Glasses with a function to relieve eye fatigue

Abstract

A pair of glasses with a function to relieve eye fatigue, consisting of a frame (1), lenses (2), and a lens (3). The lenses (2) are rotatably attached to the sides of the frame (1), and the lens (3) is integrated into the frame (1). A removable mounting element (13) is attached to the outside of the lenses (2), on which a mounting groove (4) is provided. A corresponding opening (12) for the mounting groove (4) is provided in the frame (1). An energy storage chip (5) is integrated into the mounting groove (4), the inner surface of which projects into the inner opening (12) of the frame (1) and is positioned at the front of the eye. A printed antenna (6) is integrated into the lenses (2). The storage circuit (5) continuously emits biological waves via the printed antenna (6), which act on the eye to accelerate blood circulation in the eye area and thus relieve eye fatigue.

Description

Technical field

[0001] The present utility model solution concerns the field of spectacle technology and relates in particular to spectacles with a function to alleviate eye fatigue. Background technology

[0002] Nowadays, due to heavy workloads and intensive learning activities, people are constantly confronted with electronic screens, which often leads to eye strain. To avoid damage from bright light, many people wear sunglasses. Glasses are necessary for those with nearsightedness. However, the more people rely on smartphones, computers, and other electronic devices, the more prolonged screen viewing leads to eye fatigue. This causes the blood vessels in the eye to constrict, reducing blood flow and resulting in short-term ischemia and oxygen deprivation. This leads to symptoms such as eye strain and dry eyes. In the long term, this can lead to the development of nearsightedness.

[0003] How can one effectively relieve eye fatigue, alleviate eye discomfort and prevent the development of myopia when using electronic devices and when intensively viewing objects at close range - a pressing challenge in everyday life. Content of the utility model application

[0004] To solve the aforementioned technical problems, the present utility model solution offers eyeglasses with a function to alleviate eye fatigue. The eyeglasses comprise a frame, blades, and a lens. The blades are rotatably attached to the sides of the frame, and the lens is integrated into the frame. Removable mounting elements, each with a mounting groove, are attached to the outside of the blades. Corresponding openings are provided in the frame into which the mounting grooves are inserted. An energy storage chip is embedded in these grooves, the inner surface of which projects into the openings in the frame and directly adjacent to the forehead (temple) region. Printable antennas are integrated inside the blades. By receiving signals from these antennas, the energy storage chip continuously generates biological waves that act on the eyes to accelerate blood circulation in the eye area and thus alleviate eye fatigue.

[0005] Furthermore, the surface of the energy storage chip is coated with a transparent hydrogel and attached to the housing via this; the chip model is YPD5015.

[0006] Furthermore, the wavelength of the aforementioned biowave is 9 micrometers.

[0007] The advantage of utility models compared to existing technology lies in the fact that they

[0008] This invention features an energy storage circuit positioned near the forehead of the wearer of the eyeglass device. The circuit continuously generates biological waves via a pressure antenna, which are absorbed by the eye cells. This promotes the metabolism of acidic deposits in the eye, activates the eye cells, and accelerates blood circulation in the eye area. As a result, the eye's circular metabolism is enhanced, and eye fatigue is effectively relieved.

[0009] A removable mounting element is attached to the outside of the mirror bearing. The surface of the energy storage chip is coated with transparent hydrogel, which secures it within the mounting compartment. The mounting element can be removed as needed, facilitating maintenance of the energy storage chip. The combination of the hydrogel coating on the chip's exterior and a sealing layer effectively protects the chip from exposure and damage, thus extending the energy storage chip's lifespan.

[0010] In the present utility model solution, several titanium magnets are positioned around the eye. Since these magnets contain titanium and germanium, they can promote mental relaxation, improve motor skills, and increase blood circulation, thereby enabling the body to more effectively eliminate fatigue factors associated with pain. The effect on specific acupuncture points further enhances the relief of eye strain. Combined with the previously described energy storage chip, this provides a dual effect for relieving eye strain. Caption Fig. shows a schematic representation of the first embodiment of spectacles according to the present utility model solution, which has a function for relieving eye fatigue. Fig. shows a second schematic representation of the structure of a pair of glasses according to the present utility model solution, which has a function to alleviate eye fatigue. Fig. shows a schematic division of an eye socket according to the present utility model solution, which offers a function to alleviate eye fatigue. Fig. shows an enlarged view of area A Fig. . Fig. shows an enlarged view of area B from Fig. .

[0011] 1. Frame, 2. Carrier, 3. Lens, 4. Mounting housing, 5. Energy storage chip, 6. Pressure antenna, 7. First titanium magnet, 8. Second titanium magnet, 9. Third titanium magnet, 10. Fourth titanium magnet, 11. Protective layer, 12. Through hole. Specific implementation methods

[0012] The present utility model solution is explained in more detail below with reference to the attached drawings.

[0013] The present utility model solution is described in detail with reference to the attached drawings.

[0014] The present utility model provides eyeglasses for relieving eye fatigue, consisting of a frame 1, two arms 2, and a lens 3. The arms 2 are rotatably attached to the sides of the frame 1, and the lens 3 is integrated into the frame 1. A removable fastening element 13 is attached to the outside of the arms 2, on which a mounting groove 4 is provided. A corresponding opening 12 is located in the frame 1, into which the mounting groove 4 is inserted. An energy storage chip 5 is installed inside the mounting groove 4, the inner surface of which projects into the opening 12 of the frame 1 and is attached to the front of the lens. A printed antenna 6 is integrated inside the arms 2. The energy storage chip 5 can exert an effect on the eyes by receiving the biological waves emitted by the printed antenna 6, thereby accelerating blood circulation in the eye area and relieving eye fatigue. Examples:

[0015] When using this utility model, after putting on the glasses, the energy storage circuit 5, attached to the wearer 2, is positioned around the eyes and at the stimulation point. This circuit 5 continuously generates biological waves – specifically waves with a wavelength of approximately 9 micrometers – which are received via a pressure antenna 6. The waves absorbed by the eye cells activate these cells and thus accelerate blood flow in the eye area. This accelerates cellular metabolism in the eye and effectively relieves eye fatigue.

[0016] A removable mounting element 13 is attached to the outer surface of the spectacle element 2, and this element has a mounting groove 4. A corresponding opening 12, aligned with the mounting groove 4, is located in the frame 1. An energy storage chip 5 is integrated within the mounting groove 4, directly embedded in the groove 4 of the mounting element 13. The chip is mounted by coating its surface with transparent hydrogel, which firmly anchors it in the groove 4. When replacing the energy storage chip 5, the screw can be removed to the side, allowing the mounting element to be detached from the side of the spectacle element. Since the energy storage chip 5 is integrated into the mounting groove 4, it is removed along with the mounting element. This allows for the easy insertion of a new energy storage chip and a new mounting element at any time.It can be attached directly to the side of the mirror stand with a screw - easy to use and practical in application.

[0017] The aforementioned energy storage chip 5 is of type YP5015 and consists primarily of a microwave receiver powder circuit, a transmission circuit, a capacitor, a crystal oscillator, and a microorganism microwave emitter. These components work together to achieve the reception, correction, and emission of biological waves in the wavelength range of 6 to 14 µm.

[0018] The operating principle of the aforementioned energy storage chips is as follows: 1. The microwave receiving pads absorb electromagnetic waves from the environment via a printed antenna and transmit them to the crystal oscillator. 2. The crystal oscillator calibrates the recorded electromagnetic waves using a specific frequency coding. 3. The calibrated electromagnetic waves are directed back to the body via a pressure antenna (induction range: 50 cm).

[0019] It is noteworthy that the chips undergo a special magnetic energy storage process before delivery, which stores energy in the capacitor module to power the chips. This unique energy storage enables a continuous power supply for approximately three years.

[0020] The biological wave can effectively relieve visual fatigue - here is the exact mechanism of action: Far-infrared radiation is a form of electromagnetic wave that is beneficial to the human body. The wavelength range of 6 to 14 micrometers is particularly important for human survival and health. These far-infrared waves are referred to as "life-giving light" or "bio-waves."

[0021] After calibration of the biological energy storage chip technology, the wavelength range of the emitted electromagnetic waves lies between 4 and 24 micrometers, with the main range between 8 and 16 micrometers. According to Wein's law of classical physics for black bodies—which states that the absolute surface temperature of an energy emitter is inversely proportional to the wavelength of the emitted energy—the energy resonance wavelength most suitable for human blood and tissue cellular structures is approximately 9 micrometers. When electromagnetic waves with a wavelength close to 9 micrometers penetrate the human body, they can positively influence biological functions. A particularly important effect is the dilation of fine blood vessels and the promotion of blood circulation.

[0022] In the further course of the present utility model solution, the wavelength of the biological wave field is 9 micrometers.

[0023] In a further development of the present utility model solution, a first titanium magnet 7, a second titanium magnet 8, and a third titanium magnet 9 are attached to the frame 1 near the eye area. A fourth titanium magnet 10 is located on the inside of the supports 2. The first titanium magnet 7 is positioned above the eye area, the second below the eye area, the third at the corners of the eyes lateral to the nostrils, and the fourth on the frontal ribs. This structure has the following effects in use: The elements titanium and germanium contained in the titanium magnets promote mental relaxation and motor performance, increase blood flow, and thus support the body's function in eliminating pain-related fatigue factors in the bloodstream. By acting on the corresponding acupuncture points, the relief of eye strain is enhanced. In combination with the previously described energy storage chip, this enables a twofold relief from eye strain.

[0024] In the further course of the present utility model solution, both the first and the second titanium magnets are each arranged in three to four groups. This multi-stage arrangement of the titanium magnets enhances the effect of the glasses in relieving eye fatigue.

[0025] In a further development of the present utility model solution, a sealing layer 11 is provided on the inside of the passage 2 on the mirror leg 2, which serves to package the chip. This layer can consist of the plastic material of the mirror leg and thus enable the packaging of the energy storage circuit. In combination with a specific transparent hydrogel coating, it effectively protects the chip from free light and mechanical damage, thereby extending the service life of the energy storage circuit.

[0026] In the further course of the present utility model solution, the fastening element 13 is attached to the outside of the mirror bearing 2 by means of screws.

[0027] The foregoing description of the present utility model solution and its embodiments is not restrictive. The embodiments shown in the drawings are merely one variant of the present utility model solution; the actual structure is not limited to them. In summary: If a person skilled in the art, inspired by this solution and without deviating from the original purpose of the invention, develops a structural variant and embodiment similar to the present technical solution without any creative innovation, then all of these fall within the scope of protection of the present utility model solution.

Claims

[1] A pair of glasses with a function to relieve eye fatigue, consisting of a frame (1), lenses (2), and a lens (3). The lenses (2) are rotatably attached to the sides of the frame (1), and the lens (3) is integrated into the frame (1). A feature is that a removable mounting element (13) is attached to the outside of the lenses (2), on which a mounting groove (4) is provided. A corresponding opening (12) for the mounting groove (4) is provided in the frame (1). An energy storage chip (5) is integrated into the mounting groove (4), the inner surface of which projects into the inner opening (12) of the frame (1) and is located at the front of the eye. A printed antenna (6) is integrated into the lenses (2). The storage circuit (5) continuously emits biological waves via the printed antenna (6), which act on the eye to accelerate blood flow in the eye area and thus relieve eye fatigue. [2] Eyeglasses according to claim 1 with a function for relieving eye fatigue, characterized by , that the surface of the energy storage switch (5) is coated with transparent hydrogel and is fastened in the mounting sleeve (4) by means of this, wherein the energy storage switch (5) is of type YPD5015. [3] Eyeglasses according to claim 2 with a function for relieving eye fatigue, characterized by , that the wavelength of the biological wave is 9 micrometers. [4] A spectacle model according to claim 2 or 3 having a function for relieving eye fatigue, characterized by, that on the frame (1) near the eye area a first titanium magnet (7), a second titanium magnet (8) and a third titanium magnet (9) are arranged, while on the inner edge of the support (2) a fourth titanium magnet (10) is attached; the first titanium magnet (7) is located above the eye area, the second titanium magnet (8) below the eye area, the third titanium magnet (9) at the corners of the eyes lateral to the nostrils and the fourth titanium magnet (10) on the forehead areas. [5] A spectacle model according to claim 4 with a function for relieving eye fatigue, characterized by , that both the first titanium magnet (7) and the second titanium magnet (8) each have 3 to 4 groups. [6] Eyeglasses according to claim 1 with a function for relieving eye fatigue, characterized by , that a sealing layer (11) is provided on the inside of the passage (2) of the carrier (2) for the purpose of packaging a chip. [7] A spectacle model according to any one of claims 1 to 6, which has a function for relieving eye fatigue, characterized by , that the fastening element (13) is attached to the outside of the support arm (2) by means of screws.

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