Anti-dazzle intelligent glasses

Abstract

The invention relates to the field of visual communication equipment, in particular to anti-dazzle intelligent glasses which comprise a glasses frame and a glasses bracket which are connected with each other, and further comprise an anti-dazzle assembly. The lens frame is provided with a shielding cavity, the lens penetrates through the shielding cavity, and the anti-dazzle assembly is movably arranged in the shielding cavity; after being stressed, the anti-dazzle assembly moves in the lens frame and forms a shielding part, the shielding part covers the lens to enable the lens to be anti-dazzle, and the shielding part is arranged in the lens frame. According to the anti-dazzle glasses, the anti-dazzle assembly is arranged and is movably arranged in the shielding cavity of the glasses frame, the lenses have the anti-dazzle effect when a light source penetrates through the shielding part and then enters the lenses, an additional anti-dazzle lens overturning structure does not need to be additionally arranged, and the production cost is reduced. The anti-dazzle glasses are simple in structure and ingenious in design, the anti-dazzle assembly can be integrated with the glasses frame in appearance, the overall attractiveness of the glasses frame is not affected, whether the anti-dazzle effect is needed or not can be switched through the anti-dazzle assembly, and the practicability of the glasses frame is improved.

Description

Technical Field

[0001] This application relates to the field of visual communication devices, and in particular to an anti-glare smart glasses. Background Technology

[0002] Currently, the anti-glare function of smart glasses is achieved by using polarized lenses, anti-reflective coatings (AR coatings), and tinted or photochromic lenses applied to or externally attached to the lenses. Polarized lenses can filter reflected light from "specific directions" to reduce glare; AR coatings are one (or more) transparent films that reduce the reflection of the lens itself; tinted or photochromic lenses can reduce the overall intensity of strong light, thereby reducing the total amount of light entering the eye by changing the lens's transmittance, thus alleviating glare caused by strong light.

[0003] When existing smart glasses need to increase anti-glare, they usually set up a flip-up secondary frame structure on the frame so that the secondary frame with polarized lenses can be flipped over to cover the lenses to achieve the anti-glare function. Some smart glasses, in order to save on the overall structure of the eyeglass frame and improve ease of use, will put an anti-reflective coating (AR coating) on ​​the lenses to reduce the reflection of the lenses themselves, that is, to use AR coated lenses or tinted or photochromic lenses.

[0004] The existing technical solutions mentioned above have the following drawbacks: the secondary frame with a flip structure increases the overall structure, making the shape more complex and less lightweight; the use of AR coated lenses or tinted / photochromic lenses reduces the flexibility of smart glasses, the lenses are not easy to replace, and the anti-glare function cannot be switched on in specific situations. Summary of the Invention

[0005] In order to solve the problem that the anti-glare structure of smart glasses in the prior art cannot meet the needs of users, this application provides an anti-glare smart glasses.

[0006] The above-mentioned technical objective of this application is achieved through the following technical solution:

[0007] An anti-glare smart glasses includes a frame and a frame connected to each other. The frame is provided with a lens and an anti-glare component. The frame is provided with a blocking cavity, through which the lens transmits light, and the anti-glare component is movably disposed in the blocking cavity.

[0008] When subjected to force, the anti-glare component moves within the lens frame and forms a shielding portion, which covers the lens to prevent glare. The shielding portion is located within the lens frame.

[0009] In some embodiments, the anti-glare component includes:

[0010] A rotating roller is rotatably disposed in the shielding cavity. The rotating roller winds up a light-shielding film, and the surface of the light-shielding film is provided with an anti-glare coating.

[0011] A pull rope is connected to the rotating roller and wound up to one end of the rotating roller;

[0012] The first elastic element is connected to the pull cord;

[0013] A movable rod is connected to the free end of the light-shielding film;

[0014] When the movable rod is subjected to force, it stretches the light-blocking film so that the light-blocking film forms the blocking part and covers the lens. The first elastic member applies force to the pull rope so that the rotating roller rotates and rolls up the light-blocking film.

[0015] In some embodiments, the end of the movable rod is provided with a force-applying protrusion that protrudes from the frame; the blocking cavity extends through the frame to form a slide, and by moving the force-applying protrusion, the movable rod drives the light-blocking film to move along the slide.

[0016] In some embodiments, the rotating roller is coaxially provided with a central rotating shaft, which is rotatably disposed in the shielding cavity and connected to the pull rope. The surface of the central rotating shaft is provided with teeth, and the pull rope is wound on the teeth.

[0017] In some embodiments, the frame is provided with a locking block, and the force-applying protrusion is provided with a locking assembly. The force-applying protrusion moves along the slide and abuts against the locking block until it is engaged with the locking block, thereby locking the movable rod onto the blocking cavity.

[0018] In some embodiments, the locking assembly includes:

[0019] A retractable locking block is provided in the force-applying protrusion, and the locking block engages with the locking block;

[0020] The pressing rod is retractably disposed in the force-applying protrusion and partially exposed to the force-applying protrusion;

[0021] A connecting rod is rotatably disposed within the force-applying protrusion, and both ends of the connecting rod are rotatably connected to the locking block and the connecting rod, respectively;

[0022] The second elastic element abuts against the locking block;

[0023] By pressing the pressing rod, the connecting rod is rotated, causing the locking block to extend and retract to disengage from the locking block and be reset by the second elastic element.

[0024] In some embodiments, the direction of movement of the pressing rod is opposite to the direction of movement of the locking block, and on the force-applying protrusion, one end of the pressing rod is positioned opposite to one end of the locking block.

[0025] In some embodiments, the card block is provided with a first sliding ramp, and the locking block is provided with a second sliding ramp, wherein the first sliding ramp and the second sliding ramp slide against each other; wherein the first sliding ramp and the second sliding ramp are parallel.

[0026] The locking block is provided with a slot. After the locking block disengages from the second sliding inclined surface, the locking block is engaged in the slot by the elastic force of the second elastic element.

[0027] In some embodiments, the frame is provided with a baffle, and the blocking portion is disposed between the baffle and the lens.

[0028] In some embodiments, the anti-glare component includes:

[0029] A solution cylinder containing a light-shielding solution, the output end of which is connected to the shielding cavity;

[0030] A piston rod, which is telescopically disposed within the solution cylinder;

[0031] The third elastic element abuts against the piston rod;

[0032] An extrusion rod, wherein a scraper is provided on the extrusion rod;

[0033] The piston rod extends and retracts through the elastic force of the third elastic element to squeeze the light-blocking solution and output it to the blocking cavity, so that the light-blocking solution covers the lens to form a blocking part. The squeezing rod drives the scraper to move to retract the light-blocking solution into the solution cylinder.

[0034] In summary, compared with the prior art, this application has the following technical advantages:

[0035] This application incorporates an anti-glare component, movably housed within a visor cavity in the eyeglass frame. When the user controls the movement of the anti-glare component, it forms a transparent, glare-blocking section within the frame, providing protection. When the visor covers the lens, light passing through it before entering the lens results in an anti-glare effect. This eliminates the need for an additional flip-up anti-glare lens structure, reducing production costs. The ingenious design allows the anti-glare component to seamlessly integrate with the frame, preserving its overall aesthetics. Furthermore, the component allows for switching between anti-glare and glare-blocking modes, enhancing the frame's practicality. Attached Figure Description

[0036] Figure 1 This is a structural diagram of the anti-glare smart glasses in Embodiment 1 of this application;

[0037] Figure 2 yes Figure 1 A diagram from another angle;

[0038] Figure 3 This is a schematic diagram of the frame portion after being cut in Embodiment 1 of this application;

[0039] Figure 4 This is a schematic diagram of the anti-glare component in Embodiment 1 of this application;

[0040] Figure 5 yes Figure 4 Enlarged view of section A;

[0041] Figure 6 This is a cross-sectional view of the force-applying protrusion in Embodiment 1 of this application;

[0042] Figure 7 This is a partial schematic diagram of the force-applying protrusion and the frame in Embodiment 1 of this application;

[0043] Figure 8 This is a reference diagram showing the engagement of the locking component and the locking block in Embodiment 1 of this application;

[0044] Figure 9 This is a structural diagram of the anti-glare smart glasses in Embodiment 2 of this application;

[0045] Figure 10 This is a schematic diagram of the extrusion rod in Embodiment 2 of this application;

[0046] Figure 11 This is a partial structural schematic diagram of the anti-glare component in Embodiment 2 of this application.

[0047] In the diagram, 1. Frame; 11. Covering cavity; 12. Locking block; 121. Second sliding ramp; 122. Slot; 12. Slide; 2. Frame; 3. Lens; 4. Baffle; 51. Rotating roller; 511. Central rotating shaft; 512. Tooth; 513. Sunshade film; 52. Retractable cord; 53. First elastic element; 54. Movable rod; 541. Force-applying protrusion; 542. Mounting groove; 55. Solution cylinder; 56. Piston rod; 57. Third elastic element; 58. Squeezing rod; 581. Scraper belt; 6. Locking assembly; 61. Locking block; 611. Limiting strip; 612. First sliding ramp; 62. Pressing rod; 63. Connecting rod; 64. Second elastic element. Detailed Implementation

[0048] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0049] It should be noted that 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 indicated technical features. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include at least one of that feature. In the description of this invention, "a plurality of" means at least two, such as two, three, etc., unless otherwise explicitly specified.

[0050] The present application will be further described in detail below with reference to the accompanying drawings.

[0051] This invention relates to an anti-glare smart glasses, a novel product improved upon existing smart glasses. It can be applied to existing smart glasses such as AR smart glasses, VR glasses, AI audio glasses, or AI glasses with cameras, etc. Existing smart glasses typically have a computing processing module, battery, sensors, speakers and microphones, communication and positioning modules, and control devices, etc. This invention does not change the existing smart glasses body, therefore the structure of existing smart glasses will not be described in detail.

[0052] Example 1

[0053] As an embodiment of the anti-glare smart glasses of the present invention, such as Figure 1 , Figure 2 As shown, the anti-glare smart glasses include a frame 1, a frame 2, lenses 3, and an anti-glare component. The shapes of the lenses 3 and the frame 1 are no longer limited. The lenses 3 are installed in the frame 1, and the frame 1 is connected to the frame 2. The frame 2 is the main body of the glasses and includes basic structures such as ear loops for support and nose pads.

[0054] like Figure 3As shown, an anti-glare component is installed in the frame 1 to prevent light from shining on the lens 3 and causing glare, thus avoiding discomfort to the user. The frame 1 has a shielding cavity 11, which is a hollow structure, a flat space within the frame 1, and extends through both sides of the frame 1, forming sliding tracks 12 on both sides. The anti-glare component is movably installed inside the shielding cavity 11. Furthermore, to better protect the anti-glare component, a baffle 4 is installed on the frame 1. The baffle 4 can be made of a transparent material and is positioned opposite the lens 3, allowing the shielding cavity 11 to be positioned between the baffle 4 and the lens 3, protecting the shielding cavity 11 from interference. Simultaneously, the light source can be transmitted through the shielding cavity 11, meaning that light entering through the shielding cavity 11 can be projected onto the lens 3. From the user's viewing angle, the light source is reflected sequentially from the baffle 4, the shielding cavity 11, and the lens 3 to the user's viewing angle. Therefore, the frame 1 of the present invention is an integral structure, which avoids setting other complex structures on the outside of the frame 1 and helps to improve the portability of the frame 1.

[0055] like Figure 4 As shown, the anti-glare assembly includes a rotating roller 51, a pull cord 52, a first elastic element 53, and a movable rod 54. The rotating roller 51 is rotatably mounted within the shielding cavity 11 and employs a roller shaft structure. The rotating roller 51 can be positioned near the shielding cavity 11 or the top of the lens 3. A central rotating shaft 511 is coaxially mounted at both ends of the rotating roller 51. Specifically, as shown... Figure 5 As shown, the central shaft 511 is rotatably supported on the side of the shielding cavity 11 to enable the rotation of the rotating roller 51. Furthermore, a light-shielding film 513 is wound onto the surface of the rotating roller 51. Specifically, the light-shielding film 513 is a transparent thin film with a certain degree of flexibility, allowing it to be bent and wound onto the rotating roller 51. One side of the light-shielding film 513 is covered or coated with an anti-glare coating, specifically an anti-reflection coating (AR coating). The anti-reflection coating reduces reflected light from the surface of the lens 3 through the principle of optical interference. The AR coating is a single (or multiple) transparent thin film (usually made of materials such as silicon dioxide and titanium dioxide), which allows the "incident light" and the "reflected light from the coating surface" to undergo "destructive interference" (the peaks and troughs of the two beams of light superimpose and cancel each other out) on the surface of the lens 3, thereby reducing the intensity of reflected light. Therefore, when the light-shielding film 513 is superimposed on the lens 3, it not only reduces the reflection of the lens 3 itself (making the vision clearer), but also allows more light to pass through the lens 3 and enter the eye, improving visual brightness in low-light environments. In other alternative embodiments, the AR coating can be directly fused into the film to form a light-shielding film 513.

[0056] The pull cord 52 is wound onto the central rotating shaft 511. It can be made of a material with low deformation capacity and high friction to drive and pull the central rotating shaft 511 to rotate. The winding direction of the pull cord 52 on the central rotating shaft 511 is opposite to the winding direction of the light-blocking film 513. That is, when the light-blocking film 513 is stretched by the rotating roller 51, it gradually extends, and the pull cord 52 is gradually wound up under the rotation of the central rotating shaft 511. Conversely, when the pull cord 52 extends by the rotating shaft 511, the light-blocking film 513 is wound up onto the rotating roller 51. Further, as... Figure 5 As shown, to facilitate rapid winding of the pull rope 52 and prevent slippage, teeth 512 are provided on the surface of the central shaft 511. The teeth 512 can adopt a raised, inclined structure and are evenly distributed on the surface of the central shaft 511. One end of the pull rope 52 is connected to the central shaft 511, and the rest is wound up. The pull rope 52 can be wound around the teeth 512 to increase the friction during winding, making it less likely to slip during winding, and also making the extension of the pull rope 52 more stable. Optionally, the number of pull ropes 52 and the first elastic element 53 can be set to two sets, symmetrically arranged at both ends of the roller 51.

[0057] The first elastic element 53 is specifically a tension spring, located on one side of the rotating roller 51. One end of the first elastic element 53 can be fixedly disposed on the wall of the shielding cavity 11, and the other end of the first elastic element 53 is connected to the free end (the other end) of the pull rope 52, so that the pull rope 52 can have the function of active stretching through the elastic tension of the first elastic element 53. It can be seen that when the light-blocking film 513 is stretched and extended, the pull rope 52 is wound up. At this time, the first elastic element 53 undergoes tensile deformation and accumulates the tension for the pull rope 52 to reset. When the first elastic element 53 resets, it drives the pull rope 52 to reset and the light-blocking film 513 to be wound up. At this time, the pull rope 52 is in a non-wound state on the central rotating shaft 511.

[0058] like Figure 4 As shown, the movable rod 54 is movably mounted on the shielding cavity 11. The movable rod 54 can be a round rod structure or a long flat rod structure. The side of the movable rod 54 is connected to the free end of the light-blocking film 513 to drive the light-blocking film 513 to extend and stretch. Preferably, the movable rod 54 is slidably engaged with the slide rail 12, so that the slide rail 12 can guide the movement of the movable rod 54 and avoid deviation. The two ends of the movable rod 54 extend and are exposed on the outside of the frame 1, so that the user can manually control it. Specifically, the two ends of the movable rod 54 are provided with force-applying protrusions 541. The user can manually control the force-applying protrusions 541 to stretch and extend the light-blocking film 513, so that the light-blocking film 513 is more stable when it is extended.

[0059] Furthermore, such as Figure 6As shown, to ensure that the light-shielding film 513 can be locked onto the shielding cavity 11 after being extended, and automatically retracted during unlocking and reset, the present invention provides a locking component 6 in the force-applying protrusion 541. To facilitate the installation of the locking component 6, an installation groove 542 is provided in the force-applying protrusion 541. The locking component 6 can be disposed in the installation groove 542. The locking component 6 includes a locking block 61, a pressing rod 62, a connecting rod 63, and a second elastic element 64. The locking block 61 is telescopically disposed in the installation groove 542 and adopts a block structure. Preferably, the end of the locking block 61 protrudes from the force-applying protrusion 541. To prevent the locking block 61 from disengaging from the installation groove 542, limiting strips 611 are provided on both sides of the locking block 61. The limiting strips 611 can abut against the wall of the installation groove 542 under normal conditions. A columnar structure can be provided at the end of the locking block 61 near the interior of the installation groove 542 to facilitate the installation of the second elastic element 64. The second elastic element 64 is specifically a spring. One end of the second elastic element 64 abuts against the locking block 61, and the other end of the second elastic element 64 can be fixedly set or abut against the bottom wall of the mounting groove 542. The locking block 61 can be reset and extended through the second elastic element 64.

[0060] like Figure 7 , Figure 8 As shown, the pressing rod 62 is retractably disposed in the force-applying protrusion 541, and the end of the pressing rod 62 is exposed on the force-applying protrusion 541. Preferably, a through-hole structure can be provided in the force-applying protrusion 541, the through-hole penetrating and communicating with the mounting groove 542. The pressing rod 62 is retractably disposed in the through-hole so as to guide the directional movement of the pressing rod 62. It should be noted that in this embodiment, the extension direction of the pressing rod 62 is parallel to the extension direction of the locking block 61, and their movement directions are opposite. That is, when the pressing rod 62 is pressed, the pressing rod 62 moves in the first direction, and the locking block 61 moves in the second direction, the first direction and the second direction being opposite. Preferably, the end dimension of the pressing rod 62 is larger than the shaft diameter of the pressing rod 62 so that the end of the pressing rod 62 can be confined to the outside of the force-applying protrusion 541. The connecting rod 63 can be a long plate or a long rod structure. The connecting rod 63 is rotatably mounted in the mounting groove 542, with its two ends extending as rotation fulcrums and rotatably supported on the side wall of the mounting groove 542. The two ends of the connecting rod 63 along its length (or axial direction) are rotatably connected to the pressing rod 62 and the locking block 61, respectively, for example, using a shaft-hole structure or a hinge connection structure. Preferably, with the rotation shaft structure of the connecting rod 63 as the fulcrum, the lever arm formed by the pressing rod 62 on the connecting rod 63 is greater than the lever arm formed by the locking block 61 on the connecting rod 63. Therefore, the pressing rod 62 can apply force to the connecting rod 63 with less effort to cause the connecting rod 63 to rotate, and the locking block 61 can retract through the connecting rod 63, making it easier to unlock the locking block 61.

[0061] In use, the locking block 61 can remain extended under the elastic force of the second elastic member 64. When pressing pressure is applied to the pressing rod 62, the pressing rod 62 rotates through the connecting rod 63 to drive the locking block 61 to retract into the mounting groove 542. At this time, the second elastic member 64 is compressed. When the pressing rod 62 is not under force, the elastic potential energy of the second elastic member 64 is released to push the locking block 61 to reset. It should be noted that a locking block 12 is provided on the outer side of the frame 1. The locking block 12 has a protruding structure. When the force-applying protrusion 541 moves along the slide 12, it gradually approaches the locking block 12 until it abuts against the locking block 12. When the two abut against each other, the locking block 61 gradually retracts into the mounting groove 542. When the locking block 61 disengages from the locking block 12, the locking block 61 extends through the second elastic member 64 and locks against the side wall of the locking block 12, thereby locking the movable rod 54 in the preset position. When unlocking is required, simply press the pressing rod 62 to lift and retract the locking block 61, and finally disengage the locking block 61 from the locking block 12.

[0062] Furthermore, such as Figure 8 As shown, the locking block 61 is provided with a first sliding inclined surface 612, and the locking block 12 is provided with a second sliding inclined surface 121. When the movable rod 54 drives the force-applying protrusion 541 to move, the locking block 61 slides and abuts against the second sliding inclined surface 121 through the first sliding inclined surface 612, and moves along the second sliding inclined surface 121 until the first sliding inclined surface 612 and the second sliding inclined surface 121 disengage. At this time, under the action of the second elastic member 64, the side of the locking block 61 contacts the side of the locking block 12, so that the locking block 61 is locked onto the locking block 12. Furthermore, a slot 122 is provided on the locking block 12. The slot 122 is located on the side of the locking block 12. When the first sliding inclined surface 612 disengages from the second sliding inclined surface 121, the locking block 61 can be inserted into the bottom of the locking block 12 along the slot 122, so that the locking block 61 is engaged with the locking block 12. The cooperation between the slot 122 and the locking block 61 helps to prevent the locking block 61 from disengaging or from shifting in a telescoping manner.

[0063] Working principle: When anti-glare treatment is required for lens 3, simply pull the movable rod 54 manually to move the force-applying protrusion 541. The rotating roller 51 rotates and rewinds the light-blocking film 513, which is extended and gradually covers lens 3. The part of the light-blocking film 513 covering lens 3 is the blocking part, which is built into the frame 1. While extending the light-blocking film 513, the first elastic element 53 is stretched under the action of the pull rope 52. When the force-applying protrusion 541 moves to the locking block 12, the locking block 61 engages with the locking block 12, thus locking the light-blocking film 513 in the blocking cavity 11. When it is necessary to rewind the light-blocking film 513, simply press the force-applying pressing rod 62 to unlock the locking block 61. Under the elastic pull of the first elastic element 53, the rotating roller 51 automatically rotates and rewinds the light-blocking film 513 to achieve the switching of anti-glare mode.

[0064] Example 2

[0065] like Figures 9-11 As shown, this embodiment shares most of the same structure as Embodiment 1, except for the structure of the anti-glare component. Specifically, the anti-glare component includes a solution cylinder 55, a piston rod 56, a third elastic element 57, and a squeezing rod 58. The solution cylinder 55 stores a light-shielding solution, which is specifically a dyeing liquid or an antibacterial anti-glare treatment liquid. If a liquid containing only dyes, solvents, and water-soluble film-forming agents (such as polyvinyl alcohol) is used, it can be repeatedly flowed. Such liquids do not undergo chemical curing; after drying, they can be re-dissolved in water or a corresponding solvent to restore fluidity, or they can be wiped and recoated with a similar liquid for reuse. Organic dyes (such as azo dyes and anthraquinone dyes) can be added: these can absorb specific wavelengths of light and can be customized to produce colors (gray, brown, etc., with gray having higher color fidelity). By adjusting the dye concentration, the light transmittance can be controlled (the higher the concentration, the darker the lens 3), reducing some glare.

[0066] like Figure 11As shown, the piston rod 56 is telescopically mounted in the solution cylinder 55. The piston rod 56 has a piston structure that can push the light-shielding solution out to the solution cylinder 55. The output end of the solution cylinder 55 is connected to the shielding cavity 11, and the light-shielding solution can be guided out to the shielding cavity 11 through an additional guiding conduit structure. It should be noted that the shielding cavity 11 in this embodiment is preferably a sealed structure, which can be formed by the lens 3 and the baffle 4. Sealing strips can be added to both sides of the shielding cavity 11 to prevent leakage of the light-shielding solution and increase airtightness. The third elastic element 57 is specifically a spring. The third elastic element 57 is sleeved and abuts against one end of the piston rod 56, and the other end of the third elastic element 57 can be fixedly mounted on the wall of the shielding cavity 11. The third elastic element 57 is used to provide the power for solution output. The structure of the squeezing rod 58 is roughly the same as that of the movable rod 54, and it also has a locking assembly 6. The difference is that the unlocking position of the locking assembly 6 is closer to the anti-glare assembly (closer to the top of the frame 1), and the squeezing rod 58 is provided with a scraper 581. Figure 10 As shown, when the extrusion rod 58 moves the scraper belt 581, it can promote the rapid recovery of the light-shielding solution into the solution cylinder 55.

[0067] In use, the squeezing rod 58 is locked on the lens frame 1, and the third elastic element 57 is in a compressed state. When it is necessary to release the light-blocking solution, simply unlock the squeezing rod 58 to release the elastic potential energy of the third elastic element 57, and the light-blocking solution is output into the blocking cavity 11. At this time, the part of the light-blocking solution output and covering the lens 3 is the blocking part. When it is necessary to retract the blocking part, simply push the squeezing rod 58 to drive the scraper belt 581 to gradually retract the light-blocking solution into the solution cylinder 55. Under the action of pressure, the third elastic element 57 is compressed, and finally the squeezing rod 58 is locked in the initial position.

[0068] In some embodiments, to address the problem of existing smart glasses being inconvenient to carry and taking up space, the various components of the smart glasses can be modularly designed. Similar functions are integrated into a modular design, with modules connected magnetically, allowing for overall disassembly and component replacement. For example, the frame 1 can be divided into two equal parts (a first frame and a second frame), using the first and second frames as a connecting node. A magnetic hole-shaft connection or snap-fit ​​structure allows the first and second frames to have a magnetic connection function for easy storage. Furthermore, to enable more flexible folding of the first and second frames, a hinge can be used to connect them, allowing the first and second frames to rotate 180° for storage. The hinge can be externally located at one end of the first and second frames to provide sufficient rotation space. A snap-fit ​​structure can be provided at the relative positions of the first and second frames, allowing them to snap together and fold when flipped up or down 180° for convenient storage. Furthermore, the temples of the frame 2 can also employ a folding structure with a hinge design, making the entire pair of glasses lighter and more convenient when folded, thus saving storage space. In other embodiments, replaceable lenses 3 are provided, allowing for the replacement of different types of lenses 3 according to usage scenarios and individual needs.

[0069] In some embodiments, a stress-monitoring meditation glasses is provided. These glasses utilize sensors (such as flexible optical sensors, fiber optic pressure sensors, or piezoresistive pressure sensors) to monitor stress levels. By monitoring stress fluctuations, they interact with the user to guide emotional regulation, providing learnable and effective relaxation techniques to restore mental and physical balance. For example, stress fluctuations can be identified by detecting the user's blood pressure or arterial pulse, and appropriate relaxation methods can be provided based on the fluctuation values. Stress indicators are used as "visualized data" to provide users with meditation exercises, helping them enter a deep relaxation state more quickly, achieving the effects of meditation, promoting mental health, and enabling the smart glasses to function as a meditation relaxation aid. Music and sound waves are categorized, with light music and sound waves classified by function and integrated for use in different need scenarios, combining music with meditation functions. A focus training module can also be designed, providing focus training games that combine fun and a scientifically adjusted mode of cognitive training to help students, professionals, and others systematically improve their concentration and endurance. After use, a personal health data comparison report is generated. Daily / monthly / yearly reports are generated by collecting continuous data for long-term health monitoring and analysis, helping users understand their health status and trends through visualization, and facilitating health data analysis. In addition, UI interface design will be added, including the UI interface design of the product's attached app, including various levels of navigation, function layout, button layout and other related content (including multiple product functions such as meditation and focus training).

[0070] This specific embodiment is merely an explanation of this application and is not intended to limit it. After reading this specification, those skilled in the art can make modifications to this embodiment without contributing any inventive step, but such modifications are protected by patent law as long as they fall within the scope of the claims of this application.

Claims

1. An anti-glare smart glasses, comprising a frame (1) and a frame (2) connected to each other, wherein the frame (1) is provided with a lens (3), characterized in that: It also includes an anti-glare component; the frame (1) is provided with a shielding cavity (11), the lens (3) is transmitted through the shielding cavity (11), and the anti-glare component is movably disposed in the shielding cavity (11); wherein, after being subjected to force, the anti-glare component moves in the frame (1) and forms a shielding part, the shielding part covers the lens (3) so that the lens (3) is anti-glare, and the shielding part is disposed inside the frame (1).

2. The anti-glare smart glasses according to claim 1, characterized in that: The anti-glare assembly includes: a rotating roller (51), rotatably disposed in the shielding cavity (11), the rotating roller (51) winding up a light-shielding film (513), the surface of the light-shielding film (513) being provided with an anti-glare coating; a pull rope (52), connected to the rotating roller (51) and wound around one end of the rotating roller (51); a first elastic element (53), connected to the pull rope (52); and a movable rod (54), connected to the free end of the light-shielding film (513); wherein, after the movable rod (54) is subjected to force, it stretches the light-shielding film (513) so that the light-shielding film (513) forms the shielding part and covers the lens (3), and the first elastic element (53) applies force to the pull rope (52) so that the rotating roller (51) rotates and winds up the light-shielding film (513).

3. The anti-glare smart glasses according to claim 2, characterized in that: The end of the movable rod (54) is provided with a force-applying protrusion (541), which protrudes from the frame (1); the shielding cavity (11) passes through the frame (1) to form a slide (12), and by moving the force-applying protrusion (541), the movable rod (54) drives the light-blocking film (513) to move along the slide (12).

4. The anti-glare smart glasses according to claim 2, characterized in that: The rotating roller (51) is coaxially provided with a central rotating shaft (511). The central rotating shaft (511) is rotatably disposed in the shielding cavity (11) and connected to the pull rope (52). The surface of the central rotating shaft (511) is provided with teeth (512), and the pull rope (52) is wound on the teeth (512).

5. The anti-glare smart glasses according to claim 3, characterized in that: The frame (1) is provided with a locking block (12), and the force-applying protrusion (541) is provided with a locking assembly (6). The force-applying protrusion (541) moves along the slide (12) and abuts against the locking block (12) until it is engaged with the locking block (12), so that the movable rod (54) is locked in the shielding cavity (11).

6. The anti-glare smart glasses according to claim 5, characterized in that: The locking assembly (6) includes: a locking block (61), which is retractably disposed in the force-applying protrusion (541) and engages with the locking block (12); a pressing rod (62), which is retractably disposed in the force-applying protrusion (541) and partially exposed to the force-applying protrusion (541); a connecting rod (63), which is rotatably disposed in the force-applying protrusion (541) and whose two ends are respectively rotatably connected to the locking block (61) and the connecting rod (63); and a second elastic element (64), which abuts against the locking block (61); by pressing the pressing rod (62), the connecting rod (63) is driven to rotate, so that the locking block (61) extends and retracts to disengage from the locking block (12) and is reset by the second elastic element (64).

7. The anti-glare smart glasses according to claim 6, characterized in that: The direction of movement of the pressing rod (62) is opposite to that of the locking block (61). On the force-applying protrusion (541), one end of the pressing rod (62) is positioned opposite to one end of the locking block (61).

8. The anti-glare smart glasses according to claim 6, characterized in that: The locking block (61) is provided with a first sliding inclined surface (612), and the locking block (12) is provided with a second sliding inclined surface (121). The first sliding inclined surface (612) and the second sliding inclined surface (121) slide against each other. The first sliding inclined surface (612) and the second sliding inclined surface (121) are parallel. The locking block (12) is provided with a slot (122). After the locking block (61) is disengaged from the second sliding inclined surface (121), the locking block (61) is engaged in the slot (122) by the elastic force of the second elastic member (64).

9. The anti-glare smart glasses according to claim 1, characterized in that: The frame (1) is provided with a baffle (4), and the blocking part is disposed between the baffle (4) and the lens (3).

10. The anti-glare smart glasses according to claim 1, characterized in that: The anti-glare assembly includes: a solution cylinder (55) containing a light-blocking solution, the output end of which is connected to the shielding cavity (11); a piston rod (56) telescopically disposed in the solution cylinder (55); a third elastic element (57) abutting against the piston rod (56); and a squeezing rod (58) with a scraper (581) on it. The piston rod (56) is stretched and compressed by the elastic force of the third elastic element (57) to output the light-blocking solution to the shielding cavity (11), so that the light-blocking solution covers the lens (3) to form a shielding part. The squeezing rod (58) drives the scraper (581) to move to retract the light-blocking solution into the solution cylinder (55).

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