Self-adjusting glasses

Abstract

The present invention is a self-adjusting type of glasses, and the main parts of the glasses can be assembled in an adjustable manner. The wearer can arbitrarily select the color, pattern, and design of the main parts of the glasses, so that all forms of the glasses can also be freely selected according to the wearer's hobbies or interests, and the glasses can be formed into a frameless or half-frame or full-frame feeling. Moreover, even if the glasses frame is in a half-frame form or a full-frame form, it is independent of the frame and the wearer can create and display the glasses pattern and form he wants to express. The present invention covers the main parts of the glasses with a transparent micro-LED display shell, so that the glasses wearer can freely choose and change the color or pattern of the glasses legs, bridge parts, and glasses lenses, and can also reflect the various functions of the glasses. In particular, the micro-LED display shell can be applied only to the glasses, or to the glasses and the glasses frame at the same time, so that the overall color or expression pattern of the glasses or the glasses frame can be instantly changed.

Description

[0001] This application is a divisional application of the Chinese invention patent application with application number 202010884667.8, application date February 12, 2019, and invention name “Self-adjusting glasses”, among which the application with application number 202010884667.8 is a divisional application of the Chinese invention patent application with application number 201910111154.0, application date February 12, 2019, and invention name “Self-adjusting glasses”. Technical Field

[0002] The present invention relates to glasses, and more particularly, to self-adjusting glasses that are designed and created by the wearer himself, by which the wearer can directly and freely select the color or pattern of the main parts of the glasses and the size of the lenses to suit the wearer's personality and hobbies. Background Art

[0003] Nowadays, many people wear glasses for various purposes. They are mainly worn to correct or protect their eyesight, and they are also worn as accessories to match their own fashion, surrounding environment, or atmosphere by choosing the appropriate design to match the trend of the times to show their unique personality.

[0004] Glasses give the wearer a very different feeling and atmosphere depending on the slightest differences. Therefore, the wearer can create and design glasses that match the current fashion or the surrounding atmosphere. Moreover, if it is possible to express various designs of glasses that match the current trends and transcend the times, it can become an innovative matter in the hundreds of years of eyewear history and will receive a great response from many people.

[0005] Furthermore, glasses so far have only allowed wearers to choose from hundreds to thousands of designs manufactured by eyeglass manufacturers. However, if glasses can be designed to express a unique design that is not the same as anyone else's, and can only be enjoyed by the wearer in the world, or if various eyeglass functions can be expressed through lenses, etc., they will be greatly welcomed by modern people who pursue individuality while also attaching importance to functionality. Furthermore, if glasses are epoch-making and can eliminate the previous fixed ideas about glasses, they will be highly praised by eyeglass wearers and people related to eyeglass products.

[0006] In addition, the phenomenon that the frames or the legs of the glasses, or even a part of the lenses, are not simply covered with colors, but are regularly interrupted in the middle, and the color or style changes will attract great attention from consumers. Summary of the invention

[0007] Technical problem to be solved by the invention

[0008] Therefore, the object of the present invention is to provide a self-adjusting pair of glasses, in which the wearer can freely choose the color or pattern of the temples, bridge, frame, and lenses that are the main parts of the glasses, and create and design glasses that suit the wearer's preferences and personality.

[0009] Another object of the present invention is to provide a self-adjusting pair of glasses which are light and will not cause any inconvenience when worn for a long time, and which can be designed by the wearer according to his or her own interests and can be designed to have a frameless, half-frame, or full-frame feel.

[0010] Yet another object of the present invention is to provide a self-adjusting pair of glasses that can instantly change shape or exchange the color, size, and shape of the lenses, and that, regardless of whether or not the glasses have frames, the wearer can change the frames and lenses to any design that the wearer wants to express, and that the wearer can display his or her own unique creative design.

[0011] Another object of the present invention is to provide a self-adjusting pair of glasses, wherein the lenses can be used for vision protection during the day or at night, and can be used for vision protection or vision correction according to surrounding environments such as roads, beaches, snow and frost.

[0012] Technical solutions to the problem

[0013] The present invention according to the above-mentioned purpose is a pair of glasses, comprising: a pair of lenses; left and right temples connected to the left and right lenses connecting the head; a nose pad is formed, and the bridge portion connecting the left and right lenses is independently formed, and can be separated and assembled and fixed by means of magnetic force, and magnets are built into each side portion of the left and right lenses connecting the head and the left and right sides of the bridge portion, and a head and bridge magnet fixing component is formed with a magnet that receives magnetic force in order to support and fix the lenses, and at least one of the left and right temples connected to the left and right lenses connecting the head and the bridge portion and the lenses is covered with a transparent micro-LED display shell.

[0014] Furthermore, as another embodiment of the present invention, it includes: a pair of lenses; left and right temples connected to the left and right lens connecting heads; a nose pad is formed, and a bridge portion connecting the left and right lenses is independently formed, and can be separated and assembled and fixed by means of magnetic force, and magnetic attachment groove portions with built-in magnets are formed on each side portion of the left and right lens connecting heads and the left and right sides of the bridge portion, a magnetic component is formed on the edge of the lens, which is used to insert the lens formed with the magnetic component into the magnetic attachment groove portion and be magnetically fixed, and one or more of the left and right temples, the bridge portion and the lens are covered with a transparent micro-LED display shell.

[0015] Furthermore, as another embodiment of the present invention, it includes: a pair of eyeglasses; left and right eyeglass legs connected to the left and right eyeglass connecting heads; a nose pad is formed, and the bridge portion connecting the left and right eyeglasses is independently formed, and can be separated and assembled and fixed by means of magnetic force, and magnets are built into each side portion of the left and right eyeglass connecting heads and the left and right side portions of the bridge portion, and in order to support and fix the eyeglasses, the magnets of the left and right eyeglass connecting heads and the magnets of the bridge portion are respectively additionally formed with head and bridge magnet fixing components that generate magnetic force. At this time, the inner surfaces of the left and right eyeglass connecting heads that support and fix the eyeglasses by means of magnetic force are formed in flat contact with the inner surface of the head magnet fixing component, and the inner surface of the bridge portion and the inner surface of the bridge magnet fixing component, or the inner surface of the left and right eyeglass connecting heads and the inner surface of the head magnet fixing component, and the inner surface of the bridge portion and the inner surface of the bridge magnet fixing component are formed with integration concave and convex portions for mutual integration.

[0016] Furthermore, as yet another embodiment of the present invention, it includes: a pair of lenses; left and right temples connected to the left and right lens connecting heads; a nose pad is formed, and a bridge portion connecting the left and right lenses is independently formed, and can be separated and assembled and fixed by means of magnetic force, and a magnetic attachment groove portion with a built-in magnet is formed on each side portion of the left and right lens connecting heads and the left and right sides of the bridge portion, and a magnetic component is formed on the edge of the lens for inserting the lens with the magnetic component into the magnetic attachment groove portion and fixing it by means of magnetic force.

[0017] Furthermore, as yet another embodiment of the present invention, the magnetic component of the eyeglass lens is in a strip shape, and is composed of a transparent magnetic film coated on the surface of the lens and one of magnetic sheets disposed and placed at the left and right ends of the eyeglass lens.

[0018] Furthermore, as yet another embodiment of the present invention, left and right half-divided eyeglass frames connected to the legs of the eyeglasses are formed, and a truncated surface is formed in the bridging portion, and magnets are built into the half-divided bridging truncation wall surfaces, and the two are magnetically attached to each other, and the eyeglass lenses are attached and fixed to the respective insertion grooves of the left and right half-divided eyeglass frames by means of magnetic force.

[0019] Furthermore, as yet another embodiment of the present invention, it includes: a pair of eyeglasses; left and right eyeglass legs connected to the head of the left and right lenses; a nose pad is formed, and a bridge portion connecting the left and right eyeglasses is independently formed, which can be separated and assembled and fixed by means of magnetic force, and a main body control portion for wirelessly controlling a transparent micro-LED display housing that displays color and design to the outside is formed on the eyeglass bodies of the left and right eyeglasses; and a remote slave system for driving the transparent micro-LED display housing.

[0020] Furthermore, as yet another embodiment of the present invention, magnets are built into each side portion of the left and right lens connecting head portions and the left and right side portions of the bridge portion, and in order to support and fix the lenses, magnets on the left and right lens connecting head portions and the magnets on the bridge portion are respectively provided with head and bridge magnet fixing components that generate magnetic force.

[0021] In addition, the main control unit of the present invention is wirelessly connected to a smart phone via short-range wireless communication, and wirelessly controls the display of the color and pattern of the transparent micro-LED display shell of the eyeglass lens according to the pattern and color control commands driven by the eyeglass lens pattern and color mobile application downloaded on the smart phone.

[0022] Furthermore, as yet another embodiment of the present invention, a light detection unit for detecting the external brightness of the self-adjusting glasses is formed in one or more of the main control unit and the remote slave system, and the display brightness of the micro-LED display housing is controlled with the aid of the main control unit and the remote slave system based on the external light perception given to the self-adjusting glasses.

[0023] Furthermore, as yet another embodiment of the present invention, it comprises: a pair of eyeglasses; left and right eyeglass legs connected to the head of the left and right eyeglasses; a nose pad is formed, and a bridge portion connecting the left and right eyeglasses is independently formed, and can be separated and assembled and fixed by means of magnetic force, and left and right cover lenses with covering structures are formed on the left and right eyeglasses, and a transparent micro-LED display housing is covered on the cover lenses, and a main body control portion for wirelessly controlling the transparent micro-LED display housing is formed on the eyeglass body; and a remote slave system for driving the transparent micro-LED display housing.

[0024] Furthermore, as yet another embodiment of the present invention, it includes: a pair of lenses; left and right temples connected to the head of the left and right lenses; a nose pad is formed, and a bridge portion connecting the left and right lenses is independently formed, and can be separated and assembled and fixed by means of magnetic force, and, on the lenses combined with the left and right frames, a main control portion for wirelessly controlling the transparent micro-LED display housing is formed on the temples, and a remote slave system for driving the transparent micro-LED display housing is formed on the frames.

[0025] Furthermore, as yet another embodiment of the present invention, the left and right eyeglass frames are respectively formed into adjustable eyeglass frame forms that can be separated and assembled by means of magnetic force.

[0026] In addition, a transparent micro-LED display housing capable of displaying color and design to the outside is formed on the eyeglass frame.

[0027] Effects of the Invention

[0028] The present invention has the following advantages: by applying the adjustable assembly form or applying at least one of the various parts of the micro-LED display housing, the wearer can arbitrarily select the color, pattern, and design of the main parts of the glasses, so that all forms of glasses can be selected according to the wearer's hobbies and interests, and even frameless glasses can be frameless, half-framed, or full-framed. Moreover, even if the glasses frame is a half-frame form or a full-frame form, it is possible to create and express the glasses pattern and form that the wearer wants to express regardless of the frame.

[0029] Furthermore, the present invention has the following advantages: the wearer can arbitrarily select and change the color or pattern of the main parts of the glasses, i.e., the temples, bridge, glasses frame, and glasses lenses, using a pair of glasses, and can also display various functions of the glasses lenses. In particular, the micro-LED display housing can be applied only to the glasses lenses, or to both the glasses lenses and the glasses frames, and the overall color or display pattern of the glasses lenses or glasses frames can be instantly changed, and the glasses lenses can be used as eyesight protection during the day or at night, and can be used as eyesight protection functions or pinhole glasses (pinhole glasses) and other pinhole effect vision correction according to the surrounding environment such as roads or seasides, snow and frost. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] Figure 1 A separated plan cross-sectional view of a lens connecting head and a bridge portion for magnetically fixing an adjustable eyeglass lens according to a first embodiment of the present invention;

[0031] Figure 2 for Figure 1 Separated three-dimensional composition diagram;

[0032] Figure 3 FIG. 1 is a diagram showing an example of deformation of the eyeglass lens according to the first embodiment of the present invention;

[0033] Figure 4 for Figure 2 A side cross-sectional view of a fashion pair of glasses with magnetically secured eyeglass lenses is shown in FIG.

[0034] Figure 5 for Figure 3 A side cross-sectional view of a fashion pair of glasses with magnetically secured eyeglass lenses is shown in FIG.

[0035] Figure 6 A separated plan cross-sectional view of a lens connecting head and a bridge portion for magnetically fixing the eyeglass lens according to the first embodiment of the present invention;

[0036] Figure 7 The accompanying drawings are for explaining the transparent micro-LED display housing formed on the outer surface of the fashion glasses according to the present invention;

[0037] Figure 8This is a diagram showing an example of the structure of a transparent micro-LED display housing that applies the present invention to an embodiment;

[0038] Fig. 9 A photo of a driving example of a transparent micro-LED display housing applicable to the present invention;

[0039] Fig.10 A circuit block diagram of a main body control unit built into the temple of adjustable glasses according to the present invention;

[0040] Fig.11 A circuit block diagram of a remote slave system formed by the eyeglass lenses and the lens connection head of the self-adjusting eyeglasses according to the first embodiment of the present invention;

[0041] Fig.12 A diagram showing a control structure for changing the pattern and color of glasses between another pair of self-adjustable glasses and a smart phone according to the present invention;

[0042] Fig.13 is a three-dimensional diagram of the half-frame glasses applicable to the second embodiment of the present invention;

[0043] Fig.14 A three-dimensional diagram of the self-adjusting glasses according to the third embodiment of the present invention;

[0044] Fig.15 for Fig.14 The main part of the three-dimensional image is separated;

[0045] Fig.16 for Fig.14 A longitudinal section diagram of the lens connected to the head;

[0046] Fig.17 A planar cross-sectional view of a lens connecting head and a bridge portion in a self-adjusting eyeglass according to a third embodiment of the present invention;

[0047] Fig.18 A three-dimensional diagram of the self-adjusting glasses according to the fourth embodiment of the present invention;

[0048] Fig.19 for Fig.18 The main part of the three-dimensional image is separated;

[0049] Fig. 20 for Fig.18 A longitudinal section diagram of the lens connected to the head;

[0050] Fig.21 A partial plan cross-sectional view of the lens connecting head and bridge portion in the self-adjusting glasses according to the fourth embodiment of the present invention;

[0051] Fig. 22A combined three-dimensional diagram of the self-adjusting glasses according to the fifth embodiment of the present invention;

[0052] Fig.23 A perspective view of the main parts of the self-adjusting glasses according to the fifth embodiment of the present invention;

[0053] Fig.24 A longitudinal cross-sectional view of a lens connection head of self-adjusting glasses according to a fifth embodiment of the present invention;

[0054] Fig.25 A partial planar cross-sectional view of the self-adjusting eyeglasses according to the fifth embodiment of the present invention, showing the connection head and the bridge portion of the lens;

[0055] Fig.26 is a planar cross-sectional view of the entirety of the self-adjusting glasses according to the fifth embodiment of the present invention;

[0056] Fig. 27 A combined three-dimensional diagram of the self-adjusting glasses according to the sixth embodiment of the present invention;

[0057] Fig.28 for Fig. 27 Separated three-dimensional composition diagram;

[0058] Fig.29 FIG. 6 is a diagram showing a deformation example of a spectacle lens according to a sixth embodiment of the present invention;

[0059] Fig.30 For the general Fig. 27 A side cross-sectional view of self-adjusting eyeglasses with magnetically secured eyeglass lenses;

[0060] Fig.31 In the seventh embodiment of the present invention, Fig.29 A side cross-sectional view of self-adjusting eyeglasses with magnetically secured eyeglass lenses;

[0061] Fig.32 A partial plan cross-sectional view of the lens connecting head and the bridge portion in the self-adjusting glasses according to the sixth embodiment of the present invention;

[0062] Fig.33 This is a modified example of the fourth embodiment of the present invention, which is an example configuration diagram applicable to half-frame glasses or full-frame glasses;

[0063] Fig.34 A perspective view of the separated structure of the self-adjusting glasses according to the seventh embodiment of the present invention;

[0064] Fig.35 A combined three-dimensional diagram of the self-adjusting glasses according to the eighth embodiment of the present invention;

[0065] Fig.36An enlarged three-dimensional diagram of the self-adjusting glasses according to the eighth embodiment of the present invention;

[0066] Fig.37 for Fig.36 Separated three-dimensional composition diagram;

[0067] Fig.38 For Fig.36 A cross-sectional diagram of the self-adjusting glasses shown in FIG.

[0068] Fig.39 A longitudinal cross-sectional view of a lens connection head of the self-adjusting glasses according to an eighth embodiment of the present invention;

[0069] Fig.40 A partial planar cross-sectional view of the separated structure of the lens connecting head and the bridge portion in the self-adjusting glasses according to the eighth embodiment of the present invention;

[0070] Fig.41 A diagram for explaining the self-adjusting micro-LED glasses according to the eighth embodiment of the present invention, in which a transparent micro-LED display housing is covered on the outer surface of the lens;

[0071] Fig.42 A circuit block diagram of a main body control unit built into the temple of self-adjusting glasses according to an eighth embodiment of the present invention;

[0072] Fig.43 A circuit block diagram of a remote slave system formed in the eyeglass lenses of self-adjusting glasses according to an eighth embodiment of the present invention;

[0073] Fig.44 A schematic diagram of remote control of lens design and color change between self-adjustable glasses and a smartphone according to an eighth embodiment of the present invention;

[0074] Fig.45 This is a diagram showing an example of the configuration of self-adjusting glasses in a state where the color similar to that of sunglasses is applied according to the eighth embodiment of the present invention;

[0075] Fig.46 An exemplary configuration diagram of self-adjusting glasses that display the state of the glasses frame on the glasses lens according to the eighth embodiment of the present invention;

[0076] Fig.47 This is a diagram showing an example of the structure of self-adjusting glasses that display a wearer's favorite graphics on the glasses lens according to the eighth embodiment of the present invention;

[0077] Fig.48 This is an exemplary structural diagram of self-adjusting glasses for use as pin-hole glasses and other vision correction functions according to the eighth embodiment of the present invention;

[0078] Fig.49 An exemplary configuration diagram of self-adjusting glasses using a cover lens coated with a transparent micro-LED display housing according to an eighth embodiment of the present invention;

[0079] Fig.50 A combined three-dimensional diagram of the self-adjusting glasses according to the ninth embodiment of the present invention;

[0080] Fig.51 for Fig.50 Separated three-dimensional composition diagram;

[0081] Fig.52 A cross-sectional view of self-adjusting glasses according to a ninth embodiment of the present invention;

[0082] Fig.53 This is a separated three-dimensional diagram of the self-adjusting glasses according to the tenth embodiment of the present invention. DETAILED DESCRIPTION

[0083] In the present invention, the wearer's feeling is greatly different according to the minute difference of the glasses, so the present invention enables the wearer to set the glasses that conform to the current fashion or surrounding atmosphere through the wearer's own creative design, and presents various glasses designs that conform to the current popular trends. That is, the present invention is not limited by time or place, and can change the style, form or color of the glasses frame, glasses leg, glasses lens, etc. into a new glasses form and wear them in a very short time. The glasses frame or glasses leg can not only be simply painted with colors, but also change the middle color, pattern or chromaticity, etc., thereby providing a new concept glasses with a glasses form that has not yet been born, and can obtain functions and effects that conform to the wearer's conditions. In addition, the wearer can arbitrarily demonstrate the creation of the design, making it a unique fashion glasses in the world, thereby changing the concept of self-adjusting glasses epoch-making and receiving great praise from consumers.

[0084] To this end, the present invention can separate and assemble the components of glasses, change the color or pattern, and provide self-adjusting glasses in which the main part of the glasses exposed to the outside is covered by a transparent micro-LED display housing.

[0085] Figure 1 FIG. 2 is a combined three-dimensional diagram of the self-adjusting glasses 2 according to the first embodiment of the present invention. Figure 2 for Figure 1 The separated three-dimensional structure diagram of . And, Figure 6 It is a separated plan cross-sectional view of the lens connecting head 6 and the bridge portion 10 for magnetically fixing the eyeglass lens 12 according to the first embodiment of the present invention.

[0086] Figure 1 and Figure 2The self-adjusting glasses 2 according to the first embodiment of the present invention shown in FIG. 1 are self-adjusting frameless glasses in the form of detachable assembly type. Figure 1 to Figure 2 The self-adjustable glasses 2 of the present invention shown in the first embodiment are not formed with a frame, but are connected by magnetic force, and are formed by the following structure: left and right temples 4; left and right lens connecting heads 6 connected to the left and right temples 4 by hinges; a bridge portion 10 having a nose pad 8 and connecting the left and right lenses 12 together; a pair of lenses 12, and each part can be separated and assembled and fixed by magnetic force.

[0087] The left and right side walls of the bridge portion 10 are formed with magnetic attachment grooves 14 for inserting the eyeglass lenses 12 and fixing them by magnetic attachment, and a magnet 15 is fixedly built into the inner wall of the magnetic attachment groove 14. In addition, the inner side walls of the left and right lens connecting heads 6 hingedly connected to the temples 4 are inserted into the outer contours of the left and right eyeglass lenses 12, and have magnetic attachment grooves 16 that can be fixed by magnetic attachment, and a magnet 17 is fixedly built into the inner wall of the magnetic attachment groove 16.

[0088] exist Figure 2 In the example, the magnets 15 and 17 are built into one side inner wall of the magnetic attachment groove 14 and 16, but they may be built into the inner walls of the front and rear sides of the magnetic attachment groove 14 and 16, or may be built into the deep inner wall of the magnetic attachment groove 14 and 16. Furthermore, the magnets 15 and 17 may be formed in the form of magnet sheets, and if the bridge 10 or the lens connection head 6 is formed of a resin material, the magnet powder may be mixed into the resin.

[0089] Figure 2 The magnet 17 is built into the inner wall of the magnetic attachment groove 17 of the left and right lens connection heads 6. The magnet 17 is built into the inner wall of one side and the deep inner wall of the magnetic attachment groove 17 (refer to Figure 6 ), however, it should be understood that the front inner wall portion of the magnetic attachment groove portion 14 can also be used as needed.

[0090] The magnetic attachment groove 16 of the lens connecting head 6 and the magnetic attachment groove 14 of the bridge portion 10 can magnetically attach the left and right end portions of the left and right lenses 12 without the support of the eyeglass frame. To this end, a magnetic component 18 for magnetic attachment is formed on the left and right end portions of each lens 12 as in the present invention.

[0091] Figure 2 The figure shows the magnetic member 18, namely the transparent magnetic film 18a, formed on the left and right end portions of the left and right eyeglass lenses 12, which is formed in a strip shape extending from top to bottom.

[0092] Figure 2The magnetic component 18 shown in the figure is formed into a strip shape by extending up and down, and the transparent magnetic film 18a formed by coating is a cobalt-doped titanium dioxide (CO:TiO2) film with a cobalt atomic percentage of % having the properties of a titanium dioxide (TiO2) dp magnet. The cobalt-doped titanium dioxide (CO:TiO2) film not only does not lose its magnetic properties at room temperature but also at high temperatures, and has the property of being almost transparent to visible light. The transparent magnetic film 18a formed by the cobalt-doped titanium dioxide (CO:TiO2) film is a strong magnet at room temperature.

[0093] Figure 3 The magnetic member 18 formed at the left and right ends of each of the left and right eyeglass lenses 12 is shown as a plurality of magnetic pieces 18b such as arranged magnets or iron cores extending vertically.

[0094] The self-adjusting eyeglasses 2 of the present invention constructed as described above can be assembled by inserting the eyeglasses 12 between the lens connecting head 6 of the eyeglass temple 4 and the bridge 10 by means of magnetic force and then attaching and fixing them even if the eyeglasses frame is not formed.

[0095] Figure 6 a shows a plane cross-sectional state in which the eyeglass lens 12 is inserted into the magnetic attachment groove 16 formed in the lens connection head 6 of the eyeglass leg 4 and is fixed by magnetic force. Figure 6 b shows a plane cross-sectional state in which the eyeglass lens 12 is inserted into the magnetic attachment groove portion 14 formed in the bridge portion 10 and is fixed by magnetic force.

[0096] Figure 4 Indicated in Figure 2 The side cross-sectional view of the self-adjusting glasses 2 in which the transparent magnetic film 18a of the eyeglass lens 12 is magnetically fixed by the magnet 17 built into the inner wall of the magnetic attachment groove 16 of the lens connecting head 6, Figure 5 Indicated in Figure 3 The figure is a side cross-sectional view of the self-adjusting eyeglasses 2 in which the magnetic piece 18b of the eyeglass lens 12 is magnetically fixed by the magnet 17 built into the inner wall of the magnetic attachment groove portion 16 of the lens connecting head 6.

[0097] Reference Figures 1 to 6 In the first embodiment of the present invention described above, the magnetic attachment structure using the magnetic attachment groove 16 and the magnetic member 18 formed on the eyeglass lens 12 is described, and as a modified example, referring to Figures 14 to 17 In the third embodiment of the present invention described above, the magnetic member 18 is not formed on the eyeglass lens 12, but the magnetic adhesion is achieved by using two magnets.

[0098] Figures 14 to 17 The self-adjusting glasses 2 according to the third and fourth embodiments of the present invention are: Fig.14FIG. 2 is a three-dimensional diagram of the self-adjusting glasses 2 according to the third embodiment of the present invention. Fig.15 for Fig.14 The main parts of the three-dimensional diagram are separated. Fig.16 for Fig.14 The longitudinal section of the lens connecting head 6 is shown. Fig.17 This is a planar cross-sectional view of the lens connecting head 6 and the bridge portion 10 in the self-adjusting eyeglasses 2 according to the third embodiment of the present invention.

[0099] The eyeglasses 12 of the self-adjusting eyeglasses 2 according to the third embodiment of the present invention are Figures 1 to 6 Differently, the magnetic component 18 is not formed. However, the magnetic force attachment groove 16 is not formed in the lens connection head 6, and a head magnet fixing component 6a having a magnet 17 is additionally provided, and the magnetic force attachment groove 14 is not formed in the bridge portion 10, and a bridge magnet fixing component 10a having a magnet 15 is additionally provided.

[0100] The head magnet fixing component 6a and the bridge magnet fixing component 10a are independent and there is a risk of loss. Therefore, they are connected to the corresponding lens connecting head 6 and the corresponding bridge part 10 by means of an elastic or inelastic connecting rope 62 as needed.

[0101] Therefore, according to the self-adjusting glasses 2 of the third embodiment of the present invention, one side edge of each lens 12 is supported and fixed by the magnetic attraction (magnetic force) of the magnet 17 built into the lens connecting head 6 and the magnet 17 of the head magnet fixing component 6a, and the other side edge of each lens 12 is supported and fixed by the magnetic attraction (magnetic force) of the magnet 15 built into the bridge part 10 and the magnet 15 of the bridge magnet fixing component 10a.

[0102] As reference Figures 1 to 6 As illustrated in the accompanying drawings, after the lens 12 of the self-adjusting glasses 2 of the present invention is inserted between the lens connecting head 6 and the bridge part 10 of the glasses leg 4 and fixed by means of magnetic force, the wearer can adjust the upper and lower heights of the lens 12 according to his or her own preferences.

[0103] The above-mentioned eyeglass lenses 12 are in a state of being freely detachable from the eyeglass frame, and therefore, the design forms or styles of the eyeglass lenses can be formed differently. In the present invention, the eyeglass lenses 12 that suit one's own personality or surrounding environment or situation can be freely selected according to the individual. Moreover, the left and right lenses can be designed in the same form, size, and color, but can also be designed differently so as to be connected, assembled, and disassembled.

[0104] Furthermore, as the main parts constituting the self-adjusting glasses 2 of the present invention, in order to allow the wearer to freely express colors, patterns, or designs on the temples 4, the lens connecting head 6, the bridge 10, and even the outer periphery of the lens 12 (especially, the upper and lower outer peripheries), such as Figure 7 As shown, a transparent micro-LED display housing 20 is coated on the surface portion exposed to the outside.

[0105] Figure 7 In order to illustrate the state in which a transparent micro-LED display housing 20 is coated on the outer surface of the self-adjusting glasses according to the present invention, for example, the transparent micro-LED display housing 20 is coated on the outer surface portions (side and top) of the left and right temples 4, the outer surface (front and top) of the left and right lens connecting heads 6, the outer surface (front and top) of the bridge portion 10, and the outer periphery (especially, the upper and lower outer periphery) of the left and right lenses 12.

[0106] The eyeglass lenses 12 according to the present invention can be easily separated independently, so the lens size can be arbitrarily selected. The left and right lenses formed with a transparent micro-LED display housing 20 are connected to the left and right eyeglass legs 4 or the bridge portion 10 of the head 6, and can also be formed in different designs or colors and patterns.

[0107] A micro-LED display is a display in which ultra-micro LED particles of 5 to 100 um (100,000th of a cm) are bonded to a substrate (a transparent substrate in the present invention). It is suitable for displaying a flexible and rollable screen by using the LED chip itself as a pixel. In addition, compared with OLED, it consumes very little power and can be used for a long time. In addition, it is also superior in brightness, chromaticity, and power efficiency compared to previous OLDEs.

[0108] In the present invention, the above-mentioned micro-LED display is attached to cover the surface of the self-adjusting glasses 2, and a transparent substrate 22 having both transparency and flexibility is used. Therefore, even when the micro-LED display is not in operation, the inherent color of the self-adjusting glasses 2 can be displayed, and the pixels formed by the micro-LED chip, namely the micro-LED pixels 26, are also made to have maximum transparency.

[0109] The micro-LED display is formed by transplanting a semiconductor element layer 24 having numerous micro-LED pixels 26 onto a transparent substrate 22 by a micro-transfer method. At this time, when the transfer technology is performed, preferably, a roller transfer technology can be used to transfer and attach more than 10,000 micro-LED pixels 26 to the transparent substrate 22 per second.

[0110] After preparing the micro-LED pixels 26 on a native substrate, they are transferred onto the transparent substrate 22 , and then the native substrate and unnecessary portions are removed.

[0111] In the embodiment of the present invention, the transparent substrate 22 is transparent and / or flexible. The transparent substrate 22 has a thickness selected from the range of 5-10 um, 5-50 um, 50-100 um, 100-200 um, 200-500 um, 0.5-1 mm, 1-5 mm, and 5-10 mm.

[0112] Figure 8 The transparent micro-LED display housing 20 is a structural diagram applicable to an embodiment of the present invention, in which a semiconductor element layer 24 having micro-LED pixels 26 is attached to a transparent substrate 22 having both transparency and flexibility.

[0113] Figure 8 The micro-LED pixel 26 of the semiconductor element layer 24 is composed of an anode layer 31, a transparent conductive layer 32, a transparent p-electrode layer 34, a p-GaN layer 36, an active layer 38, an n-Gan layer 40 and an upper transparent n-electrode layer 42, and a transparent insulating layer 44 is formed between each micro-LED pixel 26. Each micro-LED pixel 26 formed in the semiconductor element layer 24 is a pn junction diode layer, which is a compound semiconductor having a band gap corresponding to a specific region in the spectrum. In the example of the present invention, it is formed of gallium nitride (GaN), which is a representative example of a III-V group nitride material.

[0114] The transparent p-electrode layer 34 is used to supply power, and is formed of an oxide including Al, Ga, Ag, Sn, In, Zn, Co, Ni, and Au with a transmittance of 70% or more, and the anode layer 90 becomes a wiring pattern or a concave-convex conductive adhesive layer, and the transparent n-electrode layer 42 has conductivity. The anode layer 31 can be selected from the group of silver and nickel that have reflectivity for the visible spectrum, and forms a potential reflector layer.

[0115] Furthermore, the present invention configures three elements, namely, micro-LED panels, of red, green and blue, so that the transparent micro-LED display housing 20 can display in full color.

[0116] Fig. 9 This is a photo of an example of driving a transparent micro-LED display housing 20 suitable for the present invention. The transparent micro-LED display housing 20 is transparent and is formed on the bottom surface of the main body of each part [glasses temple 14, glasses 12, bridge 10, lens connecting head 6, etc.] of the self-adjusting glasses 2, or displays a projected color or a pattern including text or fonts.

[0117] Furthermore, in the present invention, the entire surface of the eyeglass lens 12 is also the same as in Figure 35 to Figure 53 The embodiment shown in the figure is attached with a transparent micro-LED display housing 20, and as Figure 2 and Figure 3 As shown, the transparent micro-LED display housing 20 may be attached to only the outer periphery of the eyeglass lens 12 .

[0118] as Figures 2 to 3 As shown, the transparent micro-LED display housing 20 is attached only to the outer periphery of the lens 12. Therefore, if the transparent micro-LED display housing 20 of the lens 12 is not in operation, only the lens 12 can be seen, and a frameless state is displayed. If the transparent micro-LED display housing 20 on the upper outer periphery side of the lens 12 is in operation, a half-frame feeling can be displayed through the lens 12. If the transparent micro-LED display housing 20 on the upper and lower outer periphery sides of the lens 12 are both in operation, a full-frame feeling (like a feeling of having a frame of glasses) can also be displayed through the lens 12.

[0119] Furthermore, the eyeglasses 12 of the present invention are frameless eyeglasses, and can also be provided with assembled eyeglass frames.

[0120] The self-adjusting glasses 2 of the present invention have built-in circuits in various parts for operating the transparent micro-LED display housing 20 installed in various parts of the glasses.

[0121] Fig.10 is a circuit block diagram of a main body control unit 30 built into the temple 4 of the self-adjusting glasses 2 according to the present invention, Fig.11 FIG. 1 is a circuit block diagram of a remote slave system 50 formed on the eyeglass lens 12 of the self-adjusting eyeglasses 2 and the lens connection head 6 according to the present invention.

[0122] Reference Fig.10 The temple 4 of the self-adjusting glasses 2 is provided with a power switch 32 as the main control unit 30 of the present invention and a power switch 36 and a battery 38 of a charging port 34 for charging a built-in battery via a USB cable, and a power wireless supply unit 40 having a wireless cable for wirelessly supplying power to the lens connection head 6 and the eyeglass lens 12. Fig.12 60) also has a function for connecting to external devices or Fig.11 The remote control unit 54 of the self-adjusting glasses 2 may include a short-distance wireless communication unit 42 for performing short-distance wireless communication and a main control unit 44 for performing control for displaying the color and pattern of the glasses. In addition, an energy collection unit 46 for generating energy itself and a light detection unit 48 for detecting the external brightness of the self-adjusting glasses 2 may also be formed.

[0123] Preferably, the IC chip of the main control unit 44 built into the temple 4 of the present invention is an application specific integrated circuit (ASIC), and, as an example of the radio and energy collection unit 46, is controlled so that energy can be supplied by solar cells (photovoltaic).

[0124] Reference Fig.11 A remote slave system 50 for the lens connection head 6 or the eyeglass lens 12 for wirelessly receiving power supplied from the eyeglass leg 4 is formed with a radio antenna 52, and a remote control unit 54 in the form of an IC chip for driving and controlling the corresponding transparent micro-LED display housing 20 is formed, and a remote transceiver unit 60 is provided for ultra-close-range remote transmission and reception with the main control unit 30.

[0125] Furthermore, the remote slave system 50 may be provided with an energy collection unit 56 for generating energy, and a light detection unit 58 for detecting the external brightness of the self-adjusting glasses 2 .

[0126] The IC (integrated circuit) of the remote control unit 54 can be formed by using complementary metal-oxide semiconductor (CMOS) to form an integrated circuit of micrometer unit. The maximum area of ​​the IC chip is 1mm×1mm, and the maximum thickness is 0.5mm.

[0127] The power generated by the resonance phenomenon in the radio coil of the power wireless supply unit 40 formed in the temple 4 of the self-adjusting glasses 2 is received by the radio antenna 52 of the lens 12 or the lens connecting head 6, and the power received by controlling the remote control unit 54 is used to drive the transparent micro-LED display housing 20 of the lens 12 and the lens connecting head 6.

[0128] The photodetectors 48 formed on the lens connection head 6, the eyeglasses 12, and the eyeglass legs 4 respectively sense the amount of external light supplied to the self-adjusting glasses 2, and supply the light to the corresponding main control unit 44 or the remote control unit 54. The corresponding main control unit 44 or the remote control unit 54 controls the brightness of the display of the transparent micro-LED display housing 20 according to the amount of light. The brightness of the transparent micro-LED display housing 20 can also be automatically adjusted according to the day and night around the self-adjusting glasses 2.

[0129] The eyeglass lens 12 according to the present invention receives radio based on the concept of transmitting resonant energy through a vibrating magnetic field, and transmits information of various parts of the eyeglass lens 12 to the eyeglass body control unit 30 or the smart phone 60 through wireless transmission and reception.

[0130] Fig.10 or Fig.11 The energy collection unit 46, 56 is a component that collects surrounding energy and can generate electricity without receiving additional battery power and supply it to various internal parts. The energy collection unit 46, 56 can be composed of one or a combination of photoelectric elements, thermoelectric elements, piezoelectric elements and radio conversion elements.

[0131] Therefore, the self-adjusting glasses 2 of the present invention can express various glasses designs that conform to the current trend, and express the color and design of the glasses by using the transparent micro-LED display housing 20. The self-adjusting glasses 2 are not simply painted with colors, but are regularly interrupted in the middle to express different saturations and change patterns to create fashionable glasses patterns.

[0132] Fig.12 A diagram showing a structure for controlling the change of glasses pattern and color between the self-adjusting glasses 2 and the smartphone 60 according to the present invention.

[0133] In the present invention, the self-adjustable glasses 2 are wirelessly connected to the smartphone 60 using short-range wireless communication methods such as Bluetooth communication, WIFI communication, NFC communication, and IR communication, and the design and color mobile application of the self-adjustable glasses 2 downloaded on the smartphone 60 is driven according to the present invention, and the color and design of the self-adjustable glasses 2 are displayed based on the control of the design and color.

[0134] Although the first embodiment of the present invention described above is applicable to the assembly type, it can also be applied to Fig.13 Half frame glasses 200.

[0135] Fig.13 The present invention is applicable to a three-dimensional structure diagram of a half-frame glasses 200 according to the second embodiment of the present invention. The glasses frame 202 of the half-frame glasses 200 is provided with a lens 12 detachably fixed thereto by magnetic means, and a transparent micro-LED display housing 20 is formed on the glasses leg 4, the glasses frame 202 and the lens 12, and the glasses are operated by the above-mentioned method.

[0136] exist Figures 18 to 24 The drawings shown in the figure are related to the fourth to seventh embodiments of the present invention, which are related to the self-adjusting glasses 2 without the transparent micro-LED display housing 20.

[0137] Figures 18 to 24 The fourth to seventh embodiments of the present invention shown in the figure can express a form in which the color or pattern can be changed by separating and assembling the eyeglass components, and the outer frame of the eyeglass lens can be added in the assembled form as needed.

[0138] Fig.18 FIG. 2 is a three-dimensional diagram of the self-adjusting glasses 2 according to the fourth embodiment of the present invention. Fig.19 for Fig.18 The main part of the three-dimensional diagram is separated. Fig. 20 for Fig.18 The longitudinal section of the lens connecting head 6 is shown. Fig.21 FIG. 1 is a planar cross-sectional view (a) of the lens connecting head 6 and a partial planar cross-sectional view (b) of the bridge portion 10 in the self-adjusting eyeglasses 2 according to the fourth embodiment of the present invention.

[0139] and, Figure 22 to Figure 26 Regarding the configuration of the fifth embodiment of the present invention, Figures 18 to 21 For the construction of the sixth embodiment of the present invention, Figures 18 to 23 An example of a variation of the fourth embodiment of the present invention.

[0140] The basic form of the self-adjusting glasses 2 according to the fourth to sixth embodiments of the present invention is a self-adjusting frameless glasses form that can be assembled and separated. In addition, as a modified embodiment, self-adjusting glasses with glasses frames can also be applied (about Fig.33 and Fig.34 ).

[0141] Figure 18 to Figure 19 The self-adjustable glasses 2 of the present invention shown in the fourth embodiment are in a form where a frame of glasses is not formed but connected by magnetic force, and include: left and right glasses legs 4, left and right lens connecting heads 6 hingedly connected to the left and right glasses legs 4, a bridge portion 10 having a nose pad 8 and connecting the left and right glasses lenses 12 together, and a pair of glasses lenses 12, each of which is separable and fixed by magnetic assembly.

[0142] As in Figures 18 to 21 As shown in the figure, the lens connecting head 6 with a built-in magnet 17 is additionally formed with a head magnet fixing component 6a with a built-in magnet 17, which forms a pair with the lens connecting head 6, and the bridge part 10 with a built-in magnet 15 is additionally formed with a bridge magnet fixing component 10a with a built-in magnet 15, which forms a pair with the bridge part 10.

[0143] The head magnet fixing part 6a and the bridge magnet fixing part 10a are independent forms, and are well attached and fixed to the built-in magnet 17 of the lens connecting head 6 or the magnet 15 of the bridge part 10 by magnetic force. However, in order to prevent the case of loss, as needed, Fig.19 and Fig.21 As shown, it can be connected to the corresponding lens connecting head 6 and the corresponding bridge part 10 by means of an elastic or non-elastic connecting rope 62.

[0144] Therefore, according to the self-adjusting glasses 2 of the fourth embodiment of the present invention, one side edge of each lens 12 is supported and fixed by means of the magnetic attraction force generated between the magnet 17 built into the lens connecting head 6 and the magnet 17 of the head magnet fixing component 6a, and the other side edge of each lens 12 is supported and fixed by means of the magnetic attraction (magnetic force) of the magnet 15 built into the bridge part 10 and the magnet 15 of the bridge magnet fixing component 10a.

[0145] Furthermore, the edge of the eyeglass lens 12 of the fourth embodiment of the present invention does not require any magnetic piece (iron core, etc.) that can be attached to the magnet, and can also be additionally formed with a scratch-resistant and fingerprint-resistant coating.

[0146] As another example of the scratch resistance of the edge of the eyeglass lens 12 according to the fourth embodiment of the present invention, an anti-scratch coating made of a material such as polyurethane may be formed on the inner surface of the lens connecting head 6 and the head magnet fixing part 6a that are in contact with the eyeglass lens 12.

[0147] Furthermore, in the fourth embodiment of the present invention, magnetic attachment grooves 16 and 14 are formed on the lens connecting head 6 and the bridge portion 10, which are close to each other and accommodate and support the left and right lenses 12, so that attraction is generated by means of magnetic forces between the head magnet fixing component 6a and the bridge magnet fixing component 10a, and in order to facilitate integration between them, a stepped integration convex and concave portion 19 can also be formed.

[0148] exist Figures 18 to 21 In the self-adjustable eyeglasses 2 of the fifth embodiment of the present invention shown in the figure, the lens 12 is stably inserted between the lens connecting head 6 of the temple 4 and the bridge portion 10 by means of magnetic attachment grooves 16, 14 and integrated convex and concave portions 19, and is fixed by means of magnetic force, so that the wearer can adjust the upper and lower height positions of the lens 12 according to his or her own preferences.

[0149] Figure 22 to Figure 26 The fifth embodiment of the present invention does not form any Figures 18 to 21 A modified example of the integrated concave-convex portion 19 of the fourth embodiment of the present invention.

[0150] Fig. 22 FIG. 1 is a combined three-dimensional diagram of the self-adjusting glasses according to the fifth embodiment of the present invention. Fig.23 It is a perspective view of the main part of the self-adjusting glasses 2 according to the fifth embodiment of the present invention. Fig.24 FIG. 1 is a longitudinal sectional view of a lens connecting head 6 of a self-adjusting eyeglass 2 according to a fifth embodiment of the present invention. Fig.25FIG. 1 is a partial planar cross-sectional view of the lens connecting head 6 and the bridge 10 in the self-adjusting eyeglasses 2 according to the fifth embodiment of the present invention. Fig.26 FIG. 5 is a diagram showing the overall planar cross-sectional structure of self-adjusting glasses 2 according to the fifth embodiment of the present invention.

[0151] In the fifth embodiment of the present invention, Figure 22 to Figure 26 As shown, the lens connection head 6 with the built-in magnet 17 is additionally formed with a head magnet fixing part 6a with the built-in magnet 17, which forms a pair with the lens connection head 6, and the bridge part 10 with the built-in magnet 15 is additionally formed with a bridge magnet fixing part 10a with the built-in magnet 15, which forms a pair with the bridge part 10. In addition, the inner surfaces of the lens connection head 6 and the head magnet fixing part 6a are non-concave-convex structures [a flat shape without the integrated concave-convex part 10, a connection structure with the connection rope 62, and no magnetic attachment grooves 16, 14 during assembly are provided.

[0152] As described above, in the fifth embodiment of the present invention, the eyeglass lens 12 is freely detachable from the eyeglass frame and is also free from the magnetic attachment grooves 16 and 14. Therefore, the design form, style, and size of the eyeglass lens 12 can be changed as follows: Figure 22 to Figure 23 In the example shown, the left and right sides are designed differently.

[0153] Furthermore, the wearer can also arbitrarily set the fixing position on the eyeglass lens 12, namely, the magnetic fixing position between the lens connecting head 6 and the head magnet fixing component 6a, or the magnetic fixing position between the bridge portion 10 and the bridge magnet fixing component 10a. Fig. 22 The right spectacle lens 12 in the middle figure is different from the other spectacle lens 12 in that the edge close to the deep part of the lens is set as the magnetic fixing position.

[0154] In the above-mentioned present invention, the eyeglass lens 12 that suits one's personality or surrounding environment and conditions can be freely selected, and the left and right lenses can be designed to be the same in shape, size, and color, or different in design. In addition, it also has the advantages of being able to arbitrarily connect, assemble, and disassemble, and change the attachment position of the lens.

[0155] Fig. 27 This is a combined three-dimensional diagram of the self-adjusting glasses 2 according to the sixth embodiment of the present invention. Fig.28 for Fig. 27 The separated three-dimensional composition diagram, Fig.29 FIG. 1 is a diagram showing a deformation example of the eyeglass lens 12 according to the sixth embodiment of the present invention. Fig.30 For the Fig. 27 The side cross-sectional view of the self-adjusting glasses with the eyeglass lenses 12 magnetically fixed, Fig.31 In the seventh embodiment of the present invention, Fig.29A side cross-sectional view of self-adjusting glasses with the eyeglass lenses 12 magnetically fixed, Fig.32 FIG. 1 is a partial plan cross-sectional view of the lens connecting head 6 and the bridge portion 10 in the self-adjusting eyeglasses 2 according to the sixth embodiment of the present invention.

[0156] According to the self-adjusting eyeglasses 2 of the sixth embodiment of the present invention, magnetic attachment grooves 14 for inserting the outer contour of the eyeglasses 12 and fixing them by magnetic force are formed on the left and right side walls of the bridge portion 10, and magnets 15 are built-in and fixed to the inner wall of the magnetic attachment grooves 14. In addition, magnetic attachment grooves 16 for inserting the outer contour of the left and right eyeglasses 12 and fixing them by magnetic force are formed on the inner side walls of the left and right lens connecting heads 6 hingedly connected to the eyeglass temples 4, and magnets 17 are built-in and fixed to the inner wall of the magnetic attachment grooves 16.

[0157] exist Fig.28 and Figure 30 to Figure 31 In one example, although the magnets 15 and 17 are illustrated as being built into one side inner wall portion of the magnetic attachment groove portions 14 and 16, they may also be arranged in the front and rear side inner wall portions of the magnetic attachment groove portions 14 and 16, or may also be built into the deep side inner wall portions of the magnetic attachment groove portions 14 and 16.

[0158] Furthermore, the magnets 15 and 17 may also be in the form of magnet sheets. If the bridge portion 10 or the lens connecting head 6 is formed of a resin material, the resin and magnet powder may be mixed for application.

[0159] Fig.28 and Fig.30 In the example, the magnet 17 provided on the inner wall of the magnetic attachment groove 17 of the left and right lens connection head 6 is built into the inner wall of one side and the deep inner wall of the magnetic attachment groove 17 (refer to Fig.32 ), and, if necessary, it can also be arranged on the front inner wall portion of the magnetic attachment groove portion 14.

[0160] The magnetic attachment groove portion 16 of the lens connecting head 6 and the magnetic attachment groove portion 14 of the bridge portion 10 can magnetically attach the left and right side ends of each left and right lens 12 even without the support of the eyeglass frame. For this purpose, a magnetic component 18 for magnetic attachment similar to the present invention is formed on the left and right side ends of each lens 12.

[0161] Fig.28 The magnetic member 18, namely the transparent magnetic film 18a, formed on the left and right end portions of the left and right eyeglass lenses 12 is shown, and is formed in a strip shape from top to bottom.

[0162] exist Fig.28The magnetic component 18 shown in the figure is formed into a strip-shaped extension from top to bottom, and the transparent magnetic film 18a formed by coating can be a cobalt-doped titanium dioxide (CO:TiO2) film in which cobalt atoms having magnetic properties are added to titanium dioxide (TiO2) at a percentage (%) (less than 1-10%), and the cobalt-doped titanium dioxide (CO:TiO2) film does not lose its magnetic properties not only at room temperature but also at higher temperatures, and has the property of being almost transparent to visible light. The transparent magnetic film 18a formed by the cobalt-doped titanium dioxide (CO:TiO2) film is a strong magnet at room temperature.

[0163] Fig.29 The figure shows the magnetic component 18 formed at the left and right ends of each of the left and right eyeglass lenses 12, in which a plurality of magnetic pieces 18b such as magnets or iron cores are arranged and extended from top to bottom.

[0164] Fig.30 Indicated in Fig.28 The side cross-sectional view of the self-adjusting glasses 2 shown in the figure is magnetically fixed to the transparent magnetic film 18a of the eyeglass lens 12 and the magnet 17 built into the inner wall of the magnetic attachment groove 16 of the lens connecting head 6, Fig.31 Indicated in Fig.29 The figure is a side cross-sectional view of the self-adjusting eyeglasses 2 in which the magnetic piece 18b of the eyeglass lens 12 is magnetically fixed to the magnet 17 built into the inner wall of the magnetic adhesion groove portion 16 of the lens connecting head 6.

[0165] According to the self-adjusting glasses 2 of the sixth embodiment of the present invention constructed as described above, even if a glasses frame is not formed, the glasses 12 can be inserted between the lens connecting head 6 and the bridge part 10 of the glasses leg 4 by magnetic force and then attached and fixed to complete the assembly.

[0166] Fig.32 a represents a plane cross-sectional state where the eyeglass lens 12 is inserted into the magnetic attachment groove 16 formed on the lens connection head 6 of the eyeglass leg 4 and is magnetically fixed. Fig.32 Reference numeral b represents a plane cross-sectional state in which the eyeglass lens 12 is inserted into the magnetic attachment groove 14 formed in the bridge portion 10 and is magnetically fixed.

[0167] and Figures 27 to 32 The sixth embodiment of the present invention described together can achieve magnetic adhesion with the help of the magnetic member 18 formed in the magnetic adhesion groove 16 and the eyeglass lens 12.

[0168] and Figures 18 to 32 Attached Figure 1 The self-adjustable glasses 2 of the present invention as described above have a lens 12 inserted between the lens connecting head 6 and the bridge portion 10 of the temple 4 and fixed by magnetic attachment. The wearer can adjust the upper and lower height positions of the lens 12 according to his or her own preferences.

[0169] The above-mentioned eyeglass lens 12 is formed in a free state with the eyeglass frame, so the design shape or style of the eyeglass lens can be designed differently. The present invention has the following advantages: the eyeglass lens 12 that suits one's personality or surrounding environment or situation can be freely selected, and the left and right lenses can be designed with the same shape, size, and color, or can be designed differently, and can also be connected, assembled, and disassembled.

[0170] Furthermore, in the present invention, Fig.33 As shown, it can also be Fig.18 In the self-adjusting eyeglasses 2 shown, one or more of the upper part or the lower part of the eyeglass lens 12 is inserted into the assembly frames 204 and 206 to be formed in a half-frame form or a full-frame form.

[0171] As described above, the present invention can also respond to the current trend of making eyeglass frames without leaving any traces, and can also assemble eyeglass frames in the form of half-frames or full-frames as decorations as needed.

[0172] Furthermore, in the above-mentioned embodiment of the present invention formed without the transparent micro-LED display housing 20, although the assembly method between the temple 4, the lens 12 and the bridge 10 is applied, it can also be similar to Fig.34 The self-adjustable glasses 2 of the seventh embodiment of the present invention shown in the figure are formed with left and right half-divided glasses frames 210 connected to the glasses legs 4, and a truncation surface is formed at the bridge portion, and magnets 212 are built into the half-divided bridge truncation wall surfaces so as to be magnetically attached to each other, and the glasses lenses 12 are attached and fixed by means of the magnetic forces of the respective insertion grooves of the left and right half-divided glasses frames 210.

[0173] As a specific example of forming a spectacle frame, in the seventh embodiment of the present invention, a left and right half-divided spectacle frame 210 is formed, a truncated surface is formed in the bridge portion, and magnets 212 are respectively built into the left and right half-divided bridge truncated wall surfaces. In addition, a magnetic component 18 is selectively formed on the outer periphery of the spectacle lens 12, and an additional magnet 17 is built into the insertion groove of the spectacle lens 12 of the half-divided spectacle frame 210, and is attached and fixed by means of magnetic force. In addition, as needed, a lower assembly frame 206 that is magnetically attached by the half-divided spectacle frame 210 and the magnet 214 can also be formed.

[0174] The self-adjusting glasses of the present invention described above can be stored in a glasses storage box that occupies a significantly smaller space than ordinary glasses, and therefore, also has the advantage of being easy to store and carry.

[0175] Figure 35 to Figure 53 The eighth to tenth embodiments of the present invention are structured such that a transparent micro-LED display housing 20 is covered on a lens 12 .

[0176] like Figure 35 to Figure 53 As shown, in the 8th to 10th embodiments of the present invention, a transparent micro-LED display housing 20 is applied, so that various patterns and colors can be formed on the lens 12 by utilizing the transparent micro-LED display housing 20, thereby forming a glasses form that has not yet been born, and obtaining a new concept of glasses with functions and effects that suit the wearer's condition.

[0177] Furthermore, the wearer can freely design and create on the eyeglass lens 12, change the color and pattern, and provide a unique self-adjusting eyeglass, which goes beyond the previous concept of eyeglasses and provides a new concept of eyeglasses.

[0178] Fig.35 This is a combined three-dimensional diagram of the self-adjusting glasses 2 according to the eighth embodiment of the present invention. Fig.36 This is an enlarged three-dimensional diagram of the self-adjusting glasses 2 according to the eighth embodiment of the present invention. Fig.37 for Fig.36 Separated three-dimensional composition diagram.

[0179] and, Fig.38 for Fig.36 The cross-sectional structure diagram of the self-adjusting glasses 2 shown in FIG. Fig.39 This is a longitudinal cross-sectional view of the lens connection head 6 of the self-adjusting glasses 2 according to the eighth embodiment of the present invention. Fig.40 This is a partial planar cross-sectional view of the separated structure of the lens connecting head 6 and the bridge portion 10 in the self-adjusting eyeglasses 2 according to the eighth embodiment of the present invention.

[0180] Figures 35 to 40 The self-adjusting glasses 2 of the eighth embodiment of the present invention shown in the figure are in the form of detachable assembled self-adjusting frameless glasses, and are formed by covering the eyeglass lenses 12 with a transparent micro-LED display housing 20 .

[0181] That is, in Figures 35 to 40 The self-adjustable glasses 2 of the present invention shown in the figure as an example are in a form where a frame of glasses is not formed but connected by magnetic force. They are composed of left and right glasses legs 4, left and right lens connecting heads 6 hingedly connected to the left and right glasses legs 4, a nose pad 8, a bridge part 10 connecting the left and right glasses lenses 12, and a pair of glasses lenses 12. Each part can be separated and assembled and fixed with the help of magnetic force.

[0182] like Figures 35 to 38 As shown, the lens connecting head 6 having a built-in magnet 17 is additionally provided with a head magnet fixing component 6a having a built-in magnet 17, which forms a pair with the lens connecting head 6, and the bridge portion 10 having a built-in magnet 15 is additionally provided with a bridge magnet fixing component 10a having a built-in magnet 15, which forms a pair with the bridge portion 10.

[0183] The head magnet fixing component 6a and the bridge magnet fixing component 10a connected to the eyeglass leg 4 are respectively independent forms, and are well attached and fixed to the built-in magnet 17 of the head 6 or the magnet 15 of the bridge part 10 to form a pair of lenses through magnetic force. However, in order to prevent any unexpected situations, they can also be connected by elastic or inelastic connecting ropes as needed.

[0184] According to the self-adjusting glasses 2 of the preferred embodiment of the present invention described above, one side edge of each lens 12 is supported and fixed by means of the magnetic force acting between the magnet 17 built into the lens connecting head 6 and the magnet 17 of the head magnet fixing component 6a, and the other side edge of each lens 12 is supported and fixed by means of the magnetic force acting between the magnet 15 built into the bridge part 10 and the magnet 15 of the bridge magnet fixing component 10a.

[0185] In a preferred embodiment of the present invention, the lens connecting head 6 and the eyeglass lens 12 and the bridge portion 10 and the eyeglass lens 12 are fixed and supported by magnetic force. However, in addition to being supported and fixed by magnetic force, support and fixation can also be performed by means of an inserted fixing structure or a hanging fixing structure.

[0186] The eyeglass lens 12 may be made of glass, but is preferably made of plastic. A scratch-resistant and fingerprint-resistant coating may be formed on the surface, or a hard coating may be formed to improve the scratch resistance.

[0187] Furthermore, according to the eighth embodiment of the present invention, in order to make the magnetic fixing structure on the edge of the lens 12 scratch-resistant, the contact inner surface of the lens connecting head 6 and the contact inner surface of the head magnet fixing component 6a or the contact inner surface of the bridge portion 10 and the contact inner surface of the bridge magnet fixing component 10a that are in contact with the lens 12 may also be additionally formed with an anti-scratch covering layer such as polyurethane.

[0188] In the self-adjustable glasses 2 of the present invention, after the lens 12 is located between the lens connecting head 6 and the bridge portion 10 of the glasses leg 4 and fixed by magnetic attachment, the wearer can adjust the upper and lower height positions of the lens 12 according to his or her own preferences.

[0189] The above-mentioned eyeglass lens 12 is in a free state with the eyeglass frame, so the design shape or style of the eyeglass lens can be designed differently. In the present invention, the eyeglass lens 12 that suits one's personality, surroundings or conditions can be freely selected. The left and right lenses can be formed in the same shape or size, or can be formed differently, and can be connected, assembled and released.

[0190] That is, the eyeglass lens 12 is freely attachable to and detachable from the eyeglass frame, and is also free from the magnetically attached grooves 16 and 14. Figure 36 to Figure 37 As shown in the example, the design form, style, and size of the eyeglass lens 12 can be formed differently. Fig.38 In the example, the wearer can arbitrarily set the fixing position on the eyeglass lens 12, that is, the magnetic fixing position between the lens connecting head 6 and the head magnet fixing component 6a or the magnetic fixing position between the bridge part 10 and the bridge magnet fixing component 10a.

[0191] Furthermore, the present invention can freely select the spectacle lenses 12 that are in line with one's personality or surrounding environment and conditions, and can arbitrarily select the shape or size of the left and right lenses, and, as Figures 35 to 41 As shown, a transparent micro-LED display housing 20 is covered on the eyeglass lens 12, and the transparent micro-LED display housing 20 is utilized to retain the normal eyeglass lens functions, while various colors and patterns or designs are formed on the eyeglass lens 12, and the function of obtaining the functions and effects required by the wearer is obtained.

[0192] Fig.41 In order to illustrate the figure formed by covering the outer surface of the self-adjusting glasses with a transparent micro-LED display housing 20 according to the 8th embodiment of the present invention, a transparent micro-LED display housing 20 displaying colors, patterns and designs is attached to the outside of the left and right lenses 12.

[0193] According to the eighth embodiment of the present invention, the eyeglass lens 12 covering the transparent micro-LED display housing 20 can be easily and independently separated, and the wearer can arbitrarily select the size of the left and right lenses, and can also use other eyeglass lenses without the transparent micro-LED display housing 20 instead.

[0194] The micro-LED display is a display in which ultra-small LED particles of 5 to 100 um (100,000th of a cm) are bonded to a substrate. The transparent substrate of the present invention is suitable for using the LED chip itself as a pixel to form a flexible or rollable screen. In addition, compared with OLED, the power consumption is very small and can be used for a long time. In addition, compared with previous OLEDs, it is also excellent in brightness, color saturation, and power efficiency.

[0195] In the present invention, the transparent micro-LED display housing 20 is attached to the entire surface of the self-adjusting glasses 2. The transparent micro-LED display housing 20 of the present invention uses a transparent substrate 22 that is both transparent and flexible, so that the eyeglass lens 12 can function as an eyeglass lens even when the micro-LED display is not in operation. The pixels formed by the micro-LED chip, i.e., the micro-LED pixels 26, are also constructed with maximum transparency.

[0196] Furthermore, the pixel number of the transparent micro-LED display housing 20 covering the eyeglass lens 12 is adjusted, that is, the screen resolution is adjusted to be lower, so that even if the transparent micro-LED display housing 20 is operated to display the designed shape, it will not hinder the wearer from looking forward.

[0197] Therefore, if the transparent micro-LED display housing 20 of the lens 12 is not in operation, it can be used as an ordinary lens 12. If the transparent micro-LED display housing 20 covered by the lens 12 is in operation, the lens 12 can be used to display various designs or colors and functions to the outside, and, as a specific example, it can also have functions such as sunglasses.

[0198] Even if the transparent micro-LED display housing 20 of the eyeglass lens 12 displays, the housing 20 has transparency, so that the wearer can see the outside through the eyeglass lens 12.

[0199] The self-adjusting glasses 2 of the present invention are Fig.41 In the embodiment, a circuit for operating the transparent micro-LED display housing 20 covered on the eyeglass lens 12 is formed on the eyeglass leg 4 or the eyeglass lens 12 .

[0200] Fig.42 This is a circuit block diagram of a main body control unit 430 built into the temple 4 of the self-adjusting glasses 2 according to the eighth embodiment of the present invention. Fig.43 FIG. 8 is a block diagram of a remote slave system 50 formed in the eyeglass lens 12 of the self-adjusting eyeglasses 2 according to the eighth embodiment of the present invention.

[0201] exist Fig.42 The structure of the main body control unit 30 shown in FIG. Fig.10 The structure of the main body control unit 30 shown in FIG. is almost similar, but Fig.10 In the embodiment, the transparent micro-LED display housing 20 is covered on the temple 4 of the self-adjusting glasses 2. Fig.42 It is a structure that has not yet been formed.

[0202] And, in Fig.43 The remote slave system 50 shown in FIG. Fig.11The configuration of the remote slave system 50 shown in FIG. Fig.11 The transparent micro-LED display housing 20 covers the lens connecting head 6 and the eyeglass lens 12. On the contrary, Fig.43 The difference is that the transparent micro-LED display housing 20 covers the eyeglass lens 12.

[0203] The photodetector 48 formed in the eyeglass lens 12 or the eyeglass temple 4 senses the amount of external light given to the self-adjusting eyeglasses 2 and transmits it to the corresponding main control unit 44 or remote control unit 54. The corresponding main control unit 44 or remote control unit 54 controls the display brightness of the transparent micro-LED display housing 20 according to the amount of light. The brightness of the transparent micro-LED display housing 20 can also be automatically adjusted according to the day and night around the self-adjusting eyeglasses 2.

[0204] The eyeglass lens 12 according to the present invention can receive radio signals that transmit resonance energy based on an oscillating magnetic field, and transmit information of the eyeglass lens 12 to the eyeglass body control unit 30 or the smartphone 60 by wireless transmission and reception.

[0205] The wireless transceiver method between the eyeglass lens 12 and the main control unit 30, or the wireless transceiver method between the main control unit 30 and the smart phone 60, the wireless transceiver method between the eyeglass lens 12 and the smart phone 60 can also be applied to the Li-Fi technology that utilizes the wavelength of light emitted from the LED to reflect a fast communication speed. In particular, if the micro-light-emitting diode technology of the present invention is applied, it is easier to achieve miniaturization and lightweight of components.

[0206] Therefore, the self-adjusting glasses 2 of the present invention can be designed to meet various glasses of current trends, and the transparent micro-LED display housing 20 covering the entire lens 12 can be used to express different colors and designs of the glasses.

[0207] Fig.44 This is a conceptual diagram of controlling the design and color change of the eyeglass lens 12 through short-range remote control between the self-adjusting glasses 2 and the smartphone 60 according to the eighth embodiment of the present invention.

[0208] The main body control unit 30 of the self-adjusting glasses 2 of the present invention can be wirelessly connected to the smartphone 60 through short-range wireless communication methods such as Bluetooth communication, WIFI communication, NFC communication, IR communication, and Li-Fi communication. In addition, according to the eighth embodiment of the present invention, the main body control unit 30 performs wireless control through the design and color control commands driven by the lens design and color mobile application downloaded on the smartphone 60, so that the lens color and design are displayed on the transparent micro-LED display housing 20 of the lens 12 of the self-adjusting glasses 2.

[0209] Furthermore, the present invention can additionally form a decorative eyeglass frame 70 that also serves as a magnet fixing piece, and the eyeglass frame 70 can also be covered with a transparent micro-LED display housing 20. At this time, the main body control unit 30 performs wireless control to adjust the lenses of the self-adjusting eyeglasses 2. Fig.52 The transparent micro-LED display housing 20 of 70 displays the color and design of the eyeglass lenses.

[0210] Figures 45 to 49 1 is a diagram showing an example of applying a micro LED display housing 20 to a spectacle lens 12 according to an eighth embodiment of the present invention to instantly display the overall color or design of the spectacle lens 12 .

[0211] Fig.45 In the figure, an example of the self-adjusting glasses 2 in which a color similar to that of sunglasses is displayed on the micro ELD display housing 20 of the eyeglass lens 12 according to the eighth embodiment of the present invention, and the color is covered.

[0212] If the micro-LED display housing 20 of the eyeglass lens 12 of the self-adjusting eyeglasses 2 uses brown display, it has the effect of blocking ultraviolet rays and infrared rays, and can reduce light scattering and glare, so that objects can be seen clearly.

[0213] For example, if the transparent micro-LED display housing 20 of the lens 12 of the self-adjusting glasses 2 is displayed in a lighter black color, the wavelength of light can be uniformly absorbed, and the original color can be seen, thereby significantly preventing glare and having a higher ultraviolet blocking effect. In addition, if the transparent micro-LED display housing 20 of the lens 12 of the self-adjusting glasses 2 is displayed in yellow, the field of vision can be illuminated, which is suitable for wearers who are active at night.

[0214] The above-mentioned eyeglass lens 12 can protect vision during the day or at night, and can also protect vision in surrounding environments such as roads, seaside, snow and frost.

[0215] Furthermore, the design and color that the wearer wants to show to others can be displayed on the transparent micro-LED display housing 20 of the lens 12 of the self-adjusting glasses 2.

[0216] Fig.46 The eighth embodiment of the present invention shows an example of a self-adjusting eyeglass 2 in which an eyeglass frame is formed on the outer contour of the micro-LED display housing 20 of the eyeglass lens 12, as if a full-frame or half-frame eyeglass frame is formed on the frameless eyeglass lens 12.

[0217] and, Fig.47This is an example of the self-adjusting glasses 2 according to the eighth embodiment of the present invention, which can immediately display the wearer's favorite graphics, such as a national flag pattern or a heart-shaped pattern, on the micro-LED display housing 20 of the eyeglass lens 12.

[0218] Fig.48 The eighth embodiment of the present invention shows an example of self-adjusting glasses 2 that can be used as pinhole glasses or other vision correction functions on the transparent micro-LED display housing 20 of the eyeglass lens 12.

[0219] Fig.49 Another embodiment of the self-adjusting eyeglasses 2 of the present invention is a configuration in which left and right eyeglasses 12 are provided with left and right cover lenses 11 having a coverable structure.

[0220] Reference Fig.49 According to the eighth embodiment of the present invention, a main control unit 30 for wirelessly controlling the transparent micro-LED display housing 20 is formed on the temples 4 of the left and right cover lenses 11 additionally formed, and a remote slave system 50 for driving the transparent micro-LED display housing 20 is formed on the cover lens 11.

[0221] That is, in Fig.49 The self-adjustable glasses 2 shown in the figure include: a pair of lenses 12, left and right temples 4 connected to the left and right lens connecting heads 6, and a nose pad 8. In addition, the bridge portion 10 connecting the left and right lenses 12 is formed independently, and can be separated from each other and assembled and fixed by means of magnetic force. In addition, left and right cover lenses 11 with a covering structure are formed on the left and right lenses 12, and a transparent micro-LED display housing 20 is covered on the cover lenses 11. A main control unit 30 for wirelessly controlling the transparent micro-LED display housing 20 is formed on the temples 4, and a remote slave system 50 for driving the transparent micro-LED display housing 20 is formed on the lenses 12.

[0222] Figure 50 to Figure 52 The self-adjusting glasses 2 according to the ninth embodiment of the present invention are: Fig.50 To combine the three-dimensional composition diagram, Fig.51 for Fig.50 The separated three-dimensional composition diagram, Fig.52 for Fig.50 Cross-sectional diagram of .

[0223] according to Figure 50 to Figure 52 The self-adjusting glasses 2 of the ninth embodiment of the present invention shown in the figure are in the form of assembled self-adjusting frame glasses that can be separated and assembled, and are formed by covering the eyeglass lenses 12 with a transparent micro-LED display housing 20.

[0224] exist Figure 50 to Figure 52 The self-adjusting glasses 2 of the ninth embodiment of the present invention shown in the figure are different from Figures 35 to 40 The embodiment of the present invention shown in the figure is formed with a glasses frame, which is not connected by magnetic force, and is composed of left and right glasses legs 4, left and right lens connecting heads 6 hingedly connected to the left and right glasses legs 4, a bridge part 10 having a nose pad 8 and connecting the left and right glasses frames 70 combined with the glasses lenses 12, and the left and right glasses frames 70 combined with the left and right glasses lenses 12. In addition, the various parts are separable and assembled and fixed by magnetic force.

[0225] That is, the self-adjustable glasses 2 of another embodiment of the present invention include: left and right glasses frames 70 respectively combined with glasses lenses 12, left and right glasses legs 4 connected to the left and right lens connecting heads 6, and a bridge portion 10 having a nose pad 8, which is independently formed to connect the left and right glasses frames 70, and can be separated and assembled and fixed from each other by means of magnetic force, and the glasses lenses 12 combined with the left and right glasses frames 70 are covered with a transparent micro-LED display housing 20 that can display color and design to the outside, and a main control unit 30 for wirelessly controlling the transparent micro-LED display housing 20 is formed on the glasses legs 4, and a remote slave system 50 for driving the transparent micro-LED display housing 20 is formed on the glasses frame 70.

[0226] Figure 50 to Figure 52 The unexplained reference numeral 727476 denotes a magnet for fixing by means of magnetic force.

[0227] Figure 50 to Figure 52 In the self-adjusting glasses 2 according to the ninth embodiment of the present invention, the transparent micro-LED display housing 20 is covered on the eyeglass lens 12, but it can also be as shown in FIG. Figure 50 to Figure 52 As shown, a transparent micro-LED display housing 20 is also formed on the eyeglass frame 70 .

[0228] The transparent micro-LED display housing 20 as described above is applied only to the eyeglass lens 12, or to both the eyeglass lens 12 and the eyeglass frame 70, so that the color or design can be instantly deformed and displayed on the eyeglass lens 12 alone or on the eyeglass lens 12 and the eyeglass frame 70 as a whole.

[0229] Fig.53 The 10th embodiment of the self-adjusting glasses 2 according to the present invention is a three-dimensional structure diagram of the deformation of the separation, each left and right eyeglass frame 70 is formed into a customized form that can be separated and assembled by magnetic force. At this time, the eyeglass frame 70 has both a decorative effect and a magnetic fixing piece.

[0230] Fig.5370a is a decorative eyeglass frame assembled with the half-frame eyeglass frame 70 by means of magnetic force.

[0231] Fig.53 Reference numerals 230 to 232 not described herein are magnets for magnetically fixing the eyeglass frame 70 and the decorative eyeglass frame 70a.

[0232] As in Fig.53 As shown in the 10th embodiment of the present invention, the 9th embodiment of the present invention is modified and implemented, and the transparent micro-LED display housing 20 is also covered on the eyeglass frame 70, and the decorative eyeglass frame 70a can also be covered with a Fig.53 The decorative patterns include star patterns, heart patterns, rose patterns, etc. Moreover, the decorative eyeglass frame 70a can also cover the transparent micro-LED display housing 20 to display various graphics.

[0233] Fig.53 The glasses frame 70 and the decorative glasses frame 70a may be formed entirely in a decorative form, or entirely by the transparent micro-LED display housing 20, or only a portion thereof may be formed by the transparent micro-LED display housing 20.

[0234] Industrial Applicability

[0235] The present invention can be applied to various glasses such as fashion glasses or functional glasses.

Claims

1. A self-adjusting pair of glasses, as self-adjusting pair of glasses, characterized in that: include: A pair of eyeglass lenses (12); left and right eyeglass legs (4) connected to left and right lens connecting heads (6); a nose pad (8) formed thereon, and a bridge (10) connecting the left and right eyeglass lenses (12) is independently formed so as to be separable and assembled and fixed by means of magnetic force. Furthermore, magnets (17) (15) are built into each side portion of the left and right lens connecting heads (6) and the left and right side portions of the bridge portion (10), and in order to support and fix the eyeglasses (12), the magnets (17) of the left and right lens connecting heads (6) and the magnets (15) of the bridge portion (10) are respectively additionally provided with a head magnet fixing component (6a) and a bridge magnet fixing component (10a) that generate magnetic force, so that the fixing position on the left and right eyeglasses (12), i.e., the magnetic fixing position between the left and right lens connecting heads (6) and the head magnet fixing component (6a) or the magnetic fixing position between the bridge portion (10) and the bridge magnet fixing component (10a) can be arbitrarily set. The head magnet fixing component (6a) and the bridge magnet fixing component (10a) are independent and are connected to the corresponding lens connecting head (6) and the corresponding bridge part (10) by means of an elastic or non-elastic connecting rope (62); The inner surface of the left and right lens connecting heads (6) and the inner surface of the head magnet fixing component (6a), and the inner surface of the bridge portion (10) and the inner surface of the bridge magnet fixing component (10a) for fixing the eyeglass lenses (12) by means of magnetic support are formed in flat contact, or the inner surface of the left and right lens connecting heads (6) and the inner surface of the head magnet fixing component (6a), and the inner surface of the bridge portion (10) and the inner surface of the bridge magnet fixing component (10a) are formed with an integration concave-convex portion (19) for mutual integration.

2. A self-adjusting pair of glasses, as self-adjusting pair of glasses, characterized in that: include: A pair of eyeglass lenses (12); left and right eyeglass legs (4) connected to left and right lens connecting heads (6); a nose pad (8) formed thereon, and a bridge (10) connecting the left and right eyeglass lenses (12) is independently formed so as to be separable and assembled and fixed by means of magnetic force. Furthermore, a magnetic attachment groove (16) (14) with a built-in magnet (17) (15) is formed on each side of the left and right lens connecting heads (6) and the left and right sides of the bridge portion (10). The left and right lenses (12) are inserted between the left and right lens connecting heads (6) and the bridge portion (10) of the left and right eyeglass legs (4) by means of the magnetic attachment groove (16) (14) and fixed by means of magnetic attachment, so that the upper and lower height positions of the left and right lenses (12) can be adjusted. A magnetic component (18) is formed on the edge of the eyeglass lens (12) and is used to insert the eyeglass lens (12) having the magnetic component (18) into the magnetic attachment groove portion (16) (14) and fix the eyeglass lens (12) by means of magnetic force. The magnetic component (18) of the eyeglass lens (12) is in the shape of a strip and is composed of a transparent magnetic film (18a) formed by coating the surface of the lens. The transparent magnetic film (18a) is a cobalt-doped titanium dioxide film.

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