it, followed by wiping and polishing with the cleaning component 10b. After repeated use, the wet-cleaned part 10a and the wiped-clean part 10b will become dirty. They can be cleaned with common neutral detergents. Before using the polishing layer 15, the lens must be completely dry and the polishing layer 15 must be clean and dry for the best scratch removal and polishing effect.

[0052] Please see Figure 10 , Figure 11 The second preferred embodiment of this application is generally the same as the first preferred embodiment in terms of overall structure. The difference from the first preferred embodiment is that the temple cover 2 and the temple 3 are integrated into one structure, the moisturizing cavity 20a and the temperature transmission cavity 20b are cartoon characters, and the shape of the handle cap 16 and the suction bag 110 is adapted to the cartoon characters of the moisturizing cavity 20a or the temperature transmission cavity 20b, which is conducive to the diversification of the design of the eyeglass cleaning kit to meet the needs of consumer groups with different aesthetic tastes.

[0053] In this embodiment, the moisturizing cavity 20a or the heat-transmitting cavity 20b and the temple 3 can be an integral structure. The front end of the temple 3 is smooth towards the rear end, gradually narrows in width and then extends smoothly, then bends and gradually enlarges and extends until it reaches the front end of the moisturizing cavity 20a or the heat-transmitting cavity 20b, and the rear end forms the opening of the moisturizing cavity 20a or the heat-transmitting cavity 20b. The shape of the moisturizing cavity 20a and the heat-transmitting cavity 20b, as well as the concave texture 200, match the shape of the suction bag 110 and the stem cap 16. The suction bag 110 and the stem cap 16 are shaped like cartoon animal heads. The moisturizing cavity 20a and the heat-transmitting cavity... The design of 20b and the concave texture of 200 are cartoon limb shapes. By employing etching, openwork carving, and mold forming to reduce wall thickness while adding a background to highlight the limb shape, it achieves both decorative and openwork ventilation effects. The cartoon images on the suction bag 110 and the handle cap 16 include, but are not limited to, cartoon animal images. Understandably, cartoon images can be derived into many variations according to actual needs; for example, they can also be flowers or emoji images. These are not listed here, as long as they do not affect the comfort of wearing the glasses and can enhance visual aesthetics. For example... Figure 11As shown, the detachable connection formed by the cartoon headdress and cartoon limbs makes the user feel as if the animal's neck is being stretched or shortened during the operation of inserting and removing the cleaning component 1, which is fun and appealing to users.

[0054] Figure 12 This is a schematic diagram of the wet cleaning component in the eyeglass cleaning kit provided in the second preferred embodiment of this application; Figure 13 for Figure 12 The diagram shows the unfolded cleaning layer of the eyeglass cleaning kit. Figure 12 As shown, the support structure also includes a first and second expansion springs 114a and 114b extending from one end of the tube 11 and arranged opposite to each other. A liquid storage cavity 1121 is provided between the first and second expansion springs 114a and 114b. The washing layer 12a is folded between the first and second expansion springs 114a and abuts against the liquid storage cavity 1121. This allows the suction bag 110 to flexibly control the liquid output of the washing layer 12a, achieving the best cleaning effect with the least amount of washing liquid. The washing layer 12a is folded so that the liquid storage cavity of the wet-washed part 10a has a large liquid storage capacity within a small size. By stretching the washing layer 12a through the expansion springs, the wet-washed part 10a is in a "T" shape (e.g., ...). Figure 13 As shown), the cleaning layer 12a can slide and fit against the curved surface of the lens for large-area cleaning, making it easy to operate even for glasses with frame edges higher than the lens thickness.

[0055] Figure 14 This is a schematic diagram of the wiping component in the eyeglass cleaning kit provided in the second preferred embodiment of this application; Figure 15 for Figure 14 The diagram shows the unfolded suction layer of the eyeglass cleaning kit. Figure 16 for Figure 14 The diagram shows the unfolded polishing layer of the eyeglass cleaning kit. Figure 14 As shown, the support structure also includes a third spring sheet 114c, a fourth spring sheet 114d, a fifth spring sheet 114e, and a sixth spring sheet 114f extending from both ends of the tube body 11. The suction layer 12b is folded and bonded between the opposing third spring sheets 114c and fourth spring sheets 114d, and the suction layer 12b is extended and stacked within the tube body 11. The polishing layer 15 is folded and bonded between the opposing fifth spring sheets 114e and sixth spring sheets 114f. The third spring sheets 114c and fourth spring sheets 114d can be bent apart to stretch and expand the suction layer 12b (e.g., Figure 15 (As shown); the fifth spring 114e and the sixth spring 114f are separated and can be bent and stretched to open the polished layer 15 (as shown). Figure 16(As shown). The wiping layer 12b is extended and stacked inside the tube body 11, increasing the liquid absorption capacity of the wiping layer 12b, which is sufficient to handle a large amount of liquid hanging on the lens. The tube body 11 is provided with a tube side hole 1122, which is conducive to the rapid drying of the liquid absorbed in the wiping layer 12b inside the tube. By stretching the wiping layer 12b or the polishing layer 15 through the expansion elastic sheet, the cleaning part 10b is in the shape of a "T", which can automatically adapt to the concave and convex surfaces of the lens, increasing the contact surface and improving cleaning efficiency. It is also convenient for cleaning glasses with frame edges higher than the lens thickness.

[0056] From the above description, it can be seen that the embodiments of this application achieve the following technical effects:

[0057] This application solves the problem of configuring cleaning components for eyeglasses. The eyeglass cleaning kit includes a cleaning component 1 and temple tips 2. The cleaning component 1 includes a wet cleaning component 10a and a wiping component 10b. The wet cleaning component 10a includes a tube 11, a spring-loaded structure, and a cleaning layer 12a. The tube 11 can store and control cleaning fluid, and the spring-loaded structure supports the cleaning layer 12a for wiping dirt off the lenses. The wiping component 10b includes a spring-loaded structure, an absorption layer 12b, and a polishing layer 15. The spring-loaded structure supports the absorption layer 12b or the polishing layer 15 for brushing away lint or absorbing liquid to clean the lenses. And scratch removal and polishing; the temple tips 2 are set on the two temples 3, and the temple tips 2 are respectively provided with a moisturizing cavity 20a and a temperature transmission cavity 20b. The wet cleaning component 10a and the cleaning component 10b can be inserted and housed in the moisturizing cavity 20a and the temperature transmission cavity 20b, respectively; it is lightweight and beautiful to carry in a hidden manner, and is stable and comfortable to wear. It uses the temperature of the head to keep the wet cleaning component 10a moisturized and the cleaning component 10b warm and quick-drying. By simulating the fit and force of the fingertip touching the lens surface, it achieves a protective and convenient cleaning method for wet wiping dirt and suction polishing the lens. In addition, the suction bag 110 and the handle cap 16 are designed with cartoon characters, which makes it more decorative and ornamental.

[0058] It should be noted that the above are merely specific embodiments of this application, but the scope of protection of this application is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in this application should be included within the scope of protection of this application. Where there is no conflict, the embodiments and features described in the embodiments of this application can be combined with each other. Therefore, the scope of protection of this application should be determined by the scope of the claims.

Claims

1. A glasses cleaning kit, characterized in that, The eyeglasses cleaning kit includes: The cleaning component includes a wet cleaning component and a wiping component. The wet cleaning component includes a tube, a support structure, and a cleaning layer. The tube can store and control cleaning fluid and supports the cleaning layer through the support structure for wiping dirt off the lens. The wiping component includes a support structure, an absorption layer, and a polishing layer. The support structure supports the absorption layer or polishing layer for brushing away lint or absorbing fluid to clean and polish the lens. The temple cover is provided on the two temples of the glasses, and the temple cover is provided with a moisturizing cavity and a temperature-transmitting cavity respectively; The wet cleaning component and the wiping component can be respectively inserted into the moisturizing cavity and the temperature-permeable cavity.

2. The eyeglass cleaning kit according to claim 1, characterized in that: One end of the tube is sealed to form a suction bag. The tube is made of at least one of transparent or semi-transparent silicone, rubber, fluoropolymer, and polyester elastomer. The tube can fit tightly against the inner wall of the moisturizing cavity, and the suction bag can abut against the opening of the moisturizing cavity.

3. The eyeglass cleaning kit according to claim 1 or 2, characterized in that: The elastic support structure includes a gasket and a flat tube extending from the end of the tube body, with the flat tube forming a receiving position with the tube body. The scrubbing layer is attached to the gasket in a two-layer superposition manner to form a scrubbing strip, and the scrubbing strip is inserted into the liquid storage cavity opening. The scrubbing strip can be accommodated in the receiving position after being bent; and / or The support structure includes a tube extending from which opposing expansion plates are extended.

4. The eyeglass cleaning kit according to claim 3, characterized in that: The cleaning layer is a layer of highly absorbent microfiber material. The expansion and contraction of the suction bladder can adjust the liquid content of the cleaning layer and draw liquid into the storage cavity through the cleaning belt. The flat tube can bend elastically to support the cleaning belt to elastically fit the curved surface of the wet cleaning lens.

5. The eyeglass cleaning kit according to claim 1, characterized in that: The spring support structure also includes a main spring piece, a first sub-spring piece, a second sub-spring piece, a first forked spring piece, and a second forked spring piece. The first sub-spring piece and the second sub-spring piece are respectively oscillatingly connected to the two sides of the oscillating end of the main spring piece, and the handle ends of the first forked spring piece and the second forked spring piece are respectively oscillatingly connected to the two sides of the handle end of the main spring piece.

6. The eyeglass cleaning kit according to claim 1 or 5, characterized in that: The first spring sheet is attached to the first fork spring sheet handle end and connected to the suction layer, and extends to cover the second fork spring sheet handle end. The suction layer between the first spring sheet and the first fork spring sheet handle end is folded and connected in a "Z" shape. The second spring sheet is attached to the polishing layer, and the polishing layer and the suction layer are separated.

7. The eyeglass cleaning kit according to any one of claims 5 or 6, characterized in that: The handle end of the main spring is connected to a handle cap adapted to the suction bag. When the main spring is bent under force, the swing end of the first fork spring will elastically support the swing end of the first sub-spring and the suction layer. When the main spring is bent in the opposite direction, the swing end of the second fork spring will elastically support the swing end of the second sub-spring and the polishing layer.

8. The eyeglass cleaning kit according to claim 1 or 7, characterized in that: The spring is made of at least one of metal alloys and polyester elastomers, the wiping layer is made of the same material as the washing layer, and the polishing layer is made of at least one of suede, sheepskin, and cowhide natural leather.

9. The eyeglass cleaning kit according to claim 1, characterized in that: The temple cover also includes a temple cover that fits onto the temple, the temple cover being an integral structure with the moisturizing cavity or the heat-transmitting cavity, the front end of the temple cover gradually widening and smoothly transitioning into the moisturizing cavity or the heat-transmitting cavity; and / or The temple cover and the temple are an integral structure.

10. The eyeglass cleaning kit according to claim 1, characterized in that: The surfaces of the moisturizing cavity and the heat-transmitting cavity are provided with grooves and holes, some of which penetrate the heat-transmitting cavity. The grooves are gradually streamlined grooves, and the holes are circular. And / or The moisturizing cavity and the heat permeability cavity are cartoon characters, and the handle cap and suction bag are designed to match the cartoon characters of the moisturizing cavity or the heat permeability cavity.

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