Automatic cleaning machine for glasses

Abstract

The application relates to an automatic glasses cleaning machine, wherein an upper box body and a lower box body are movably connected and jointly form a containing area; a glasses fixing device is used for positioning and placing glasses to be cleaned; a rubbing cleaning device has a first position for contacting two surfaces of lenses of the glasses and a second position for being separated from the lenses; a driving control module drives the rubbing cleaning device to move and drives the rubbing cleaning device to be easily positioned at the first position and the second position; a water inlet pipe is arranged on the upper box body or the lower box body; a water drop removing device is connected with the water inlet pipe and is used for applying water flow to the lenses to remove residual water drops on the lenses; a water outlet pipe is arranged in the lower box body and is connected with the bottom of the containing area. The automatic glasses cleaning machine has the advantages of simple structure, convenient use, small size, automatic cleaning process and the like; the design of the upper box body and the lower box body makes the automatic glasses cleaning machine easy to carry, place and use; the water inlet pipe and the water outlet pipe are matched to realize the water feeding and discharging functions of the automatic glasses cleaning, and manual operation is not needed for water feeding or discharging.

Description

Technical Field

[0001] This application relates to the field of eyeglass cleaning, and in particular to automatic eyeglass cleaning machines. Background Technology

[0002] Eyeglasses are everyday items, but they easily accumulate dust, lint, fingerprints, sweat, etc. during use. Cleaning methods include manual wiping and machine cleaning.

[0003] Traditional lens cleaning mainly includes factory-level pre-shipment lens cleaning and store-level ultrasonic cleaning. Factory-level lens cleaning is not suitable for home use, while ultrasonic cleaning requires manual injection of clean water, manual addition of detergent, manual pouring out of dirty water, manual wiping, etc. Moreover, ultrasonic technology is only suitable for deep cleaning and cannot effectively remove fingerprints, sweat, or even detergent residue on the lenses, requiring further manual wiping or rinsing. Furthermore, due to its complex structure, large size, high cost, and other reasons, it is difficult to use it widely in homes. Utility Model Content

[0004] Therefore, it is necessary to provide an automatic eyeglass cleaning machine.

[0005] One embodiment of this application is an automatic eyeglass cleaning machine, which includes a water inlet pipe, a drain pipe, an upper box and a lower box, wherein the upper box and the lower box are movably connected and together form a receiving area;

[0006] The automatic eyeglass cleaning machine also includes a rubbing cleaning device, an eyeglass fixing device, a drive control module, a water droplet removal device, and an automatic detergent injection device, all disposed in the receiving area.

[0007] The eyeglass fixing device is used to position and place the eyeglasses to be cleaned;

[0008] The rubbing and cleaning device has a first position that contacts both sides of the lens of the eyeglasses, and a second position that is separated from the lens;

[0009] The automatic detergent dispensing device is used to apply detergent to one of the agitation cleaning device and the lens;

[0010] The drive control module is connected to the rubbing and cleaning device and is used to drive the rubbing and cleaning device to move and to drive the rubbing and cleaning device to be easily positioned in the first position and the second position.

[0011] The water inlet pipe is located in one of the upper and lower housings, and the water droplet removal device is connected to the water inlet pipe to apply water flow to the lens to remove residual water droplets on the lens;

[0012] The drain pipe is located in the lower box and connects to the bottom of the receiving area.

[0013] The aforementioned automatic eyeglass cleaning machine, through its upper and lower housings, along with a rubbing cleaning device, eyeglass fixing device, drive control module, water droplet removal device, and automatic detergent injection device, achieves a simple, convenient, and miniaturized automatic eyeglass cleaning function. Simply place the eyeglasses to be cleaned in the designated position, and the cleaning process becomes automated, requiring no manual operation. Theoretically, it is suitable for all types and sizes of framed eyeglasses currently on the market, making it suitable for both home and commercial use. Furthermore, the design of the upper and lower housings makes the automatic eyeglass cleaning machine easy to carry, place, and use. The water inlet and outlet pipes provide automatic water supply and drainage, eliminating the need for manual water addition or removal. Finally, the drive control module drives the rubbing cleaning device at the first and second positions. The interchangeable positions allow the rubbing cleaning device to be in the first contact position when wiping the lenses, and in the second position separated from the lenses when removing residual water droplets. This ensures effective cleaning of the glasses while simplifying the drive structure of the rubbing cleaning device in the automatic glasses cleaning machine. Furthermore, the automatic detergent injection device, in conjunction with the rubbing cleaning device, enhances the cleaning effect. Combined with the water droplet removal device, it effectively removes fingerprints, sweat, and detergent residue from the lenses, while also removing residual water droplets. The cleaning effect is excellent, fast, and efficient, avoiding the scratches that can occur with manual lens wiping and extend the lifespan of the glasses, while also saving cleaning time. Attached Figure Description

[0014] To more clearly illustrate the technical solutions in the embodiments of this application or the conventional technology, the drawings used in the description of the embodiments or the conventional technology will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0015] Figure 1 This is a schematic diagram illustrating an embodiment of the automatic eyeglass cleaning machine described in this application.

[0016] Figure 2 for Figure 1 Another cross-sectional view of the embodiment shown.

[0017] Figure 3 for Figure 1 Another schematic diagram of the embodiment shown.

[0018] Figure 4 for Figure 2 Another cross-sectional view of the embodiment shown.

[0019] Figure 5 for Figure 4 Another cross-sectional view of the embodiment shown.

[0020] Figure 6 for Figure 5 Another schematic diagram of the embodiment shown.

[0021] Figure 7 for Figure 6 A schematic diagram of the eyeglass fixing device in the embodiment shown.

[0022] Figure 8 for Figure 6 A schematic diagram of the water jet spraying device in the embodiment shown.

[0023] Figure 9 for Figure 6 A schematic diagram of the water droplet removal device in the embodiment shown.

[0024] Figure 10 for Figure 6 A partial structural schematic diagram of the embodiment shown.

[0025] Figure 11 for Figure 10 The illustrated embodiment shows a partial structural diagram of the removal of the wiper ring.

[0026] Reference numerals: 1. Water inlet pipe; 2. Water pressure stabilizing device; 3. Water filtration device; 4. Scrubbing and cleaning device; 5. Glasses fixing device; 6. First T-shaped water pipe; 7. Drain pipe; 8. Drive control module; 9. Detergent container; 10. First automatic moving device; 11. Second automatic moving device; 12. Water jet spraying device; 13. Water droplet removal device; 14. Automatic detergent injection device; 15. Third automatic moving device; 16. Transparent waterproof cover; 17. First fan; 18. Second fan; 19. Second T-shaped water pipe; 20. First solenoid valve; 21. Second solenoid valve; 22. First water pipe; 23. Second water pipe; 24. First detergent connecting pipe; 25. Second detergent connecting pipe; 26. U-shaped water pipe; 27. Follow-up silicone soft water pipe; 28. Shelf; 29. ​​Clip handle; 30. First magnet at the end of the clamp; 31. Second magnet at the end of the clamp; 32. First magnet of the shelf; 33. Second magnet of the shelf; 4. First silicone... 34. Adhesive; 35. Second silicone sealant; 36. Temple stop bar; 37. First push-pull screw; 38. Second push-pull screw; 39. Third push-pull screw; 40. Fourth push-pull screw; 41. Left side mounting space; 42. Right side mounting space; 43. Detergent foam nozzle; 44. Screw end wheel; 45. First connecting rod; 46. Second connecting rod; 47. First honeycomb perforated guide plate; 48. Water spray surface; 49. Second honeycomb perforated guide plate; 50. Guide mesh; 50. Water outlet. Surface 51, First clamping groove 52, Second clamping groove 53, First wiping ring 54, Second wiping ring 55, Third wiping ring 56, Fourth wiping ring 57, Inner frame of wiping ring 58, Hard sheet inside the wiping part 59, Soft wiping body inside the wiping part 60, Wiping part 61, Eyeglasses body 62, Eyeglasses temples 63, Upper case 64, Lower case 65, Receiving area 66, Lens 67, Temple support 68, Automatic eyeglasses cleaning machine 70. Detailed Implementation

[0027] To make the above-mentioned objectives, features, and advantages of this application more apparent and understandable, the specific embodiments of this application are described in detail below with reference to the accompanying drawings. Many specific details are set forth in the following description to provide a thorough understanding of this application. However, this application can be implemented in many other ways different from those described herein, and those skilled in the art can make similar modifications without departing from the spirit of this application. Therefore, this application is not limited to the specific embodiments disclosed below.

[0028] It should be noted that when a component is referred to as being "fixed to" or "set on" another component, it can be directly on the other component or there may be an intermediate component. When a component is considered to be "connected to" another component, it can be directly connected to the other component or there may be an intermediate component present. The terms "vertical," "horizontal," "upper," "lower," "left," "right," and similar expressions used in this application's specification are for illustrative purposes only and do not represent the only possible implementation.

[0029] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include at least one of that feature. In the description of this application, "multiple" means at least two, such as two, three, etc., unless otherwise explicitly specified.

[0030] In this application, unless otherwise expressly specified and limited, "above" or "below" the second feature can mean that the first feature is in direct contact with the second feature, or that the first feature and the second feature are in indirect contact through an intermediate medium. Furthermore, "above," "over," and "on top" the second feature can mean that the first feature is directly above or diagonally above the second feature, or simply indicates that the first feature is at a higher horizontal level than the second feature. "Below," "below," and "under" the second feature can mean that the first feature is directly below or diagonally below the second feature, or simply indicates that the first feature is at a lower horizontal level than the second feature.

[0031] Unless otherwise defined, all technical and scientific terms used in this application have the same meaning as commonly understood by one of ordinary skill in the art to which this application belongs. The terminology used in this application is for the purpose of describing particular embodiments only and is not intended to be limiting of the application. The term "and or" as used in this application includes any and all combinations of one or more of the associated listed items.

[0032] This application discloses an automatic eyeglass cleaning machine, which includes some or all of the technical features of the following embodiments; that is, the automatic eyeglass cleaning machine includes some or all of the following structures. For example... Figure 1 and Figure 2 As shown, in some embodiments, an automatic eyeglass cleaning machine 70 is used for automatically cleaning eyeglasses, combined with... Figure 3 and Figure 4 The automatic eyeglass cleaning machine 70 includes a water inlet pipe 1, a drain pipe 7, an upper box 64, and a lower box 65. The upper box 64 and the lower box 65 are movably connected and together form a receiving area 66. As an example, the upper box 64 and the lower box 65 are connected by a fastener, hinge, or latch. As an example, the upper box 64 is a cover, and the receiving area 66 is formed within the lower box 65. The cover is placed on the lower box 65 to close the receiving area 66. As an example, the upper box 64 is a transparent cover, such as a transparent waterproof cover 16, to facilitate opening and easy observation of the state inside the receiving area 66. As an example, the rest of the upper box 64, except for the transparent waterproof cover 16, is integrally formed with the lower box 65.

[0033] The automatic eyeglass cleaning machine 70 also includes a rubbing cleaning device 4, an eyeglass fixing device 5, a drive control module 8, a water droplet removal device 13, and an automatic detergent injection device 14, all disposed in the receiving area 66. The eyeglass fixing device 5 is used to position the eyeglasses to be cleaned, for example, to position the main body 62 of the eyeglasses to be cleaned. As an example, the eyeglass fixing device 5 places the eyeglasses to be cleaned in a suitable position for subsequent cleaning. That is, when using the automatic eyeglass cleaning machine 70, the user only needs to open the upper box 64 to expose the receiving area 66, position the eyeglasses to be cleaned using the eyeglass fixing device 5, and then close the upper box 64 to close the receiving area 66. The subsequent cleaning process is all automated, as detailed below. As an example, the upper box 64 is a transparent cover to facilitate opening and easy observation of the state inside the receiving area 66.

[0034] The automatic detergent dispensing device 14 is used to apply detergent to one of the rubbing cleaning device 4 and the lens 67 to protect the lens 67 of the eyeglasses and prevent the rubbing cleaning device 4 from dry-brushing and scratching the lens 67. For example, when the automatic detergent dispensing device 14 applies detergent, the detergent can be in foam or liquid form. Furthermore, the rubbing cleaning device 4 has a first position contacting both sides of the lens 67 of the eyeglasses and a second position separated from the lens 67. For example, the rubbing cleaning device 4 contacts both sides of the lens 67 of the eyeglasses in the first position, that is, the rubbing cleaning device 4 contacts both sides of the two lenses 67 of the eyeglasses respectively in the first position, to cooperate with other structural components to achieve a certain automatic cleaning function of the eyeglasses, such as cleaning the lens 67 of the eyeglasses by rubbing and wiping. In the second position, the rubbing cleaning device 4 is separated from the lens 67, that is, it is no longer in contact with the lens 67, to cooperate with other structural components to achieve other automatic cleaning functions of the eyeglasses, such as cleaning the lens 67 of the eyeglasses by spraying or injecting water. As an example, the rubbing cleaning device 4 rises to a certain position as the first position of contacting the lens 67, and the rubbing cleaning device 4 falls to a certain position as the second position of separating from the lens 67. Figure 1 The rubbing and cleaning device 4 shown is positioned above the lens 67 in the first position. In other embodiments, the rubbing and cleaning device 4 may also be positioned below the lens 67 in the first position, for example, exposing 1 / 3 to 1 / 2 of the lens 67.

[0035] The water inlet pipe 1 is located in either the upper housing 64 or the lower housing 65, and is used to input a liquid such as purified water as a cleaning agent. A water droplet removal device 13 is connected to the water inlet pipe 1 to apply water flow to the lens 67 to remove residual water droplets. The drain pipe 7 is located in the lower housing 65 and is connected to the bottom of the receiving area 66 to discharge liquids such as detergents and cleaning agents. The drive control module 8 drives the rubbing cleaning device 4, which is connected to drive the rubbing cleaning device 4 to move and to easily switch between a first position and a second position; that is, the drive control module 8 drives the rubbing cleaning device 4 to easily change or interchange positions between the first and second positions. As an example, the water inlet pipe 1 is connected to a tap water pipe or a water storage device.

[0036] This structural design, through the upper box 64 and lower box 65 in conjunction with the rubbing cleaning device 4, the eyeglass fixing device 5, the drive control module 8, the water droplet removal device 13, and the detergent automatic injection device 14, achieves a simple and convenient miniaturized automatic eyeglass cleaning function. After positioning and placing the eyeglasses to be cleaned, automatic cleaning is achieved without manual operation. Theoretically, it is applicable to all types and sizes of framed eyeglasses currently on the market, suitable for both home and commercial use. Furthermore, the design of the upper box 64 and lower box 65 makes the automatic eyeglass cleaning machine 70 easy to carry, place, and use. Combined with the water inlet pipe 1 and drain pipe 7, it achieves automatic water supply and drainage for eyeglass cleaning, eliminating the need for manual water addition or removal. Finally, the drive control module 8 drives the rubbing cleaning device 4 in the first and second positions. The interchangeable positions allow the rubbing and cleaning device 4 to be in contact with the lens 67 when wiping the lens 67, and in a separate position from the lens 67 when removing residual water droplets. This ensures effective cleaning of the glasses while simplifying the drive structure of the rubbing and cleaning device 4 in the automatic glasses cleaning machine 70. Furthermore, the automatic detergent injection device 14, in conjunction with the rubbing and cleaning device 4, enhances the cleaning effect. Combined with the water droplet removal device 13, it effectively removes fingerprints, sweat, and detergent residue adhering to the lens 67, while also removing residual water droplets. The cleaning effect is excellent, fast, and efficient, avoiding the scratches on the lens 67 caused by manual wiping that could affect the lifespan of the glasses, and saving cleaning time.

[0037] In some of these embodiments, such as Figure 1 and Figure 11As shown, the rubbing cleaning device 4 includes two wiping components, each wiping component including a pair of wiping parts 61. The pair of wiping parts 61 contact the lens 67 from both sides; that is, each lens is contacted from both sides by the two wiping parts 61, similar to clamping without applying clamping force or with only a slight clamping force, to avoid scratching the lens. The drive control module 8 drives one wiping component to move up and down through the first automatic moving device 10, and drives the other wiping component to move up and down through the second automatic moving device 11; in other embodiments, the drive control module 8 drives the two wiping components to move up and down, left and right, or rotate respectively. To simplify the drive control of the wiping components or their wiping parts 61, as an example, the drive control module 8 drives the two wiping components to move up and down, that is, drives the wiping parts 61 of the two wiping components to move up and down. As an example, the drive control module 8 includes a motor and its accessories; it is understood that the motor or control board of the drive control module 8 can be purchased directly from the market or can be made by oneself. The embodiments in this article use them directly without involving any improvement to the motor or control board. The illustrated drive control module 8 is a control board, i.e., a control circuit board; the motor is not shown. As an example, each wiping part 61 or each wiping assembly is connected to a motor. In other embodiments, one motor drives four wiping parts 61 to simplify the product structure, in which the movement direction of each wiping part 61 remains consistent.

[0038] This structural design has several advantages. First, the pair of wiping parts 61 contact both sides of the lens 67 without applying clamping force or with only a slight clamping force. This ensures effective contact and cleaning between the wiping parts 61 and the lens 67 while completely avoiding scratching the lens 67 due to excessive clamping force. Compared to the uncontrollable force of manual wiping or the rigid contact of traditional cleaning devices, this design better protects the lens 67 and further extends the lifespan of the glasses, complementing the existing advantage of avoiding manual scratches. Second, the drive control module 8 drives the two wiping components to move through the first automatic moving device 10 and the second automatic moving device 11, supporting various movement modes such as up and down, left and right, and rotation. It can flexibly adjust the cleaning path according to the distribution of dirt on the lens 67, ensuring that the wiping parts 61 cover the entire surface of the lens 67 and eliminate cleaning dead spots. At the same time, by using the up and down movement of the two wiping components as a technical means, the drive control logic of the wiping components and wiping parts 61 is greatly simplified, eliminating the need for complex transmission structures and meeting the design requirements of the automatic glasses cleaning machine 70 for a simple and miniaturized structure. On the other hand, the motor and accessories of the drive control module 8 can be directly purchased or made in-house without the need to modify core components such as motors and control boards. This reduces the difficulty of research and development and production, facilitates mass production to adapt to household and commercial scenarios, and ensures the stability of equipment operation by relying on mature outsourced components. Moreover, the dual-sided synchronous cleaning combined with multi-mode drive can better coordinate with the detergent automatic injection device 14 to improve the efficiency of stain removal, further optimize the cleaning effect, and save cleaning time.

[0039] To facilitate the positioning and retrieval of the glasses, in some embodiments, such as Figure 6 and Figure 7 As shown, the eyeglass fixing device 5 includes a clip handle 29, a first magnet 30 at the clip end, a second magnet 31 at the clip end, a first magnet 32 ​​for the shelf plate, and a second magnet 33 for the shelf plate; combined with Figure 1 The lower box body 65 is provided with a shelf 28, and a first magnet 32 ​​and a second magnet 33 of the shelf are disposed on the shelf 28. A clip handle 29 is used to hold the glasses. A first magnet 30 and a second magnet 31 of the clip end are respectively disposed at the end of the clip handle 29, and are magnetically attracted to the first magnet 32 ​​and the second magnet 33 of the shelf, respectively, to position and place the glasses. As an example, the clip handle 29 is used to hold the glasses or the nose bridge part of the glasses body 62. For the embodiment with a wiper ring described below, as an example, the shelf 28 is provided with a first clamping groove 52 and a second clamping groove 53. The wiper ring is rotatably disposed between the first clamping groove 52 and the second clamping groove 53, so that the wiping assembly or the wiping part 61 can drive the wiper ring to rotate. In this state, the wiper ring rotates between the first clamping groove 52 and the second clamping groove 53, but the wiper ring cannot move up and down relative to the shelf 28 with the wiping assembly or the wiping part 61. As an example, the wiping component always retains a portion within the wiper ring, whether it is rising or falling, to prevent the wiper ring from detaching from the wiping component and losing its ability to follow rotation. Furthermore, if the wiper ring detaches from the wiping component and moves to another position, it may obstruct the wiping component or its wiping part 61 from rising or falling, causing damage.

[0040] This structural design has two advantages. First, the eyeglass fixing device 5 clamps the nose bridge of the eyeglasses via the clip handle 29. Combined with the corresponding magnetic attraction between the first magnet 30 and the second magnet 31 at the end of the clip and the first magnet 32 ​​and the second magnet 33 on the shelf, it can quickly and accurately position the eyeglasses. This avoids incomplete cleaning due to positional shifts during manual placement and simplifies the loading and unloading process, meeting the core requirement of ease of use for the automatic eyeglass cleaning machine 70. Furthermore, it is compatible with the nose structures of various eyeglass frames on the market, further expanding its applicability. Second, the magnetic positioning method eliminates the need for complex buckles or locking structures, simplifying the overall structure of the eyeglass fixing device 5, contributing to the miniaturization of the automatic eyeglass cleaning machine 70, and ensuring stable fixation of the eyeglasses during cleaning. This prevents displacement of the eyeglasses when the cleaning device 4 is being rubbed, ensuring effective contact between the wiping part 61 and the lens 67, and improving the cleaning effect. On the other hand, the limiting design of the first clamping plate groove 52 and the second clamping plate groove 53 on the shelf 28 ensures that the wiper ring only rotates with the wiping part 61 and does not move up and down. This allows the wiper ring to work with the wiping component to assist in cleaning the lens 67, while preventing it from shifting and affecting the cleaning process. At the same time, it does not add extra burden to the drive control module 8, which is consistent with the design logic of simplifying the drive structure. It can also assist the water droplet removal device 13 in removing residual water droplets, further optimizing the cleaning efficiency and effect.

[0041] To protect the glasses from damage during clamping, in some embodiments, such as Figure 7 As shown, the eyeglass fixing device 5 also includes a first silicone 34 and a second silicone 35 disposed on the clip handle 29, for abutting against the eyeglasses when the clip handle 29 is holding the eyeglasses. Combined with Figure 11 To prevent the temple 63 from obstructing the movement of the wiping part 61, in some embodiments, such as Figure 7 As shown, the eyeglass fixing device 5 also includes a temple stop bar 36 connected to or integrally formed with the clip handle 29, which is used to abut against the temple 63 of the eyeglasses when the eyeglasses are held by the clip handle 29.

[0042] This structural design serves two purposes. First, the first silicone 34 and the second silicone 35 act as a buffer when the clamp handle 29 holds the glasses, preventing rigid contact between the clamp handle 29 and the glasses. This prevents scratches on the glasses body 62 or lenses 67 during clamping, further ensuring the glasses remain intact. This complements the aforementioned advantage of avoiding scratches from manual wiping, extending the lifespan of the glasses. Second, the temple stop 36 abuts against the temple 63 and regulates its position, preventing the temple 63 from shifting and obstructing the movement of the wiping part 61 during cleaning. This ensures that the wiping part 61 of the rubbing cleaning device 4 can smoothly contact both sides of the lenses 67, completing the cleaning action without obstruction and ensuring thorough cleaning. This design aligns with the logic of the drive control module 8 driving the wiping component, further enhancing the cleaning effect and stability of the automatic glasses cleaning machine 70.

[0043] To enable the rubbing and cleaning device 4 or its wiping assembly to dehydrate as quickly as possible, in some embodiments, such as Figure 10 and Figure 11 As shown, the automatic eyeglass cleaning machine 70 also includes a squeegee ring, which is connected to one of the upper housing 64 and the lower housing 65, and is clamped to the outside of the wiping assembly of the agitating cleaning device 4. The inner frame 58 of the squeegee ring has a passage area, which is larger than the hard sheet 59 inside the wiping part of the wiping assembly, but smaller than the soft wiping body 60 inside the wiping part of the wiping assembly, so that the agitating cleaning device 4 can be easily positioned in the first and second positions, and the squeegee ring can scrape off part of the liquid from the soft wiping body 60 inside the wiping part. As an example, the squeegee ring is fixed or has its displacement restricted in the vertical direction by the shelf 28, and is driven by the wiping part 61 in the horizontal direction, and can move with the wiping part 61. As an example, the number of wiper rings is the same as the number of wiping parts 61 of the scrubbing cleaning device 4. Each wiper ring is arranged in a one-to-one correspondence with each wiping part 61. Each wiper ring is clamped to the outside of the wiping part 61. The passage area of ​​the inner frame 58 of the wiper ring is larger than the hard sheet 59 inside the wiping part 61, but smaller than the soft wiping body 60 inside the wiping part 61, so that the scrubbing cleaning device 4 can easily be in the first and second positions, and the wiper rings can scrape off part of the liquid from the soft wiping body 60 inside the wiping part 61. As an example, the wiper rings include a first wiper ring 54, a second wiper ring 55, a third wiper ring 56, and a fourth wiper ring 57. The first wiper ring 54, the second wiper ring 55, the third wiper ring 56, and the fourth wiper ring 57 are respectively clamped to the outside of a different wiping part 61.

[0044] This structural design has two advantages. First, the wiper ring, through its specifically sized inner frame 58, can precisely remove some liquid from the soft wiping body 60 inside the wiping section when the cleaning device 4 switches between the first and second positions. This prevents the soft wiping body from carrying too much residual liquid, which could cause the lens 67 to get wet again or leave water stains. It works in conjunction with the water droplet removal device 13 to further improve the drying effect of the lens 67, while also reducing the possibility of dirt buildup on the soft wiping body due to liquid accumulation, ensuring the cleanliness of subsequent cleaning. This aligns with the core advantage of the automatic eyeglass cleaning machine 70: excellent cleaning effect. Second, the design of the wiper ring being fixed vertically by the shelf 28 and moving horizontally with the wiping section 61 eliminates the need for an additional drive structure, allowing for synchronized movement between the wiper ring and the wiping section 61. This simplifies the overall structure of the device and conforms to the design logic of simplifying the drive structure. It also ensures that the wiper ring always precisely corresponds to the soft wiping body 60 inside the wiping section, preventing wiping failure due to positional misalignment, ensuring dehydration stability, and contributing to the miniaturization and portability of the device, making it suitable for both home and commercial applications. On the other hand, the wiper rings correspond one-to-one with the wiping parts 61, which can dehydrate the soft wiping body of each wiping part 61 individually, ensuring that no excess liquid remains in any wiping part 61, making it easy to store.

[0045] As an example, during use, the rubbing and cleaning device 4 is first moved to the first position. In the state where the rubbing and cleaning device 4 is in the first position, each wiping component passes through a corresponding squeegee ring, or each wiping part 61 passes through a corresponding squeegee ring. After wiping is completed, the rubbing and cleaning device 4 is moved to the second position. In the state where the rubbing and cleaning device 4 is in the second position, each wiping component or each wiping part 61 is separated from a corresponding squeegee ring, or only the end of each wiping component or each wiping part 61 passes through a corresponding squeegee ring. Furthermore, in the states where the rubbing and cleaning device 4 is easily in the first and second positions, that is, in the state where the rubbing and cleaning device 4 moves from the first position to the second position, or in the state where it moves from the second position to the first position, the squeegee ring scrapes off part of the liquid from the soft wiping body 60 inside the wiping part. That is, in the process of the rubbing and cleaning device 4 moving from the first position to the second position, or in the process of moving from the second position to the first position, the squeegee ring scrapes off part of the liquid from the soft wiping body 60 inside the wiping part.

[0046] To facilitate adjustment of the direction and position of each wiping part 61 of the wiping assembly of the rubbing cleaning device 4, in some embodiments, such as Figure 2 and Figure 6As shown, the automatic eyeglass cleaning machine 70 also includes push-pull screws, the number of which is the same as the number of wiping parts 61 of the rubbing cleaning device 4; each push-pull screw is configured one-to-one with each wiping part 61, and each push-pull screw is connected to a corresponding wiping part 61 for adjusting the position of the wiping part 61 to adapt to the position, angle, and thickness of the lens 67. As an example, the push-pull screws include a first push-pull screw 37, a second push-pull screw 38, a third push-pull screw 39, and a fourth push-pull screw 40. The first push-pull screw 37, the second push-pull screw 38, the third push-pull screw 39, and the fourth push-pull screw 40 are respectively connected to a corresponding wiping part 61 for adjusting the direction and position of the corresponding wiping part 61, so that the rubbing cleaning device 4 and its wiping parts 61 can be adapted to various types and sizes of eyeglass frames. As an example, the end of the push-pull screw is provided with a screw end turner 44, which is used to rotate the push-pull screw under force to adjust the direction and position of the wiping part 61 corresponding to the push-pull screw.

[0047] This structural design, on the one hand, ensures that the push-pull screws correspond one-to-one with the wiping parts 61, such as the first push-pull screw 37 to the fourth push-pull screw 40, which are respectively adapted to different wiping parts 61. This allows for precise adjustment of the position and angle of each wiping part 61, and can flexibly adapt to the thickness, tilt angle, and position of different lenses 67. This breaks through the limitations of traditional cleaning devices on eyeglass sizes and further expands the compatibility range of the automatic eyeglass cleaning machine 70 with various types of eyeglass frames on the market, matching its theoretically applicable advantage of being suitable for all types and sizes of eyeglass frames. On the other hand, the setting of the screw end turn wheel 44 allows the adjustment of the push-pull screw to be completed without professional tools, and the position calibration of the wiping part 61 can be completed by simply rotating it manually, which simplifies the operation process and meets the design requirements of ease of use; at the same time, the mechanical adjustment method of the push-pull screw has a stable structure and can maintain the positioning accuracy of the wiping part 61 for a long time, avoiding the impact of the cleaning effect on the cleaning effect due to the displacement of the wiping part 61 during the cleaning process. It is consistent with the logic of the drive control module 8 driving the movement of the wiping component, ensuring that the rubbing cleaning device 4 can stably adhere to both sides of the lens 67 when in the first position, thus improving the cleaning reliability.

[0048] To facilitate flexible configuration or adjustment of the functional modules of the automatic eyeglass cleaning machine 70 according to its usage location, in some embodiments, such as Figure 1 and Figure 5 As shown, the lower housing 65 has a left mounting space 41 and a right mounting space 42, and a first T-shaped water pipe 6 is provided between the left mounting space 41 and the right mounting space 42; as an example, combined with Figure 2 and Figure 4 The automatic eyeglass cleaning machine 70 has a detergent container 9 in one of the left installation space 41 and the right installation space 42, and a water filtration device 3 and a water inlet pipe 1 in the other, so that manufacturers or users can flexibly adjust the specific functional modules.

[0049] This structural design has two advantages. First, the lower housing 65, through the partitioned layout of the left installation space 41 and the right installation space 42, provides independent installation areas for functional modules such as the detergent container 9, water filtration device 3, and water inlet pipe 1, avoiding mutual interference between modules. This also allows manufacturers to flexibly allocate module positions based on cost and scenario requirements, and facilitates users in adjusting module configurations according to their usage environment, thus meeting the needs of both home and commercial use for the automatic eyeglass cleaner 70. Second, the first T-shaped water pipe 6 between the left and right installation spaces 41 and 42 efficiently connects the water paths of the modules on both sides, such as delivering water from the water inlet pipe 1 to the receiving area 66, or cooperating with the drain pipe 7 to discharge wastewater. This eliminates the need to redesign the water path structure due to module position adjustments, simplifying module allocation. Furthermore, the partitioned layout makes disassembly, assembly, and maintenance of each functional module more convenient. For example, when replacing the detergent container 9 or cleaning the water filtration device 3, the entire machine does not need to be disassembled, further improving the ease of use of the equipment, consistent with the design logic of simple structure and convenient operation.

[0050] In some of these embodiments, such as Figure 1 and Figure 2 As shown, the automatic eyeglass cleaning machine 70 also includes a water jet spray device 12 disposed in the receiving area 66. The water jet spray device 12 is connected to the detergent automatic injection device 14 for applying detergent to the lenses 67. In some embodiments, the water jet spray device 12 is integrated with the water droplet removal device 13 to reduce the product volume. As an example, the water jet spray device 12 sprays water in the form of multiple small water jets or in a waterfall pattern. The multiple small water jet pattern is beneficial for cooperating with the third automatic moving device 15 to achieve a rhythmic rinsing of water flowing horizontally, especially reciprocatingly. As an example, the outlet of the water droplet removal device 13 is a single elongated water jet with a cross-section of elongated strip, such as a rectangle or an elongated ellipse, or multiple circular water jets.

[0051] This structural design has two advantages. First, the water jet spraying device 12, connected to the automatic detergent injection device 14, applies detergent to the lens 67, ensuring even spraying of the detergent onto the surface of the lens 67. Compared to applying detergent only to the rubbing cleaning device 4, this allows the detergent to contact fingerprints, sweat, and other stains on the lens 67 more quickly. Combined with the wiping action of the rubbing cleaning device 4, this further improves cleaning efficiency and effectiveness, aligning with the advantages of the automatic eyeglass cleaning machine 70 in terms of good cleaning effect and high efficiency. Second, the water jet spraying device 12 and the water droplet removal device 13 are integrated, eliminating the need for separate installation structures for both. This significantly reduces the space occupied by components, contributing to the miniaturization of the automatic eyeglass cleaning machine 70. This aligns with the design requirements of the upper box 64 and lower box 65 for easy portability and placement. At the same time, the integrated design simplifies the water circuit connection and reduces the assembly steps between components, reducing production difficulty and improving the overall structural stability of the equipment, consistent with the design logic of a simple structure.

[0052] In some of these embodiments, such as Figure 2 and Figure 3 As shown, the automatic eyeglass cleaning machine 70 also includes a detergent container 9, a first detergent connecting pipe 24, and a second detergent connecting pipe 25. The detergent container 9 is disposed in the receiving area 66 and is connected to the automatic detergent dispensing device 14 through the first detergent connecting pipe 24 for supplying detergent to the automatic detergent dispensing device 14. The automatic detergent dispensing device 14 is connected to the water jet spraying device 12 through the second detergent connecting pipe 25.

[0053] This structural design has two advantages. First, the detergent container 9 is directly placed within the receiving area 66, working in conjunction with the first detergent connecting pipe 24 to provide a stable supply of detergent to the automatic detergent injection device 14. No external detergent source is required, allowing the automatic eyeglass cleaning machine 70 to autonomously store and supply detergent, further reducing manual intervention and meeting the automation requirements of the cleaning process. It also avoids the inconvenience caused by tangled external supply lines, ensuring overall portability and adaptability to flexible placement needs in both home and commercial settings. Second, the first and second detergent connecting pipes 24 and 25 form a complete supply path connecting the detergent container 9, the automatic detergent injection device 14, and the water spray device 12. This allows for precise control of the detergent delivery path, ensuring efficient delivery of detergent to the automatic detergent injection device 14, from which it is then evenly applied to the lens 67 surface. This pathway avoids detergent leakage and waste during transmission and works in synergy with the rubbing cleaning device 4. First, the detergent is sprayed to soak the stains, and then the wiping part 61 is used to rub and clean them, which greatly improves the removal effect of stubborn stains. At the same time, the water droplet removal device 13 thoroughly cleans up the residue, further strengthening the core advantages of the automatic eyeglass cleaning machine 70 in terms of good cleaning effect and high efficiency.

[0054] To ensure effective rinsing of the lenses and to increase the amount of water used for localized rinsing, in some embodiments, such as... Figure 1 and Figure 5 As shown, the automatic eyeglass cleaning machine 70 also includes a third automatic moving device 15 and a follow-up silicone soft water pipe 27 disposed in the receiving area 66; the water droplet removal device 13 is disposed on the third automatic moving device 15 and is connected to the water inlet pipe 1 through the follow-up silicone soft water pipe 27; the third automatic moving device 15 is used to drive the water droplet removal device 13 to move horizontally on the lens 67, for example, to reciprocate, and so that the water droplet removal device 13 is no longer located above the lens 67 after the water flow to the lens 67 has been applied, so as to prevent water from dripping onto the lens 67.

[0055] This structural design allows the third automatic moving device 15 to drive the water droplet removal device 13 to move horizontally along the lens 67, enabling the water flow to cover the entire surface of the lens 67. This avoids the problems of insufficient water volume and uneven rinsing that exist in traditional fixed rinsing. In particular, for areas such as the edges and corners of the lens 67 where water droplets or stains are easily left behind, the cleaning effect can be enhanced by moving the rinsing device. At the same time, the follow-up silicone soft water tube 27 can flexibly follow the water droplet removal device 13 without restricting its movement trajectory, and can stably deliver water flow from the inlet pipe 1, ensuring a continuous and sufficient water supply, further improving the reliability of rinsing and matching the core advantage of good cleaning effect. The effect is especially good when using defoaming water flow. On the other hand, after the water droplet removal device 13 completes rinsing, it leaves the lens 67 with the third automatic moving device 15, preventing residual water droplets from falling back onto the lens 67 and causing secondary pollution or water stains. No additional process is needed to handle the dripping water droplets, simplifying the cleaning process and meeting the design requirements of fast cleaning speed and high efficiency. At the same time, this structure does not require complex waterproof shielding components, and only achieves drip prevention by moving. This simplifies the internal structure of the automatic eyeglass cleaning machine 70, helps to miniaturize the equipment, and can be combined with the portable design of the upper box 64 and the lower box 65 to ensure ease of use in home and commercial scenarios. It also echoes the logic of separating the lens after cleaning by the rubbing cleaning device 4, forming a complete closed loop of cleaning, rinsing, and prevention of secondary pollution, further ensuring the cleanliness of the lens 67.

[0056] To ensure a stable supply of water as a cleaning agent and to prevent impurities from damaging the lenses, in some embodiments, such as Figure 4 As shown, the automatic eyeglass cleaning machine 70 also includes a water pressure stabilizing device 2 disposed outside the receiving area 66 and a water filtration device 3 disposed in the receiving area 66; the water inlet pipe 1 is connected to the water droplet removal device 13 sequentially through the water pressure stabilizing device 2 and the water filtration device 3. In other embodiments, the automatic eyeglass cleaning machine 70 also includes a water pressure stabilizing device 2 and a water filtration device 3 disposed in the receiving area 66; the water inlet pipe 1 is connected to the water droplet removal device 13 sequentially through the water pressure stabilizing device 2 and the water filtration device 3.

[0057] This structural design ensures that, on the one hand, the water pressure stabilizing device 2 can maintain a constant water pressure delivered from the inlet pipe 1 to the water droplet removal device 13, avoiding uneven water flow intensity caused by water pressure fluctuations. This prevents the water pressure from being too low to effectively remove residual water droplets and stains from the lens 67, and also prevents the water pressure from being too high to impact the lens 67 and cause damage. This ensures that the water droplet removal device 13 always completes rinsing with the best effect, complementing the advantage of avoiding manual wiping and scratching of the lens 67. On the other hand, the water filtration device 3 can filter impurities and particles in the water, preventing them from adhering to the surface of the lens 67 with the water flow, or causing scratches when the wiping part 61 of the rubbing cleaning device 4 comes into contact with the lens 67, thus further extending the service life of the glasses. At the same time, the device supports the flexible arrangement of the water pressure stabilizing device 2 and the water filtration device 3 inside and outside the housing area 66, which can accommodate different sizes of components without destroying the compact structure formed by the upper box 64 and the lower box 65, taking into account both the miniaturization of the equipment and the stability of its functions. With the water inlet pipe 1 and the drain pipe 7, there is no need for manual intervention in water quality and water pressure, making it suitable for both home and commercial scenarios.

[0058] To better reduce residual water droplets, in some embodiments, such as Figure 1 As shown, the automatic eyeglass cleaning machine 70 also includes a first fan 17 and a second fan 18 disposed in the receiving area 66. The first fan 17 and the second fan 18 are located in the upper housing 64 and are used to deliver cold or hot air to the eyeglasses when the rubbing cleaning device 4 is in the second position and when the water droplet removal device 13 has completed applying water flow to the lens 67, so as to protect the eyeglasses according to whether the frame and lens materials can be dried by hot air.

[0059] This structural design, on the one hand, allows the first fan 17 and the second fan 18 to form a progressive drying mechanism with the water droplet removal device 13. After the water flow removes most of the residual water droplets, the airflow further removes the trace amounts of water droplets remaining in the lens 67 and frame gaps, significantly improving the thoroughness of drying and avoiding water stains caused by residual water droplets. On the other hand, when the fans are working, the rubbing cleaning device 4 is in the second position, which prevents it from obstructing the airflow and ensures that cold or hot air evenly covers the surface of the glasses, improving drying efficiency. Simultaneously, the design of selecting the air temperature according to the material allows it to adapt to glasses made of different materials. For example, cold air can be used on resin lenses 67 to prevent deformation, while hot air can be used on metal frames to accelerate drying, expanding the device's adaptability to various types of glasses. Furthermore, the design of integrating the fans into the upper housing 64 does not increase the complexity of the device, maintaining its advantages of miniaturization and portability. Moreover, the drying process requires no manual intervention, further enhancing the automated experience. Combined with the existing cleaning mechanism, it improves the cleaning effect while shortening the overall processing time, better meeting the high-efficiency needs of home and commercial scenarios.

[0060] Combination Figures 1 to 11In various embodiments, the automatic eyeglass cleaning machine 70 can also be called an eyeglass cleaning machine or a fully automatic eyeglass cleaning machine. Its main components include: a water pressure stabilizing device 2, a water filtration device 3, a rubbing cleaning device 4, an eyeglass fixing device 5, a drive control module 8, a detergent container 9, a water jet spray device 12, a water droplet removal device 13, an automatic detergent injection device 14, a transparent waterproof cover 16, and a fan. As an example, the fan can be a cold air fan or a hot air fan. The fan includes a first fan 17 and a second fan 18, located below the water jet spray device 12 within the upper housing space. After the water droplets on the eyeglass body 62, including the lens 67, are removed, any remaining moisture and moisture on the temples 63 can be dried using the fan. Specifically, for materials that are not easily deformed, hot air drying can be used.

[0061] As an example, the automatic eyeglass cleaning machine 70 automatically fills in and drains water and injects cleaning agent. Four wiping heads 61 directly contact the lenses 67 coated with detergent, cleaning solution, or foam. A drive control module 8, in conjunction with automatic moving devices such as the first automatic moving device 10 and the second automatic moving device 11, drives the wiping heads 61 to clean the lenses 67 by rubbing them up and down. The lenses 67 are rinsed by spraying while rubbing; rubbing can also be called wiping. A third automatic moving device 15 drives a water droplet removal device 13, outputting a bubble-free or low-foam water stream to simultaneously rinse both sides of the lenses 67 from above the edge. Residual water droplets can be further dried by using a cold or hot air fan. The entire cleaning process is fully automated, requiring no manual intervention, and can be completed within 1 to 2 minutes. Therefore, it is highly efficient, less likely to damage the lenses 67, and effectively removes residual water droplets, saving time and effort.

[0062] In some embodiments, the water droplet removal device 13 is provided with a filter structure to filter out air bubbles in the water flow and apply a defoaming water flow to the lens 67; as an example, the filter structure includes a second honeycomb perforated guide plate 49 and a guide mesh 50, which remove air bubbles from the water flow by microporous filtration to obtain a defoaming water flow. As an example, the automatic eyeglass cleaning machine 70 uses electromagnetic valves to automatically control water inlet, spraying, and rinsing; it uses a foaming motor in conjunction with an automatic detergent injection device 14 to control the automatic injection of detergent foam; it uses an automatic moving device to control four wiping sections 61 to directly rub and clean the lenses 67, and then washes and rinses the lenses 67; it uses a slow, bubble-free or low-foaming water flow to spray down from the edge of the lenses 67 while simultaneously rinsing both sides of the lenses 67 to remove residual water droplets; when the water flow turns 90 degrees to become a long strip-shaped water flow, a second honeycomb perforated guide plate 49 evenly disperses the impact force of the water flow direction, so that the water flow forms a water flow with uniform cross-sectional force after passing through it; the water flow is formed by passing through a guide mesh 50 with small holes to form a slow, bubble-free or low-foaming water flow; as an example, the diameter of the honeycomb perforations distributed on the second honeycomb perforated guide plate 49 gradually decreases along the water flow direction; as an example, along the water flow direction, the number or diameter of the honeycomb perforations distributed on the second honeycomb perforated guide plate 49 shows a decreasing sequence. In this way, the number or diameter of the honeycomb holes distributed on the second honeycomb hole guide plate 49 gradually decreases along the direction of water flow impact. After the water flow turns 90 degrees and passes through all the honeycomb holes, the water flow formed again will be more uniform, and the water pressure and water volume will not be concentrated on one side.

[0063] As an example, the automatic eyeglass cleaning machine 70 uses magnetic clips as eyeglass fixing devices 5 to secure the eyeglasses, facilitating easy insertion and removal. After the eyeglasses are inserted, the clip handle 29 attracts the shelf 28, ensuring that the eyeglass body 62 and lens 67 remain vertically perpendicular to the shelf 28. This allows the aforementioned slow water flow to vertically rinse both sides of the lens 67, resulting in better removal of residual water droplets. As an example, the longitudinal dimension of the magnet or iron plate area on the shelf 28 is longer than the longitudinal dimension of the magnet or iron plate at the end of the clip, to accommodate different curvatures of eyeglasses when fixed on the shelf 28, requiring the bridge of the nose to be in different longitudinal positions. As an example, to facilitate easy removal of the clip, a certain amount of non-magnetic area is reserved above or below the longitudinal dimension of the magnet or iron plate area on the shelf 28. When removing the clip, it is easier to slide it upwards or downwards while removing it.

[0064] In other embodiments, for positioning and placing eyeglasses to be cleaned, a long slot can be made on the shelf 28, and two or more elastically snapped posts can be made at the end of the clip. These posts are inserted into the long slot of the shelf 28 and snapped in place, thus fixing the clip in place. The snapped posts are elastic or resilient, so they can also be pulled out directly for easy removal of the clip. Alternatively, a clamp can be used to press down on the bridge of the nose between the two frames, or two clamps can be used to press down on both ends of the frames or on the two temples 63. The temple support 68 can be adjusted to ensure that the eyeglass body 62 and the lens 67 are perpendicular to the shelf 28. Figure 6 As shown. The clamping element is connected to the shelf 28 and can slide and adjust its position in one direction. The clamping element uses a spring or elastic arched component to generate elastic force, which can exert pressure on the object being pressed, pressing the object onto the shelf 28 and preventing the object from loosening in the direction of pressure. When it is necessary to remove the glasses, the clamping element can be pried open, and the glasses can be removed directly by pinching the nose bridge in the middle of the glasses frame with your fingers. Alternatively, a U-shaped clip can be used. The inner side of the clip has a thick layer of soft silicone, and each of the two clamping ends has an outward-facing barb or buckle. A long, movable plate is embedded in the shelf 28, which can slide longitudinally on the shelf 28. The movable plate has two holes. The inner side of the U-shaped clip is used to clamp the nose bridge in the middle of the eyeglass frame. Then, the clip and the eyeglasses are placed on the shelf 28 together. Because the inner side of the clip has a certain degree of elasticity or toughness due to the thick soft silicone, and the U-shaped body of the clip also has a certain degree of toughness, when pressure is applied to the clip inward by hand, the barbs or buckles at the two clamping ends of the clip are then inserted into the two holes of the movable plate. The two legs of the U-shaped clip will generate an outward-facing counterforce, causing the two barbs or buckles to fasten the shelf 28, thereby fixing the eyeglasses on the shelf 28. When it is necessary to remove the eyeglasses, simply pinch the clip with your fingers, apply pressure to the clip inward, and pull it outward at the same time to remove the eyeglasses.

[0065] As an example, the automatic eyeglass cleaning machine 70 also includes two temple supports 68 to better ensure that the lens 67 is perpendicular to the shelf 28. The temple supports 68 are placed on the surface of the shelf 28, located below the two temples 63 respectively. The lower half of the support is engaged in two elongated slots on the surface of the shelf 28 and can move back and forth, away from or closer to the eyeglass body 62. Since the eyeglass body 62 and the lens 67 are restricted to be pressed against the shelf 28 and do not move, by moving and adjusting the temple supports 68 to a suitable position, the two temples 63 supported by them will also swing up and down to a suitable position accordingly, thereby better supporting the eyeglass body 62 and the lens 67 to be perpendicular to the shelf 28.

[0066] As an example, in the automatic eyeglass cleaning machine 70, the lower box 65 is divided into upper and lower spaces by a shelf 28. The front half of the space above the shelf 28 can be opened. The eyeglasses are placed above the shelf 28 near the front wall of the lower box 65. The eyeglass body 62 and the lens 67 are fixed on the shelf 28 by the eyeglass fixing device 5 and are perpendicular to the upper surface of the shelf 28, so as to facilitate the rubbing and cleaning device 4 to surround and clean the lens 67, and also to facilitate the water droplet removal device 13 to rinse the lens 67.

[0067] As an example, such as Figure 4 As shown, the water inlet pipe 1 is directly connected to the household tap water pipe, then enters the lower left or right rear lower part of the machine's lower housing, and connects to the water pressure stabilizing device 2. After the water pressure stabilizing device 2, a water filtration device 3 is connected, such as... Figure 5 As shown, then through a first T-shaped water pipe 6 and a U-shaped water pipe 26, it ascends along the left rear corner of the box and enters the upper box space, and as... Figure 3 As shown, after passing through a second T-shaped water pipe 19 and two solenoid valves, the water splits into two streams, entering the water jet spray device 12 and the water droplet removal device 13 respectively. Figure 1 As shown; the two solenoid valves include a first solenoid valve 20 and a second solenoid valve 21.

[0068] As an example, such as Figure 8As shown, the water jet spraying device 12 has a long, narrow spray surface 48, with multiple fine water jets spraying vertically downwards onto the glasses body 62. The water inlet of the water jet spraying device 12 has a circular cross-section. The water flow turns 90 degrees after passing through the internal space of the water jet spraying device 12 and flows into a long, irregularly shaped space with a right-angled trapezoidal cross-section. The spray surface 48 of the device is located on the inclined surface of the aforementioned space. The spray surface 48 is distributed with many uniformly sized spray holes. During spraying, due to a certain water pressure, many fine water jets can be formed, and the area sprayed by the multiple water jets can basically cover the entire area of ​​the glasses body 62. As an example, the water jet spraying device 12 has a built-in first honeycomb perforated guide plate 47. As an example, the diameter of the honeycomb perforations distributed on the first honeycomb perforated guide plate 47 gradually decreases along the water flow direction to avoid the water being damaged by the impact force of the water flow. The flow rate and pressure are too concentrated at the end impacted by the water flow. After passing through the first honeycomb perforated guide plate 47, the water flow with a relatively uniform cross-sectional force will be formed. After the water flow formed by the first honeycomb perforated guide plate 47 is processed and then sprayed out by the spray surface 48, it can be ensured that the force of the multiple sprayed water columns is basically uniform. The spray surface 48 of the water column spray device 12 is designed to be inclined, that is, a right-angled trapezoidal inclined surface. When the water spraying stops, the water remaining in the spray hole can flow down along the inclined surface to the side edge of the spray device and drip directly onto the shelf 28. This avoids the water droplets inside the water column spray device 12 dripping onto the lens 67 of the glasses again after the water droplet removal process is completed, thus affecting the cleaning effect. After the water flow sprays downward, it flows down through multiple holes on the shelf 28 into the lower box 65 or its front compartment, and is naturally discharged through the drain pipe 7.

[0069] As an example, the automatic detergent dispensing device 14 is equipped with a foaming motor, and a hose is connected to the front of the foaming motor to the bottom of the detergent container 9, such as... Figure 1 As shown, two detergent foam nozzles 43 are connected to the rear of the foaming motor. The two detergent foam nozzles 43 spray detergent foam toward the rubbing and cleaning device 4 or the lens 67, which naturally falls onto the rubbing and cleaning device 4 and / or the eyeglass body 62.

[0070] For ease of use and observation, as an example, such as Figure 1 and Figure 4 As shown, the upper box 64 is provided with a transparent waterproof cover 16. The transparent waterproof cover 16 can be opened or closed. When closed, it completely covers the open part above the lower box 65 and the front side of the upper box 64, thus blocking all water splashes generated during water spraying or water discharge. When the transparent waterproof cover 16 is opened, glasses can be placed in or taken out.

[0071] To prevent damage to the glasses, as an example, the automatic glasses cleaner 70 also includes a sensor disposed in the receiving area 66 to sense the position of the glasses, or the position of the lens 67 relative to the wiping assembly or its wiping section 61. For example, an infrared sensor or other sensing device may be used to check whether the glasses are on the shelf surface, primarily for anomaly detection purposes. This is to prevent the glasses from being misaligned with the wiping sections 61 when the four wiping sections 61 of the cleaning device rise, thus avoiding damage or scratches to the glasses. The sensor also serves to remind the user to remove the glasses promptly after cleaning is complete.

[0072] To eliminate bacteria as much as possible, for example, the automatic eyeglass cleaner 70 also includes an ultraviolet disinfection lamp located in the receiving area 66, which is automatically turned on for a certain period of time after cleaning to irradiate the automatic eyeglass cleaner 70 with ultraviolet light.

[0073] The following example illustrates the rubbing and cleaning device 4, such as... Figure 11 As shown, the rubbing cleaning device 4 includes two wiping components, namely two sets of wiping parts 61, and each set of wiping parts 61 has two wiping parts 61, for a total of four vertically standing wiping parts 61. The wiping parts 61 are provided with a hard part and a soft part connected to each other, for assembling the wiping parts 61 through the hard part and cleaning the lens 67 through the soft part. As an example, the interior of each wiping section 61 is a flat, sheet-like rigid plastic sheet with a thickness of 2 to 3 millimeters. The side of the sheet that adheres to the lens 67 and all four sides are covered with a thick sponge. The sponge is then covered with a soft cloth. As an example, and not a limitation, the entire surface of the soft cloth is inlaid with vertically standing ultrafine fibers. The combined thickness of the sponge, soft cloth, and fibers is greater than 12 millimeters, with the vertically standing fibers having a length greater than 8 millimeters. As an example, when the drive control module 8 drives the rubbing cleaning device 4, the wiping section 61 adheres to the lens 67 and vibrates. This vibration is essentially a rubbing motion, with very small up-and-down movement, thus combining the advantages of simple structure and low energy consumption. As an example, the wiping section 61 can have longer fibers, shorter fibers, or simply a soft cloth that is less likely to scratch the lens 67. The softness of the accompanying sponge alone solves the problem of adapting to the lens curvature. As an example, the soft part of the wiping section 61 includes materials such as fleece, soft cloth, and sponge. The soft cloth is attached to the hard part, such as a hard sheet, using Velcro for easy replacement, allowing different wiping sections 61 to be selected according to different lenses 67. As an example, the soft part is made of a hydrophobic material, such as the sponge, soft cloth, and fleece, to prevent water absorption and retention, making it easier to wipe dry and air dry. If necessary, the soft part of the wiping section 61 can be removed for wringing and air drying; in other embodiments, the wiping section 61 can be dried with hot air from a fan or by adding a heating element to heat the hard part to accelerate the drying speed of the soft part.

[0074] Combination Figure 10 The shelf 28 has two clamping grooves, namely the first clamping groove 52 and the second clamping groove 53. Two flat rectangular squeegee rings with a thickness of 1 mm to 2 mm that can move horizontally are clamped in each of the two clamping grooves of the shelf 28. The inner width of the squeegee ring is set to 6 mm to 10 mm, which is slightly larger than the thickness of the wiping part 61 after being squeezed, to ensure that the four wiping parts 61 are fitted in the four squeegee rings and can move up and down.

[0075] When the four wiping sections 61 move up and down, the four squeegee rings are held in place by the sandwich structure of the shelf 28 and therefore do not move. The default position of the four wiping sections 61 is at the top of their vertical movement range, with their lower halves, for example, 3 to 5 millimeters below the four squeegee rings of the shelf 28, and the rest exposed on the shelf 28. The four wiping sections 61 are divided into two groups, with each group of wiping sections 61 facing each other or having a narrow gap in between. Figure 1 and Figure 4 During operation, each lens 67 of the glasses is sandwiched between the wiping assembly, that is, between each set of wiping parts 61. The two wiping parts 61 on the same side of the two lenses 67, such as the convex side, are connected together to the slider of the first automatic moving device 10 through the first connecting rod 45. The two wiping parts 61 on the other side of the two lenses 67, such as the concave side, are connected together to the slider of the second automatic moving device 11 through another second connecting rod 46. These two automatic moving devices, including the first automatic moving device 10 and the second automatic moving device 11, are fixed on the right side wall of the lower box, or can be fixed on the left side wall, front side wall, etc. of the lower box. The four wiping parts 61 can be moved from top to bottom or bottom to top by the two automatic moving devices, which is to rub or wipe, thereby forming a rubbing or rinsing action on the clamped lens 67. The rubbing while rinsing is rinsing. The two moving devices can move in the same direction or in opposite directions. After rubbing or rinsing, the four wiping parts 61 are at least partially moved by the two automatic moving devices and sink into the space below the shelf 28 of the lower case, thereby completely detaching from the main body of the glasses 62. After all other work is completed and the glasses are taken out, the four wiping parts 61 are reset, that is, moved up to the shelf 28 of the lower case and returned to the default position.

[0076] In other embodiments, the bottoms of the two wiping parts 61 clamping both sides of one lens 67 are connected as one unit and connected to the slider of the first automatic moving device 10 through the first connecting rod 45. The bottoms of the two wiping parts 61 clamping both sides of another lens 67 are connected as one unit and connected to the slider of the first automatic moving device 10 through another second connecting rod 46. Alternatively, all of them can be connected to the slider of the same automatic moving device through the same connecting rod. In this state, the automatic moving device is located in the center of the lower box and a protrusion will emerge from the center of the shelf. This protrusion naturally blocks the temple 63, preventing the temple 63 from folding towards the lens 67 and blocking the lifting and lowering action of the four wiping parts 61.

[0077] As an example, during the rising or falling process, most of the water in the soft parts of the wiping part 61, such as sponge, soft cloth, and lint, is automatically wiped away by the wiping ring that covers it; the connection between the main body and the bottom of each wiping part 61 can rotate relative to each other at a certain angle to adapt to the curvature of the main frame of various glasses. When each wiping part 61 is rotated, the corresponding wiping ring covering the wiping part 61 will also rotate along with it; the main body and the bottom of each wiping part 61 can be detached, making it convenient to replace wiping part 61 accessories of different sizes to adapt to the lens 67 sizes of various glasses; the bottom of each wiping part 61 is connected by a push-pull screw. When the rotating wheel 44 at the end of the screw is rotated by hand, the wiping part 61 can be pulled to slide a certain distance to adapt to the distance between the two lenses 67 of various glasses, i.e., the pupillary distance.

[0078] As an example, such as Figure 1 and Figure 4 As shown, the water droplet removal device 13 can be moved horizontally by the third automatic moving device 15, in conjunction with... Figure 5 One end of the water droplet removal device 13 is connected to one of the solenoid valves via a follow-up silicone soft water tube 27, and the other end is connected to the slider of the third automatic moving device 15. The follow-up silicone soft water tube 27 is placed in the movable space inside the rear wall of the box. When the water droplet removal device 13 moves, the follow-up silicone soft water tube 27 is also moved freely in a U-shape, and it will not be blocked or bent to block or reduce the water flow.

[0079] Combination Figure 9The water inlet of the water droplet removal device 13 has a circular cross-section. The water flow turns 90 degrees in the internal space to moderate the water flow and flows into a rectangular space. The outlet has a long strip cross-section, and the water flow becomes a long strip of water with a corresponding cross-section. The square space of the water droplet removal device 13 houses a second honeycomb perforated guide plate 49. As an example, the diameter of the honeycomb perforations distributed on the second honeycomb perforated guide plate 49 gradually decreases along the water flow direction to avoid the water flow and pressure being too concentrated at the end impacted by the water flow due to the impact force of the water flow direction. After passing through the honeycomb perforated guide plate, a water flow with uniform cross-sectional force will be formed. There are 3 to 5 long strip-shaped water passages distributed on the water outlet surface 51. A guide mesh 50 with small holes is set above the water outlet surface 51. After the water flows through the guide mesh 50, it can form a long strip of slow water column with no bubbles or low bubbles after passing through the water outlet surface 51. The slow water flow washes over the lens 67, which can avoid or minimize the presence of water bubbles or droplets on the lens 67, and also prevent splashing water droplets from falling onto the lens 67 due to a rapid water flow. The water column flows vertically downward and sprays onto the eyeglass body 62 and lens 67, which are vertically erected on the surface of the shelf 28. It flows down along the upper edge of the eyeglass frame, i.e., the eyeglass body 62, to the lens 67, and then down to the lower edge of the eyeglass frame, from which it flows out. The water finally leaves the eyeglass, thus achieving the purpose of removing the water droplets remaining on the lens 67. Then the water flows down into the lower box interior space through multiple holes on the shelf 28 and is naturally discharged through the drain pipe 7. The water flow from the water droplet removal device 13 is a long strip of water column, i.e., the cross-section is long and rectangular. The cross-section of the water column forms a certain angle range with the eyeglass body 62 and lens 67, for example, 70 degrees to 110 degrees. As an example, the cross-section of the water column is perpendicular to the eyeglass body 62 and the lens 67, that is, at a 90-degree angle, so that both sides of the lens 67 can be rinsed at the same time. At the same time, it can ensure that the water flow can cover the longitudinal range of the eyeglass body 62 with different degrees of curvature when moving horizontally, which is suitable for eyeglasses with various degrees of curvature. When the water droplet removal device 13 moves slowly from one end to the other horizontally above the eyeglass body 62, the elongated water column will also rinse from one end of the eyeglass body 62 to the other end, completing the rinsing of the residual water droplets on the entire eyeglass body 62 and the lens 67.

[0080] As an example, the three automatic moving devices, including the first automatic moving device 10, the second automatic moving device 11 and the third automatic moving device 15, each have a motor, a screw rod and a slider; one end of the screw rod is connected to the end of the motor shaft, and the slider has a nut embedded in it and is fitted onto the screw rod. When the motor rotates, it drives the screw rod to rotate, and the slider moves automatically along the screw rod, thereby driving the parts connected to the slider to move.

[0081] As an example, the eyeglass fixing device 5 is designed as a clip with a clip handle 29. The two edges of the clip are inlaid with removable soft silicone to prevent damage to the frame. The soft silicone is designed in several different shapes and sizes as accessories to adapt to the thickness, shape and height of the nose bridge of various eyeglasses. Two magnets or iron plates are inlaid at the two ends of the clip. If magnets are used, the two magnets are attracted to each other when they are close to each other. Two long strip magnets or iron plates, or one long strip iron plate or magnet, are inlaid on the shelf 28 of the lower box. If two magnets are used, their corresponding surfaces are attracted to each other with the two magnets at the ends of the clip. The magnets or iron plates can be flexibly set according to the needs.

[0082] Furthermore, before positioning the glasses to be cleaned, the clip or its handle 29 clamps the middle crossbeam of the nose section of the glasses, i.e., the connecting part between the two lens frames 67. When the glasses are placed into the upper surface space of the shelf 28, the two lenses 67 of the glasses are respectively inserted and clamped between the two sets of wiping parts 61 of the rubbing cleaning device 4. The two magnets or iron pieces at the clamping end of the clip handle 29 attract one or two magnets embedded in the lower box shelf 28. In this way, the glasses can be vertically fixed on the lower box shelf 28, so as to maintain the position of the lenses during the process of the four wiping parts 61 of the rubbing cleaning device 4 rubbing the lenses 67 up and down, preventing the eyes from falling. The glasses automatically deviate, while also ensuring that the main body 62 and lens 67 of the glasses are perpendicular to the surface of the shelf 28; the two temples 63 of the glasses are opened outward at a certain angle so that the two sets of wiping parts 61 will not be blocked or interfered with by the temples 63 during the up and down movement. The clamp on the side of the clip facing the temple 63 extends outward to form a temple stop bar 36, which blocks and supports the temples 63 outward to prevent the temples 63 from retracting outward toward the main body 62 of the glasses and interfering with or blocking the movement of the wiping parts 61; in order to make the magnetic attraction between the clip and the shelf 28 more stable, one or two magnets are embedded in the shelf 28 in a recessed elongated groove, such as... Figure 10 As shown, the elongated groove includes a first clamping plate groove 52 and a second clamping plate groove 53. After the clamp is sucked in, it also sinks into the groove and is more stable after being limited by the two inner walls of the groove.

[0083] As an example, such as Figure 1 and Figure 4As shown, the drain pipe 7 connects to the left mounting space 41 or the right mounting space 42 of the lower box 65, and the water inside the lower box will be discharged through the drain pipe 7. Multiple safety drain holes are provided at the bottom of the four sides of the lower box 65 to ensure timely drainage when the drain pipe 7 is blocked, preventing the water level inside the box from rising and touching the circuit components, thus avoiding damage to electronic devices or causing a short circuit. As an example, the lower box 65 has reserved left mounting spaces 41 and 42 on the lower left and lower right sides, respectively, and a first T-shaped water pipe 6 connects these two spaces to accommodate the different locations of water pipe connections and drain holes in different households. Users can install the water filter device 3, inlet pipe 1, drain pipe 7, detergent container 9, and pipe plug in the left mounting space 41 or right mounting space 42, or interchange their positions, for a more aesthetically pleasing water pipe layout.

[0084] As an example, such as Figure 4 As shown, the automatic eyeglass cleaning machine 70 is also equipped with a water pressure stabilizing device 2, which is used to stabilize the pressure of the incoming water within a certain range, so as to avoid excessive water pressure from impacting the water circuit device of the machine, causing damage or affecting the use effect; the automatic eyeglass cleaning machine 70 is also equipped with a water quality filtration device 3, which is used to filter out fine sand particles or hard objects that may be present in tap water, especially after water is shut off and water is refilled, which is prone to this phenomenon. After filtration, it can prevent fine sand particles or hard objects that may be present during the cleaning process from colliding or scratching the lens 67, thus preventing scratches on the lens 67.

[0085] The following example illustrates the application of the automatic eyeglass cleaning machine 70. If it's the first time using it, you need to select the appropriate size wiping part 61 provided with the machine based on the size of the current eyeglass lens 67 and install it. Next, you need to adjust the distance and rotation angle of the four wiping parts 61 of the rubbing cleaning device 4 according to the distance between the two lenses 67 and the curvature of the frame body. Bring the eyeglass body 62 close to the four wiping parts 61. Referring to the distance between the two lenses 67, use your fingers to rub and rotate the end wheel of the push-pull screw connected to the bottom of each wiping part 61 to adjust the position distance between the two sets of wiping parts 61, making it approximately the same as the distance between the two lenses 67. Referring to the curvature of the eyeglass frame body, rotate the angle of each of the four wiping parts 61 so that the arc they form is approximately close to the curvature of the eyeglass frame body. As an example, the angle and spacing of the wiping parts 61 can be adjusted separately. Adjustable angles and adjustable spacing are for wider adaptability. In other embodiments, a fixed angle and spacing can also be used, achieved by replacing wiping parts 61 accessories with different angles, or by pre-setting several common spacing installation positions.

[0086] Furthermore, based on the thickness and height of the nose bridge of the glasses, a silicone strip accessory of appropriate shape and size provided with the machine is selected and installed onto the edge of the clip of the glasses fixing device 5. This ensures that after the clip clamps the nose bridge of the glasses, the main body 62 of the glasses and the lens 67 are positioned as easily and stably as possible between the two clips of the clip or its clip handle 29, so that after the magnet attracts the clip, the main body 62 of the glasses and the lens 67 can easily stand upright and perpendicular to the shelf 28. The bottom of the two clips of the clip or its clip handle 29 should be as flat as possible to facilitate a more stable magnetic attraction.

[0087] If this is not your first time using them, here is an example of how to clean your glasses each time.

[0088] After the automatic glasses cleaning machine 70 is turned on, the four wiping parts 61 of the rubbing cleaning device 4 are kept in the default position above the shelf 28 of the lower case. If they are not in the default position, they are reset and automatically moved upward to the default position above the shelf 28 of the lower case.

[0089] The automatic eyeglass cleaning machine 70 automatically opens the pre-electromagnetic valve of the water jet spray device 12 for about 2 seconds. At this time, tap water will pass through the water pressure stabilizing device 2 and the water quality filtration device 3, enter the water jet spray device 12, and spray water downwards to pre-wet the four wiping parts 61, avoiding dry wiping of the lenses 67 and causing scratches or damage to the lenses 67. The water pressure stabilizing device 2 is used to stabilize the incoming water pressure within a certain range to avoid excessive water pressure impacting the water circuit device of the machine, causing damage or affecting the use effect. The water quality filtration device 3 can filter out fine sand particles or hard objects that may be present in the tap water, especially after the water supply has been shut off and is refilled. After filtration, it can prevent fine sand particles or hard objects that may be present during the cleaning process from colliding or scratching the lenses 67, thus preventing scratches on the lenses 67.

[0090] The automatic eyeglass cleaning machine 70 will automatically start the motor of the automatic detergent injection device 14, automatically spray out a certain amount of detergent foam, and let it fall naturally onto the four wiping parts 61 of the rubbing cleaning device 4. The wiping parts 61 will rub up and down several times at the same time to make the detergent foam more evenly distributed on the contact surface of the two wiping parts 61. The detergent foam is sprayed on the wiping parts 61 in advance, so that the lens 67 can be moistened and lubricated in time when it is inserted between the wiping parts 61, providing better protection for the lens 67 and avoiding scratches.

[0091] After preparation, for example, after hearing two beeps from the buzzer, open the transparent waterproof cover 16, take out the clip of the eyeglass fixing device 5, press the clip handle 29 by hand to clamp the clip onto the middle crossbar of the nose of the eyeglasses, with the temple stop bar 36 on the clip facing the temple 63, and spread the two temples 63 of the eyeglasses at a certain angle. Then, put the clip and the eyeglasses together into the space above the shelf 28 of the lower box. When putting them in, simultaneously insert the eyeglasses frame 62 and the two lenses 67 into the two sets of wiping sections respectively. Between 61, the lower edge of the eyeglass frame sinks all the way to the upper surface of the shelf 28. At the same time, the two magnets on the two clamp ends of the clip attract the iron sheet or magnet embedded in the shelf 28. In this way, the main body of the eyeglasses 62 can be vertically fixed on the shelf 28 of the lower box. This prevents the eyeglasses from easily shifting off course during the process of rubbing the four wiping parts 61 of the rubbing cleaning device 4 to clean the lenses 67. It also ensures that after the four wiping parts 61 sink completely away from the eyeglasses, the main body of the eyeglasses 62 and the lenses 67 can remain perpendicular to the upper surface of the shelf 28.

[0092] Then, the transparent waterproof cover 16 is closed, and the automatic eyeglass cleaning machine 70 will automatically begin cleaning according to the settings. Two automatic moving devices drive the four wiping parts 61 to move from top to bottom or in the opposite direction, rubbing and cleaning both sides of the lens 67. The two automatic moving devices move in the same direction or opposite directions. After rubbing several times, the water jet spray device 12 automatically sprays water onto the frame of the eyeglass body 62 and the four wiping parts 61. After rubbing and cleaning several times while spraying water, the two automatic moving devices will drive the four wiping parts 61 to move downwards while rubbing, completely sinking below the surface of the lower case shelf 28 until the four wiping parts 61 are completely detached from the eyeglasses. At the same time, the detergent on the eyeglasses and the four wiping parts 61 will be rinsed off. At this time, the eyeglass body 62 and the lens 67 still remain perpendicular to the upper surface of the shelf 28.

[0093] Next, the third automatic moving device 15 will drive the water droplet removal device 13 to slowly move from one end of the frame of the eyeglass body 62 to the other end, and then move back to the original position in the opposite direction. During the round trip, the water flow of the water droplet removal device 13 will automatically wash away the residual water droplets on the eyeglass body 62 and the lens 67, so that there is no need to wipe the water droplets with eyeglass cloth or tissue, thus avoiding scratching the lens 67 and avoiding manual operation.

[0094] At this point, the glasses are cleaned. As an example, the buzzer will beep three times consecutively. Then, open the transparent waterproof cover 16 and remove the glasses for use. Because the glasses fixing device 5 uses magnetic attachment, they can be easily removed. For any remaining moisture on the glasses, you can wipe them dry with a glasses cloth or tissue if needed. Alternatively, you can set the machine to automatically turn on the fan inside the upper compartment after cleaning to blow out cool air and further dry the remaining moisture. Furthermore, for glasses made of materials that are certain will not deform or be damaged by high temperatures, you can choose to turn on the warm air to speed up the drying process.

[0095] As an example, the water jet spraying device 12 can be omitted, and the water droplet removal device 13 can replace it to complete the water spraying action. That is, the water jet spraying device 12 and the water droplet removal device 13 can be integrated into one unit to save costs and reduce the size of the product.

[0096] In this way, from placing dirty glasses into the machine to taking them out clean and bright for immediate use, the entire cleaning process, except for placing the glasses, is fully automated, requiring no manual operation. The process is also very fast, taking only about 30 seconds to complete; more complex cleaning can be performed in a maximum of about 120 seconds. Furthermore, it avoids the risk of scratching the lenses due to improper manual wiping techniques, thus preventing damage to the glasses' lifespan. In addition, improper manual wiping techniques often lead to repeated wiping, wasting valuable time during rushing to work or school. In contrast, traditional ultrasonic cleaners require cumbersome and time-consuming manual operation—including powering off, adding water and detergent, plugging in again, emptying dirty water, and drying the glasses—typically taking 3 to 5 minutes or more. This results in low cleaning efficiency, and users who frequently wear unclean and unclear glasses may experience reduced visual comfort and potentially worsen their nearsightedness.

[0097] It should be noted that other embodiments of this application also include an implementable automatic eyeglass cleaning machine formed by combining the technical features of the above embodiments. The technical features of the above embodiments can be combined arbitrarily. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as the combination of these technical features does not contradict each other, it should be considered within the scope of this specification. The above embodiments only illustrate several implementation methods of this application, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of the patent application. It should be pointed out that for those skilled in the art, several modifications and improvements can be made without departing from the concept of this application, and these all fall within the protection scope of this application. Therefore, the patent protection scope of this application should be determined by the appended claims.

Claims

1. An automatic eyeglass cleaning machine (70), characterized in that, It includes an inlet pipe (1), a drain pipe (7), an upper box (64) and a lower box (65), wherein the upper box (64) and the lower box (65) are movably connected and together form a receiving area (66); The automatic eyeglass cleaning machine (70) also includes a rubbing cleaning device (4), an eyeglass fixing device (5), a drive control module (8), a water droplet removal device (13), and an automatic detergent injection device (14) disposed in the receiving area (66). The eyeglass fixing device (5) is used to position and place the eyeglasses to be cleaned; The rubbing and cleaning device (4) has a first position that contacts both sides of the lens (67) of the eyeglasses, and a second position that is separated from the lens (67); The automatic detergent dispensing device (14) is used to apply detergent to one of the agitation cleaning device (4) and the lens (67); The drive control module (8) drives the rubbing and cleaning device (4) to move and to move the rubbing and cleaning device (4) to the first position and the second position. The water inlet pipe (1) is located in one of the upper box (64) and the lower box (65). The water droplet removal device (13) is connected to the water inlet pipe (1) and is used to apply water flow to the lens (67) to remove residual water droplets on the lens (67). The drain pipe (7) is located in the lower box (65) and is connected to the bottom of the receiving area (66).

2. The automatic eyeglass cleaning machine (70) according to claim 1, characterized in that, The eyeglass fixing device (5) includes a clip handle (29), a first magnet (30) at the end of the clip, a second magnet (31) at the end of the clip, a first magnet (32) on the shelf, and a second magnet (33) on the shelf. The lower box body (65) is provided with a shelf (28), and the first magnet (32) and the second magnet (33) of the shelf are disposed on the shelf (28). The clip handle (29) is used to hold the glasses; The first magnet (30) and the second magnet (31) at the end of the clamp are respectively located at the end of the clamp handle (29), and are magnetically attracted to the first magnet (32) and the second magnet (33) of the shelf respectively, so as to position and place the glasses.

3. The automatic eyeglass cleaning machine (70) according to claim 2, characterized in that, The eyeglass fixing device (5) further includes a first silicone (34) and a second silicone (35) disposed on the clip handle (29), for abutting against the eyeglasses when the eyeglasses are held by the clip handle (29); or, The eyeglass fixing device (5) also includes a temple stop bar (36) connected to or integrally formed with the clip handle (29), which is used to abut against the temple (63) of the eyeglasses when the eyeglasses are held by the clip handle (29).

4. The automatic eyeglass cleaning machine (70) according to claim 1, characterized in that, The automatic eyeglass cleaning machine (70) also includes a squeegee ring, which is connected to one of the upper housing (64) and the lower housing (65) and is clamped to the outside of the wiping assembly of the abrasive cleaning device (4); The inner frame (58) of the wiper ring has a passage area, which is larger than the hard sheet (59) inside the wiping part of the wiping assembly and smaller than the soft wiping body (60) inside the wiping part of the wiping assembly, so that the rubbing cleaning device (4) can be easily positioned in the first position and the second position, and the wiper ring scrapes off part of the liquid from the soft wiping body (60) inside the wiping part; or, The water droplet removal device (13) is equipped with a filter structure to filter out air bubbles in the water flow and apply a defoaming water flow to the lens (67); or, The automatic eyeglass cleaning machine (70) also includes push-pull screws, the number of which is the same as the number of wiping parts (61) of the rubbing cleaning device (4); Each push-pull screw is provided in a one-to-one correspondence with each of the wiping parts (61). Each push-pull screw is connected to a corresponding wiping part (61) for adjusting the position of the wiping part (61) to adapt to the position, angle and thickness of the lens (67).

5. The automatic eyeglass cleaning machine (70) according to claim 1, characterized in that, The lower housing (65) is provided with a left mounting space (41) and a right mounting space (42), and a first T-shaped water pipe (6) is provided between the left mounting space (41) and the right mounting space (42); or, The rubbing cleaning device (4) includes two wiping components, each of which includes a pair of wiping parts (61), and the pair of wiping parts (61) respectively contact the lens (67) from both sides. The drive control module (8) drives one of the wiping components to move up and down through the first automatic moving device (10), and drives the other wiping component to move up and down through the second automatic moving device (11); or, the drive control module (8) drives the two wiping components to move up and down, left and right, or rotate respectively.

6. The automatic eyeglass cleaning machine (70) according to claim 1, characterized in that, The automatic eyeglass cleaning machine (70) also includes a water jet spray device (12) disposed in the receiving area (66), the water jet spray device (12) being connected to the detergent automatic injection device (14) for applying detergent to the lens (67).

7. The automatic eyeglass cleaning machine (70) according to claim 6, characterized in that, The water jet spraying device (12) and the water droplet removal device (13) are integrated into one unit; or, The automatic eyeglass cleaning machine (70) further includes a detergent container (9), a first detergent connecting pipe (24) and a second detergent connecting pipe (25). The detergent container (9) is disposed in the receiving area (66) and is connected to the automatic detergent injection device (14) through the first detergent connecting pipe (24) for supplying detergent to the automatic detergent injection device (14). The detergent automatic injection device (14) is connected to the water jet spray device (12) through the second detergent connection pipe (25).

8. The automatic eyeglass cleaning machine (70) according to claim 1, characterized in that, The automatic eyeglass cleaning machine (70) also includes a third automatic moving device (15) and a follow-up silicone soft water pipe (27) disposed in the receiving area (66). The water droplet removal device (13) is mounted on the third automatic moving device (15) and is connected to the water inlet pipe (1) through the follow-up silicone soft water pipe (27). The third automatic moving device (15) is used to drive the water droplet removal device (13) to move horizontally on the lens (67), and so that the water droplet removal device (13) is no longer located above the lens (67) after the water flow has been applied to the lens (67).

9. The automatic eyeglass cleaning machine (70) according to claim 1, characterized in that, The automatic eyeglass cleaning machine (70) also includes a water pressure stabilizing device (2) and a water filtration device (3) disposed in the receiving area (66). The water inlet pipe (1) is connected to the water droplet removal device (13) sequentially through the water pressure stabilizing device (2) and the water quality filtration device (3).

10. The automatic eyeglass cleaning machine (70) according to any one of claims 1 to 9, characterized in that, The automatic eyeglass cleaning machine (70) also includes a first fan (17) and a second fan (18) disposed in the receiving area (66). The first fan (17) and the second fan (18) are located in the upper housing (64) and are used to deliver cold or hot air to the eyeglasses when the rubbing cleaning device (4) is in the second position and when the water droplet removal device (13) has completed applying water flow to the lens (67).

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