Mirror for skin beautification with a tungsten wire or carbon wire light source

Abstract

To provide a skin beautification mirror with a light source in which diversification of a device is achieved and which improves skin beautification efficiency.SOLUTION: A skin beautification mirror 1000 comprises: a housing 100; a main control board 50; a light source assembly; and a power source assembly. The light source assembly comprises a tungsten-wire or carbon-wire light source 20. When light passes through a transparent substrate 10 with a filtering function and is filtered, light in a wave band of a predetermined interval is obtained and radiated to the skin through a light-emergent face. Thus, various skin issues can be solved; moreover, the skin beautification mirror can be used as a beauty makeup mirror or a beauty mirror having a large mirror face.SELECTED DRAWING: Figure 1

Description

Technical Field

[0001] This application relates to the technical field of beauty and skin care instruments, and particularly to a beauty mirror with a tungsten wire or carbon wire light source.

Background Art

[0002] Most of the currently commercially available beauty instruments use a single IPL (Intense Pulsed Light) light source to perform beauty and skin care such as hair removal, whitening, and skin rejuvenation. The greater the energy of the IPL light source, the more significant its treatment effect. However, to varying degrees, it may cause burns and pain. Also, the greater the energy, the slower the flash speed and the shorter the lamp life. The IPL light source is intense pulsed light with a short emission time and high peak energy, so the spectral continuity is not good. When it is necessary to perform treatment in an accurate wavelength band for differences in skin color and treatment needs (for example, various needs such as stain removal, whitening, skin rejuvenation, wrinkle removal, etc.) (for example, DPL), the utilization rate of the light source of that lamp is significantly reduced. Also, among the light generated from the IPL light source, the near-infrared spectrum above 1200nm is small, and beauty cannot be performed by selecting the near-infrared band. The light generated from the IPL light source has a small wavelength band and low light power, and various skin problems cannot be solved efficiently and quickly. Existing beauty instruments also use a single LED light source for skin care. However, the LED light source also has low light power and cannot efficiently and quickly solve various skin problems.

Summary of the Invention

Problems to be Solved by the Invention

[0003] The technical problem to be solved by this application is to solve the problem that due to the use of an IPL light source or an LED light source in conventional skin care devices, the power is low, the wavelength band is small, and multiple skin care operations cannot be performed efficiently and quickly. To this end, a beauty mirror with a tungsten wire or carbon wire light source is provided.

Means for Solving the Problem

[0004] To solve the above technical problems, the present application adopts the following technical solutions.

[0005] A beauty mirror with a tungsten wire or carbon wire light source, comprising a housing, a main control board mounted in the housing, and a light source assembly and a power supply assembly electrically connected to the main control board, wherein the light source assembly includes a tungsten wire or carbon wire light source, a large-area window is formed on the front surface of the housing, further comprising a transparent substrate that closes the window to form a large-area light-emitting surface that becomes a mirror surface, a filter film is integrally coated on the surface of the transparent substrate to obtain a transparent substrate with a filter function, and / or a filter sheet is attached inside the transparent substrate, light from the tungsten wire or carbon wire light source passes through the filter film and / or the filter sheet, is filtered, and light in a predetermined wavelength band is obtained, and then passes through the light-emitting surface and irradiates the skin.

[0006] In some embodiments, the filter sheet is formed by applying an optical coating to a transparent base, or an integrated transparent substrate with a filter function is formed by applying an optical coating to the surface of the transparent substrate, the filter sheet or filter film that transmits a single wavelength band through coating of a single wavelength band is formed, or the filter sheet or filter film that simultaneously transmits multiple wavelength bands through coating of multiple wavelength bands is formed.

[0007] In some embodiments, a plurality of filter sheets are arranged on the beauty mirror, and the plurality of filter sheets are detachably attached in the light emitting direction of the tungsten wire or carbon wire light source to filter the light from the tungsten wire or carbon wire light source. The filter sheet is replaced by removing the transparent substrate or is replaced by inserting and removing through a slot provided in the housing.

[0008] In some embodiments, a temperature sensor is further provided in the housing. One end of the temperature sensor is connected to the transparent substrate to detect the temperature of the transparent substrate, and the other end is electrically connected to the main control board. The power and switch of the tungsten wire or carbon wire light source are controlled via the main control board to control the temperature of the transparent substrate.

[0009] In some embodiments, the power supply assembly includes a battery and / or a power interface. A power source is connected to the power interface to supply power. The light source assembly further includes a light reflecting member, and the tungsten wire or carbon wire light source is mounted inside the light reflecting member. A heat dissipating member is provided on the back surface of the light reflecting member. The heat dissipating member and the light reflecting member have matching shapes and are provided in close contact to perform rapid heat transfer, or the heat dissipating member and the light reflecting member are of an integral structure. A bush is provided on the light reflecting member, and a through hole is provided in the bush. The tungsten wire or carbon wire light source is inserted into the bush, and its electrodes extend rearward from the bush to penetrate the through hole and are electrically connected to the main control board. The bush protrudes from the inside of the light reflecting member to the back surface, and a through hole is provided in the heat dissipating member for fitting the heat dissipating member onto the bush.

[0010] In some embodiments, the heat dissipation member is one or a combination of one or more selected from a heat pipe, a vapor chamber, a super heat pipe, a super heat plate, a heat conduction element made of a single heat conductive material, or heat dissipation fins. Inside the housing, a heat insulation plate is provided to confine the main control board within a cavity inside the housing and isolate it from the light source assembly. A through hole for fitting into the bush is provided at the center of the heat insulation plate. The light reflecting member and the light reflecting member heat dissipation member are hemispherical.

[0011] In some embodiments, the beauty mirror further includes a semiconductor cooling member including a semiconductor particle layer in the middle, and a cold surface and a hot surface at both ends. The cold surface of the semiconductor cooling member is thermally connected to the transparent substrate to cool the transparent substrate, or the transparent substrate directly functions as the cold surface of the semiconductor cooling member. A heat dissipation member is connected to the hot surface. The heat dissipation member is one or a combination of one or more selected from a heat pipe, a vapor chamber, a super heat pipe, a super heat plate, heat dissipation fins, or a heat conduction element made of a single heat conductive material.

[0012] In some embodiments, the semiconductor cooling member is in an annular shape and is attached to the back surface of the transparent substrate to cool the periphery of the light emitting surface. The annular intermediate region of the semiconductor cooling member becomes a through hole through which light from a tungsten wire or carbon wire light source passes, or The cold surface of the semiconductor cooling member is the transparent substrate as a whole, closing the window to form the light emitting surface. The semiconductor particle layer is arranged in an annular shape, the hot surface is annular, and the annularly arranged semiconductor particle layer is welded to the annular edge of the transparent substrate, and the large-area light emitting surface is formed by the cold surface of the transparent substrate. The heat dissipation member is annular and contacts the hot surface to conduct heat. The transparent substrate further includes a protective ring fitted outside the edge of the transparent substrate, and the transparent substrate is assembled to the edge of the window of the housing through the protective ring. The housing includes an annular front housing and a rear housing. The annular front housing is connected to the opening at the front end of the rear housing to form the window, and the transparent substrate is locked within the annular front housing.

[0013] In some embodiments, the beauty mirror has a makeup mode and a photon beauty mode. In the makeup mode, the beauty mirror functions as a makeup mirror, and the tungsten wire or carbon wire light source is turned off. In the beauty mode, the tungsten wire or carbon wire light source is turned on. When functioning as a makeup mirror, the filter sheet or the filter film has one-way transparency.

[0014] In some embodiments, the beauty mirror is generally hemispherical or cuboid as a whole, and the window is provided on the largest side surface of the cuboid. The front surface of the housing is the largest or the largest side surface or cross-section of the housing. Based on the principle of increasing the area, the large-area window is formed on the front surface of the housing, and the transparent substrate closes the window to form the large-area light-emitting surface.

[0015] In some embodiments, the beauty mirror includes an RF assembly including one or more pairs of RF electrodes. The one or more pairs of RF electrodes are attached to the transparent substrate or removably connected to the front surface of the housing through an RF accessory head. The RF electrodes are electrically connected to a main control board or an RF control board, and the main control board or the RF control board controls the RF electrodes to generate an RF current to act on the skin. The RF accessory head includes an electrode fixing bracket, the electrode fixing bracket is provided with mounting holes, and the RF electrode is mounted in the mounting holes. The positive and negative electrodes of the RF electrode are electrically connected to the RF control board or the main control board via an interface or an electric wire.

[0016] In some embodiments, a flange or a protrusion is provided at the edge of the electrode fixing bracket, a spacer or an engaging groove is provided at the edge of the window, and the flange or the protrusion of the electrode fixing bracket fits into the spacer or the engaging groove provided at the edge of the window, and the RF accessory head is detachably connected to the outside of the light emitting surface, and / or A magnet is attached to the electrode fixing bracket, and a magnet is attached inside the tip of the housing, and the RF accessory head is attracted to the front surface of the housing by magnetic attraction. The electrode fixing bracket is provided with a pair of mounting holes, the pair of mounting holes are wound spirally and are formed in a nested manner with each other. In this case, a pair of spiral RF electrodes are locked and mounted in the mounting holes wound spirally so as to fit into each other.

[0017] In some embodiments, a tungsten wire light source or a carbon wire light source includes a transparent cover and a light emitting material mounted inside the transparent cover, and the inside of the transparent cover is evacuated or filled with an inert gas or a halogen gas. The light emitting material of the tungsten wire light source is a tungsten wire, and the light emitting material of the carbon wire light source is a carbon wire. The tungsten wire light source or the carbon wire light source generates full-spectrum light.

Advantages of the Invention

[0018] The beneficial effects of the present application are as follows. In this application, a tungsten wire or carbon wire light source generates full-spectrum light, which is combined with a filter film or filter sheet to obtain light in more wavelength bands and irradiate the skin. With filter sheets or filter films in various wavelength bands, beauty repair and stimulation regeneration of the skin can be accurately performed, and it is also useful as a large cosmetic mirror or beauty mirror with a mirror surface. In this way, the multi-usage of the device is achieved, and moreover, the skin beautifying efficiency is improved.

Brief Description of the Drawings

[0019]

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Mode for Carrying Out the Invention

[0020] Hereinafter, exemplary embodiments of the present application will be described in more detail with reference to the drawings. Although exemplary embodiments of the present application are shown in the drawings, it should be understood that the present application should not be limited to the embodiments described herein and can be implemented in various forms. Rather, these embodiments are provided to enable a more complete understanding of the present application and to enable the scope of the present application to be fully conveyed to those skilled in the art.

[0021] It should be understood that the terms used in this specification are for the purpose of describing specific exemplary embodiments only and are not intended to be limiting. Unless explicitly stated otherwise in the context, the singular forms "a", "one", and "the" used in this specification can also represent the plural form. The terms "comprising", "including", "containing", and "having" are inclusive and thus indicate the presence of the described features, steps, operations, elements, and / or components, but do not exclude the presence or addition of one or more other features, steps, operations, elements, components, and / or combinations thereof. Method steps, processes, and operations described herein should not be construed as necessarily being executed in the particular order described or shown unless the execution order is explicitly indicated. Furthermore, it should be understood that additional or alternative steps may be used.

[0022] A plurality of elements, components, regions, layers, and / or segments may be described herein using terms such as first, second, etc., but these elements, components, regions, layers, and / or segments should not be limited by these terms. These terms can only be used to distinguish one element, component, region, layer, or segment from another region, layer, or segment. Unless explicitly indicated in the context, terms such as "first", "second", etc. and other numerical terms, when used in this specification, do not imply an order or sequence. Thus, the elements, components, regions, layers, or segments described below may be referred to as a second element, component, region, layer, or segment without departing from the teachings of the exemplary embodiments.

[0023] For ease of explanation, the relationship of one element or feature to another element or feature as shown in the figures can be described using spatial relative terms, such as "inside", "outside", "inner", "outer", "lower surface", "below", "upper surface", "above", "tip", "rear side", etc. Such spatial relative terms are meant to include different orientations of the device during use or operation in addition to the orientation shown in the figures. For example, if the device in the figure is inverted, an element described as "on the lower surface of" or "below" another element or feature will be oriented as "on the upper surface of" or "above" the other element or feature. Thus, the exemplary term "below" may include upward and downward directions. The device may be further oriented (rotated 90 degrees or in other directions), and the spatial relative descriptions used herein may be explained accordingly.

[0024] The endpoints and any values of the endpoint values disclosed in this application are not limited to this exact range or value, and these ranges or values should be understood to include values close to these ranges or values. In the case of numerical ranges, between the endpoint values of each range, between the endpoint values of each range and individual point values, and between individual point values, they can be combined with each other to obtain one or more new numerical ranges, and these numerical ranges should be regarded as specifically disclosed in this specification.

[0025] This application relates to a mirror for photon beauty care using a tungsten wire or carbon wire light source as an internal light source. Here, the tungsten wire light source or carbon fiber light source uses tungsten wire or carbon fiber as a filament, that is, a light-emitting material. The filament is installed in a transparent cover and emits light when energized. To prevent oxidation of the filament at high temperatures, the inside of the cover is kept under vacuum or filled with a low-pressure inert gas or halogen gas. When the transparent cover of the tungsten wire light source or carbon fiber light source is filled with a halogen gas such as iodine or bromine, a halogen lamp (also called a tungsten halogen lamp) is obtained. The tungsten wire light source or carbon fiber light source is a light source of an incandescent lamp and is mounted according to the structure of the incandescent lamp.

[0026] When using tungsten wire and / or carbon fiber as a filament that is a light-emitting material, in order to extend the life of the light source, the transparent cover may be filled with an inert gas or halogen gas at a predetermined ratio, and the spectral distribution of the tungsten wire and / or carbon fiber light source may be changed by adjusting the air pressure in the lamp, the ratio of the gas, or by adjusting the current pulse, supply voltage, etc.

[0027] The tungsten wire light source or carbon fiber light source has the characteristics of full spectrum and continuous lighting. The full spectrum light from the light source includes visible light and invisible light. When the full spectrum light is filtered by the filter sheet, light in a predetermined wavelength band is obtained, which can be used for skin beautification and treatment. For example, light in the wavelength band of 500-600 nm of visible light can reduce the melanin in the epidermis, and near-infrared light in the wavelength band of 900-2500 nm can reach the dermis layer and basal layer, and can regenerate collagen or repair the basal layer by stimulation.

[0028] As shown in FIGS. 1-3, the beauty mirror 1000 with a tungsten wire or carbon wire light source according to the first embodiment of the present application includes a housing 100, a transparent substrate 10, a filter sheet 11, a tungsten wire or carbon wire light source 20, a light reflecting member 21, a light reflecting member heat dissipation member 22, a temperature sensor assembly 30, a heat insulation plate 40, a main control board 50, and a battery 60, which are installed in the housing 100.

[0029] The beauty mirror 1000 with a tungsten wire or carbon wire light source may have an overall spherical, hemispherical, square or other shape, and a large window is provided at its tip. The housing 100 includes a front housing 110 and a rear housing 120. The housing 100 may be spherical, hemispherical (including substantially hemispherical or partially spherical), square or other shapes as a whole. By connecting the front housing 110 to the tip of the rear housing 120, the above-mentioned components are accommodated between the front housing 110 and the rear housing 120 or in the cavity inside the housing. Exemplarily, the front housing 110 is annular, the rear housing 120 is a hemispherical or substantially hemispherical case, the tip of the rear housing is open, and the annular front housing 110 is connected to the edge of the opening at the tip of the rear housing 120, thereby forming the above-mentioned large window. The transparent substrate 10 is covered on the large window at the tip of the beauty mirror, and a large light emitting surface is formed as a mirror surface.

[0030] The transparent substrate 10 and the filter sheet 11 are fixedly attached by the front housing 110, and their shapes are compatible. The transparent substrate 10 may be made of sapphire, quartz, K9, glass, transparent plastic, or other light-transmitting materials. Preferably, transparent crystal is used for the transparent substrate 10.

[0031] In this embodiment, the entire surface of the transparent substrate 10 is made of transparent crystal. The transparent substrate (transparent crystal) 10 is controlled to a constant temperature by the temperature sensor assembly 30. The transparent crystal covering the entire surface is covered on the large window at the tip of the beauty mirror, and a large light-emitting surface is formed as a mirror surface. The light-emitting surface is close to the size of the entire front surface of the beauty mirror, whereby it becomes possible to perform beauty treatment over a large area of the whole body and enables quick and efficient use.

[0032] The filter sheet 11 is adhered to one side of the transparent substrate (transparent crystal). Exemplarily, the shape of the filter sheet 11 conforms to the shape of the entire transparent crystal. For example, both are circular. The filter sheet 11 is adhered to the entire surface of the transparent crystal. For example, it is bonded to the inner surface of the transparent crystal, and moreover, it closes the light-emitting port of the light reflection member 21 and confines the tungsten wire or carbon wire light source 20 within the light reflection member 21.

[0033] The filter sheet 11 of this embodiment may be arranged individually, and may adopt a type in which one sheet corresponds to a single wavelength band, a type in which one sheet corresponds to multiple wavelength bands, a type in which one sheet is coated by region, a multi-sheet type, etc. The filter sheet may be manufactured by a conventional technique. Exemplarily, the filter sheet or the following filter film is manufactured by an optical coating process.

[0034] In some embodiments, the filter sheet 11 is manufactured by forming a coating layer on the surface of a transparent base by a coating process. Examples of the coating process include vapor deposition, ion beam sputtering (IBS), plasma sputtering, atomic layer deposition (ALD), etc. The vapor deposition process means that during vapor deposition, the source material in the vacuum chamber is heated or irradiated with an electron beam to evaporate. The vapor condenses on the surface of the transparent base, forming a uniform coating layer. In the ion beam sputtering (IBS) process, the ion beam is accelerated by a high-energy electric field. Due to such acceleration, the ions obtain significant kinetic energy. When the ion beam collides with the source material, the atoms of the target material are "sputtered". The ions of the target material sputtered in this way (the atoms become ions due to the influence of the ionization zone) also have kinetic energy. When they come into contact with the surface of the transparent base, a dense film is formed. The plasma sputtering process is a general term for a series of technologies such as plasma sputtering and magnetron sputtering. The ions in the plasma are accelerated and incident on the source material. After colliding with the ions of the low-energy source, they are sputtered onto the transparent base, forming a uniform coating layer. In the atomic layer deposition process, the source material for atomic layer deposition (ALD) exists in the form of a gas. In a high-temperature vacuum chamber, the gas-phase precursor is transported and deposited on the surface of the transparent base through non-overlapping pulses, forming a coating layer. The transparent base of the filter sheet 11 serves to support and transmit light. The coating layer becomes a filter film and is integrally (non-detachably) attached to the transparent base. In order to obtain the filter performance of transmitting a predetermined wavelength band, multilayer coatings or coatings using multiple materials by multiple processes are also possible.

[0035] In some embodiments, a coating layer is formed on the transparent base by the above coating process. According to the single-band wavelength coating, a filter sheet having a single-band wavelength in a single sheet that transmits a single-band wavelength band, for example, a single-band filter sheet that transmits a wavelength band of 500 to 1800 nm, 900 to 1800 nm, or 500 to 600 nm can be obtained. Or, according to the multi-band wavelength coating, a multi-wavelength band filter sheet that transmits multiple wavelength bands simultaneously, for example, a dual-wavelength band filter sheet that transmits a wavelength band of 500 to 600 nm + 900 to 1800 nm obtained by a double-band wavelength coating can be obtained. Or, a multi-zone filter sheet that transmits different wavelength bands for each region can be obtained by coating the transparent base region by region. For example, in the filter sheet obtained by coating for each region, there is a zone A that transmits light in the wavelength band of 500 to 600 nm and a zone B that transmits light in the wavelength band of 900 to 1800 nm.

[0036] As the filter sheet 11, a filter sheet according to the prior art can be used. By switching to various filter sheets 11, treatment with various wavelength bands corresponding to various skin troubles becomes possible.

[0037] In some embodiments, a one-way transmissive filter sheet or filter film may be obtained by an optical coating process. For example, one side (e.g., the side facing the light source) transmits near-infrared light but filters visible light, and the other side (e.g., the side facing the user) reflects light. When the beauty mirror of the present application is used as a dressing mirror, the filter sheet 11 provided inside or the filter film coated on the transparent substrate has one-way transmissivity. That is, in the filter sheet or filter film, one side reflects light, and the other side filters out unnecessary wavelength bands and transmits a predetermined wavelength band. For example, it cannot transmit visible light but can transmit near-infrared light, which is invisible light. When the filter sheet (film) can transmit near-infrared light, visible light cannot pass through the filter sheet (film), and preferably, light in a wavelength band of 760 nm or more can be transmitted.

[0038] The beauty mirror 1000 may be set to a photon beauty mode and a makeup mode. When the photon beauty mode is not turned on, it can be used as a dressing mirror. When used as a dressing mirror, the clarity of the mirror surface is high, and the skin is reflected more reliably. In the photon beauty mode, the beauty mirror uses a tungsten wire light source or a carbon fiber light source to generate full-spectrum light including visible light and invisible light. When these lights are filtered by the filter sheet 11, light in a predetermined wavelength band is obtained to perform beauty or treatment on the skin.

[0039] In the filter sheet or filter film obtained by optical coating, the molecular structure in the microscopic state of the reflective layer is finer, the film is thinner and more uniform, and the reflectivity is higher. Therefore, when used as a dressing mirror, the clarity is higher.

[0040] In this embodiment, as the light source, a tungsten wire or carbon wire light source 20 is installed inside a light reflecting member 21 to form a light source assembly, which reflects light rays and emits them onto a transparent substrate (transparent crystal) 10. The light reflecting member 21 is made of a heat conductive material, and its edge conforms to the edges of the tips of the front housing 110 and the rear housing 120, and is engaged and fixed between the front and rear housings. Exemplarily, the light reflecting member is (partially) spherical, the edge is locked by the front housing 110, the tungsten wire or carbon wire light source 20 is installed at the center of the inner top, a bush is formed at the center of the top of the light reflecting member 21, a through hole is provided in the bush, the bush protrudes from the inside of the light reflecting member to the back, the tungsten wire or carbon wire light source 20 is inserted into the bush, and its electrodes extend backward from the bush and are inserted into the main control board 50.

[0041] A heat radiating member 22 is provided on the back surface of the light reflecting member. The shape of the heat radiating member 22 conforms to the shape of the light reflecting member 21 and the shapes of the front housing 110 and the rear housing 120, and it is provided in close contact with the back surface of the light reflecting member 21 to efficiently conduct heat transfer, or the heat radiating member 22 and the light reflecting member 21 have an integrated structure. The edge of the heat radiating member 22 is locked to the front housing 110. The inner surface of the heat radiating member 22 and the back surface of the light reflecting member conform in shape. Exemplarily, both are spherical surfaces, and they are arranged with the maximum contact area and are in close contact with each other. A through hole is provided at the center of the heat radiating member 22, and the bush provided at the center of the top of the light reflecting member 21 passes through the through hole at the center of the heat radiating member 22 to support the heat radiating member 22. The heat radiating member 22 is a heat transfer structure and may be made of a single heat conductive material such as aluminum, copper, graphene, etc., or may be a component using phase change (evaporation and condensation) such as a heat pipe, a vapor chamber VC, a super heat pipe, or a super heat plate such as an ALVC (aluminum super heat pipe or aluminum super heat plate).

[0042] The heat shield 40 is attached outside the rear sides of the light reflection member 21 and the heat dissipation member 22. Exemplarily, a through hole is provided at the center of the heat shield 40. The bush provided at the center of the top of the light reflection member 21 passes through the through hole at the center of the heat dissipation member 22 and the through hole at the center of the heat shield 40, and then abuts against the main control board. When the tungsten wire or carbon wire light source 20 is attached to the bush, its electrodes pass through the through hole of the heat shield and are then electrically connected to the main control board 50. The heat shield 40 may be manufactured from a heat-insulating material with a shape that conforms to the shape of the inner wall of the rear housing 120 and is press-fitted into the inner wall of the rear housing, separating the cavity inside the rear housing front and back and separating the light source assembly and the main control board 50 to protect the main control board 50. Exemplarily, the heat shield 40 is disk-shaped.

[0043] The main control board 50 is installed in the cavity defined by the heat shield 40 and the rear housing 120. The main control board 50 is electrically connected to the switch assembly, electrically connected to the tungsten wire or carbon wire light source 20, electrically connected to the temperature sensor assembly 30, electrically connected to the battery 60, and electrically connected to the power interface 130. The main control board 50 is provided with circuits and functional modules according to the needs of functions. In these circuits or functional modules, the corresponding electronic elements may be installed according to the prior art or purchased as commercial products. Exemplarily, the main control board 50 is provided with a power module, a control unit, an RF module, a temperature control module, etc.

[0044] The battery 60 may be a rechargeable battery charged via the power interface 130, or a replaceable primary battery. Also, instead of providing the battery 60, power supply may be directly performed by electrically connecting to an external power source via the power interface 130. The battery 60 is also installed in the cavity defined by the heat shield 40 and the rear housing 120.

[0045] The power interface 130 is electrically connected to the main control board, passes through the through-hole of the housing 100, and is connected to an external power supply. Exemplarily, the power interface 130 is provided in the rear housing 120.

[0046] A switch assembly is provided in the housing 100, and a power on / off button, a light source control key, a mode setting key, an RF switch, etc. are provided as required.

[0047] In this embodiment, the temperature sensor assembly 30 is a temperature sensor PCBA, which may be a flexible PCBA, but is not limited thereto, and may be other temperature sensors according to the prior art. The temperature sensor assembly 30 has its front end in contact with the transparent substrate to detect the temperature of the transparent substrate, and its rear end is electrically connected to the main control board 50 to transmit temperature information to the control unit of the main control board. When the light from the tungsten wire or carbon wire light source 20 is filtered by the filter sheet 11, passes through the transparent substrate 10, and irradiates the skin, the temperature of the transparent substrate is detected by the temperature sensor assembly 30, and the power and on / off of the tungsten wire or carbon wire light source 20 are controlled by the main control board 50 to manage the temperature range, thereby avoiding skin burns caused by long-term use.

[0048] In the beauty mirror 1000 of this embodiment, the light from the tungsten wire or carbon wire light source passes through the filter sheet 11, passes through the transparent substrate 10, and irradiates the skin in close contact at a constant temperature. The filter sheet 11 obtains light waves in a predetermined wavelength band, and these light waves act accurately on the skin to achieve the purpose of beauty and skin care. For example, the light from the light source acts on the epidermis layer of the human body from the light emitting surface after passing through the filter sheet 11 that transmits the wavelength band in the range of 500 - 600 nm, and the light from the light source acts on the basal layer and melanocytes of the human body from the light emitting surface after passing through the filter sheet 11 that transmits the wavelength band in the range of 900 - 1800 nm.

[0049] The mirror for skin beautification in this embodiment aims to achieve multi-functional utilization of the device. It has a photon skin beautification mode and a makeup mode, and is implemented as a beauty device equipped with a makeup mirror and a large window, thereby significantly reducing the consumer's usage cost, shortening the usage time, and reducing the maintenance cost. In the makeup mode, since an optical coating is used on the filter sheet 11, compared with a normal mirror produced by a spraying process, the mirror surface of the mirror for skin beautification in this embodiment becomes more delicate when used in the makeup mode. Because the molecular structure of the optical coating process is finer than that of the spraying process, the clarity of the mirror surface is higher. In the makeup mode, the tungsten wire or carbon wire light source is turned off. In the skin beautification mode, the skin beautification mode can be selected by a function selection button, or the tungsten wire or carbon wire light source 20 can be turned on by turning the light source on and off. In the latter case, the light from the tungsten wire or carbon wire light source passes through the filter sheet 11 to obtain light in a predetermined wavelength band, which is closely attached to the skin through the transparent substrate 10 and irradiated. The size of the light emitting surface is close to the size of the entire front surface of the mirror for skin beautification, thereby enabling skin beautification over a large area of the whole body and allowing for quick and efficient use.

[0050] As shown in FIGS. 4 to 5, in the beauty mirror 1000 of the second embodiment of the present application, compared with the first embodiment, in the filter sheet 11 (including a transparent base and a coating layer on the base) of the second embodiment, a transparent substrate (transparent crystal) 10 is used instead of the transparent base. Specifically, an integral (non-separable) coating layer is formed on the surface of the transparent substrate (transparent crystal) 10 by an optical coating process, and the point that a transparent substrate 10 with a filter function is obtained is different. Light from the tungsten wire or carbon wire light source 20 passes through the transparent substrate 10 with a filter function (filter film), and light waves in a predetermined wavelength band are obtained and act on the skin. The transparent substrate 10 with a filter function (filter film) may be obtained by applying a single-section wavelength band coating, a multi-section wavelength band coating, or an area-by-area coating to the surface of the transparent substrate 10, and the above optical coating method is adopted. Preferably, the filter film having an integral structure with the transparent substrate 10 transmits the wavelength band in the section of 760 nm or more, and the light from the light source passes through the transparent substrate 10 with a filter function (filter film), and the light in the wavelength band in the section of 760 nm or more is obtained and irradiated onto the surface of the skin. Similar to the first embodiment, the beauty mirror 1000 of the second embodiment also has a makeup mode (functioning as a makeup mirror) and a photon beauty mode. In the second embodiment, for the same structure and configuration as in the first embodiment, the description of the first embodiment above is cited, and thus will not be described in detail here.

[0051] As shown in FIGS. 6 to 9, the beauty mirror of the third embodiment of the present application has a makeup mode as a makeup mirror and a photon beauty mode. Compared with the first embodiment, it is different in that a semiconductor cooling member 10' having a transparent substrate is used instead of the transparent substrate 10. The semiconductor cooling member is also called a thermoelectric cooler (TEC), a heat pump or a Peltier cooler, and includes a semiconductor particle layer 12 in the middle, and a hot surface 13 and a cold surface 15 at both ends. In addition, a pair of positive and negative electrodes for electrically connecting the circuit of the semiconductor cooling member to the control unit of the main control board 50 provided thereon or a separately provided control board are included, and the separately provided control board is electrically connected to the main control board 50. Here, the hot surface 13 and / or the cold surface 15 are provided as a transparent substrate (for example, a transparent crystal). Exemplarily, the cold surface 15 uses a transparent substrate to close the window on the front surface of the beauty mirror to form a large mirror surface. Preferably, the entire surface is a transparent crystal and can be in contact with the skin. The hot surface 13 and the semiconductor particle layer 12 of the semiconductor cooling member 10' are provided in an annular shape. The hot end circuit (for example, a conductor) provided on the annular tape at the edge of the transparent substrate cold surface 15 is welded and electrically connected to the cold end of the semiconductor particle layer. A hot end circuit (for example, a conductor) is provided on the hot surface 13, welded to the hot end of the semiconductor particle layer, and electrically connected to communicate with the internal circuit of the semiconductor cooling member and electrically connected to the control unit through the positive and negative electrodes. The cold surface of the transparent substrate corresponding to the intermediate region between the annular hot surface and the semiconductor particle layer may be used as a light emitting surface, and may be configured as a large-area light emitting surface similar to the entire front surface of the beauty mirror. The hot surface of the semiconductor cooling member is connected to a heat dissipation member 16 to dissipate the heat of the hot surface of the semiconductor cooling member. The heat dissipation member 16 is a heat transfer structure and may be manufactured from a single heat conductive material such as aluminum, copper, graphene, etc., or may be a component using phase change (evaporation and condensation) such as a heat pipe, a vapor chamber VC, a super heat pipe, or a super heat plate such as an ALVC (aluminum super heat pipe or aluminum super heat plate). In this embodiment, the heat dissipation member 16 is annular, and the annular end face quickly performs heat transfer with the annular hot surface 13 of the semiconductor cooling member, and they may be provided in close contact with each other.The annular heat dissipation member 16 may be fitted to the outer wall at the tip of the light reflection member and conduct heat in contact with each other. The filter sheet 11 has a shape that conforms to the shape of the semiconductor cooling member and the light exit port of the light reflection member. In this embodiment, the filter sheet 11 is provided individually and has a shape that conforms to the shape of the semiconductor cooling member. For example, both are circular. The filter sheet 11 closes the light exit port of the light reflection member 21 and confines the tungsten wire or carbon wire light source 20 within the light reflection member 21. The filter sheet 11 approaches the inner surface of the cold surface 15 of the transparent substrate. The filter sheet 11 may be obtained by applying an optical coating to a transparent base, or may be a filter sheet that transmits multiple wavelength bands (for example, two wavelength bands of 500~600nm + 900~1800nm) by applying a multi-section wavelength band coating to the transparent base, or may be a single-section filter sheet that transmits a single-section wavelength band (for example, 500~1800nm or 900~1800nm or 500~600nm section) to a single-section wavelength band filter sheet.

[0052] In the third embodiment, the semiconductor cooling member 10' having the cold surface of the transparent substrate is circular as a whole, the edge of the circle is locked within the annular front housing 110, the large window at the tip of the housing 100 is closed, and a large light exit surface, that is, a large mirror surface, is formed. The cold surface 15 of the transparent substrate is controlled to a constant temperature by the temperature sensor assembly 30. Similar to the above-described embodiment, the beauty mirror 1000 with a tungsten wire or carbon wire light source in this embodiment includes the housing 100, and the transparent substrate (having a semiconductor cooling member on the cold surface of the transparent substrate) 10, the filter sheet 11, the heat dissipation member 16, the tungsten wire or carbon wire light source 20, the light reflection member 21, the light reflection member heat dissipation member 22, the temperature sensor assembly 30, the heat shield 40, the main control board 50, and the battery 60, which are mounted within the housing 100. In the third embodiment, for the same structures and configurations as those in the foregoing embodiments, refer to the foregoing embodiments.

[0053] As shown in FIG. 10, the beauty mirror 1000 of the fourth embodiment of the present application has a makeup mode (as a makeup mirror) and a photon beauty mode. Compared with the beauty mirror of the third embodiment, the filter sheet 11 is not provided individually, but is different in that a coating layer is formed on the surface of the cold surface 15 of the transparent substrate by an optical coating process. Exemplarily, a filter coating layer is coated on the inner surface (the side facing the light source) of the cold surface 15 of the transparent substrate, and the cold surface 15 of the transparent substrate and the filter film have an integrated structure, whereby a transparent substrate semiconductor cooling member 10' with a filter function is obtained. Light from the tungsten wire or carbon wire light source 20 passes through the transparent substrate semiconductor cooling member 10' integrated with the filter film, and light waves in a wavelength band of a predetermined section are obtained and irradiated onto the skin. The transparent substrate semiconductor cooling member 10' with a filter function (filter film) may be a single-section wavelength band coating or a multi-section wavelength band coating. Exemplarily, the transparent substrate semiconductor cooling member 10' with a filter function (filter film) has a filter function of transmitting a wavelength band in a section of 760 nm or more, and light from the light source passes through the transparent substrate semiconductor cooling member 10' with a filter function (filter film), and light waves in a wavelength band in a section of 760 nm or more are obtained and irradiated onto the surface of the skin, and light in a wavelength band in a section of 760 nm or more is obtained and irradiated onto the surface of the skin. In the fourth embodiment, for the same structures and configurations as those in the foregoing embodiments, refer to the foregoing respective embodiments.

[0054] As shown in FIGS. 11 to 16, the beauty mirror 1000 of the fifth embodiment of the present application has a makeup mode (as a makeup mirror) and a photon beauty mode. Referring to the structure of the first embodiment, in this embodiment, the filter sheet 11 of the beauty mirror 1000 is removable and replaceable, which is different. A protective ring 17 is fitted outside the transparent substrate 10. When the protective ring 17 is fitted to the outer edge of the transparent substrate 10, it is assembled integrally with the transparent substrate 10 and assembled to the annular inner side of the front housing 110. A removable fitting structure such as magnetic adsorption, buckle, or screw may be formed between the protective ring 17 and the front housing 110. Thereby, the transparent substrate 10 is removably attached to the front housing 110 via the protective ring 17, and the transparent substrate 10 is integrally coupled to the tip of the rear housing 120 to form a large-area light-emitting surface. The filter sheet 11 is removably locked to the annular inner side of the front housing 110. In this embodiment, the replacement of the filter sheet 11 is performed by removing the transparent substrate 10. When the replacement of the filter sheet 11 is required, first, the transparent substrate 10 is removed, then the filter sheet 11 is taken out, another filter sheet 11 is mounted, and finally, the transparent substrate 10 with the protective ring 17 fitted is mounted to the tip of the housing. In this embodiment, the filter sheet 11 is provided individually. The filter sheet 11 has the characteristics of a filter for a wavelength band in a predetermined section by applying an optical coating to a transparent base, and the filter sheet may also be obtained by other methods of the prior art. Since the plurality of filter sheets 11 have filter characteristics for different wavelength bands, by switching the filter sheet 11, treatment with various wavelength bands for dealing with various skin troubles becomes possible.Exemplarily, the filter sheet 11 is an NIR (near-infrared light wave) filter sheet that can transmit near-infrared light waves but cannot transmit invisible light. It can be a high-precision optical filter sheet, that is, it can transmit a single wavelength band, such as 500-600 nm or 500-650 nm, or it can be a multi-band wavelength filter sheet, that is, in the same coating area, it can transmit two or more wavelength bands, such as two wavelength bands of 500-600 and 900-1800 nm, so as to obtain light waves of two or more wavelength bands that act on the skin.

[0055] The beauty mirror 1000 with a tungsten wire or carbon wire light source according to the fifth embodiment includes a housing 100, a transparent substrate 10, a filter sheet 11, a tungsten wire or carbon wire light source 20, a light reflecting member 21, a heat radiating member 22 for the light reflecting member, a temperature sensor assembly 30, a heat insulating plate 40, a main control board 50, and a battery 60, which are installed in the housing 100. The housing 100 includes a front housing 110 and a rear housing 120 that are coupled to each other. The transparent substrate 10 is entirely a transparent crystal, and a protective ring 17 is fitted into its edge. The protective ring 17 is fitted to the transparent substrate 10 by an interference fit and a fitting structure of protrusions and grooves. The transparent substrate (transparent crystal) 10 is controlled to a certain temperature by the temperature sensor assembly 30. The transparent substrate 10 provides a large-area light emitting surface as a whole. The filter sheet 11 is provided inside the transparent substrate 10 and is removably fixed by the annular front housing 110, but it may also be removably fixed by the rear housing 120. Exemplarily, the filter sheet 11 is bonded to the inner surface of the transparent substrate 10 and closes the light emitting port of the light reflecting member 21, confining the tungsten wire or carbon wire light source 20 to the light reflecting member 21, and the light from the tungsten wire or carbon wire light source passes through the filter sheet 11 and the transparent substrate 10 and acts on the skin. A heat radiating member 22 is provided on the back surface of the light reflecting member. In the fifth embodiment, for the same structures and configurations as those in the foregoing embodiments, reference is made to the above embodiments.

[0056] As shown in FIGS. 17 to 18, the beauty mirror 1000 of the sixth embodiment of the present application has a makeup mode as a makeup mirror and a photon beauty mode, and is configured as a structure of an exchangeable filter sheet 11. The filter sheet 11 is exchangeably inserted and removed from the side surface of the housing 100. A filter sheet slot 150 is provided on any side surface of the housing 100 corresponding to the position of the filter sheet 11 inside the housing 100. The filter sheet 11 is fixed to the support 111. The filter sheet 11 and the support 111 have a shape adapted to the slot 150 and are inserted into the slot 150. In order to facilitate the insertion and removal of the filter sheet 11, the support 111 may protrude outside the slot 150. The filter sheets 11 are provided individually. The filter sheet 11 may have a filter characteristic of transmitting a wavelength band in a predetermined section by applying an optical coating to a transparent base. The plurality of filter sheets 11 have different wavelength bands, and by switching the filter sheets 11, treatment with various wavelength bands corresponding to various skin problems is possible. In this embodiment, the housing 100 is configured as a quadrilateral, but is not limited to a quadrilateral. A window for attaching the transparent substrate 10 is provided at the tip of the housing. The edge of the transparent substrate 10 is locked to the edge of the window at the tip of the housing 110, providing a large light emission surface. Inside the housing, a filter sheet 11, a tungsten wire or carbon wire light source 20, a light reflecting member 21, a heat radiating member 22 for the light reflecting member, a temperature sensor assembly 30, a heat insulating plate 40, a main control board 50, and a battery 60 are attached. Exemplarily, the filter sheet 11 is bonded to the inner surface of the transparent substrate, closes the light emission port of the light reflecting member 21, confines the tungsten wire or carbon wire light source 20 to the light reflecting member 21, and the light from the tungsten wire or carbon wire light source 20 passes through the filter sheet 11 and the transparent substrate 10 and acts on the skin. A heat radiating member 22 is provided on the back surface of the light reflecting member, and the temperature sensor assembly 30 and the main control board 50 control the temperature of the surface of the transparent substrate in contact with the skin.When the tungsten wire or carbon wire light source 20 irradiates the skin through the filter sheet 11 and the transparent substrate (transparent crystal) 10, the temperature of the transparent substrate is detected by the temperature sensor assembly 30, and the power and on / off of the tungsten wire or carbon wire light source 20 are controlled by the main control board 50 to manage the temperature range, thereby avoiding skin burns caused by long-term use. The transparent substrate 10 may be a transparent crystal as a whole or a semiconductor cooling member 10' having the transparent substrate cold surface 15 in the above embodiment. In the sixth embodiment, for the same structure and configuration as those in the foregoing embodiments, refer to the above embodiments.

[0057] As shown in FIGS. 19 to 23, the beauty mirror 1000 of the seventh embodiment of the present application has a makeup mode (functioning as a makeup mirror), a photon beauty mode, and an RF beauty mode, and an RF accessory head 80 is attached to the tip of the main body of the beauty mirror. The RF accessory head 80 includes an RF electrode 82. Exemplarily, the RF accessory head 80 is in contact with and connected to the main body of the beauty mirror, or is connected with a pin / insert. The beauty mirror 1000 includes a housing 100, a transparent substrate 10, a filter sheet 11, a tungsten wire or carbon wire light source 20, a light reflecting member 21, a heat radiating member 22 for the light reflecting member, a temperature sensor assembly 30, a heat insulating plate 40, a main control board 50, and a battery 60, which are mounted in the housing 100. The transparent substrate 10 is entirely made of transparent crystal, and a protective ring 17 is fitted into its edge. The protective ring 17 may be fitted to the transparent substrate 10 by an interference fit and a fitting structure of protrusions and grooves. The transparent crystal provides a large-area light emitting surface as a whole. The transparent crystal is controlled to a certain temperature by the temperature sensor assembly 30. The filter sheet 11 is provided on one side of the transparent crystal and is attached via an annular front housing 110 or a rear housing 120. Exemplarily, the filter sheet 11 is bonded to the inner surface of the transparent substrate (transparent crystal) 10 and closes the light emitting port of the light reflecting member 21 to confine the tungsten wire or carbon wire light source 20 to the light reflecting member 21. A heat radiating member 22 is provided on the back surface of the light reflecting member. The heat insulating plate 40 separates the cavity in the rear housing 120 front and back, and the main control board 50 and the battery 60 are mounted in the cavity of the rear housing 120 closed by the heat insulating plate 40.

[0058] The main control board 50 controls the operation of the beauty mirror 1000. In addition to integrating a control unit, the main control board 50 is provided with related functional modules such as a DC power supply module and a light source control module. The tungsten wire or carbon wire light source 20 and the battery 60 are electrically connected to the main control board 50. The power interface 130 is electrically connected to the power supply module of the main control board 50, and is connected to an external power supply via a power cord to provide power. If the battery 60 is not provided, power supply may be directly connected to the power supply via the power interface.

[0059] An RF control board may be installed in the housing 100. The RF control board is provided with functional modules such as a control module, a DC power supply module, and an RF drive module. When the RF control board is provided separately, the RF control board is electrically connected to the main control board 50, and the DC power supply module of the RF control board is powered by shunting from the power supply module of the main control board 50. In another embodiment, the RF control board is integrated with the main control board 50. In this case, functional modules such as a control module, a DC power supply module, and an RF drive module are integrated with the main control board 50.

[0060] The RF attachment head 80 includes an electrode fixing bracket 81 and one or more pairs of RF electrodes 82 attached through the electrode fixing bracket 81. Positive and negative electrodes 83 are provided at the ends of each pair of RF electrodes 82, and the positive and negative electrodes 83 are electrically connected to the RF control board or the main control board 50 via an electric wire 85. The RF attachment head 80 is removably connected to the tip of the beauty mirror 1000 by insertion, coupling, or magnetic adsorption. Exemplarily, a plurality of magnets 84 may be attached to the fixing bracket 81. In such a case, a plurality of magnets 84 are attached inside the tip of the housing of the beauty mirror, for example, inside the front housing 110, and the RF attachment head 80 and the beauty mirror are magnetically adsorbed. The overall shape of the fixing bracket 81 conforms to the shape of the window of the housing 100 or the transparent substrate 10 and is assembled outside the window of the housing 100 or the transparent substrate 10. The fixing bracket 81 is provided with mounting holes 810, and the RF electrodes 82 are fitted into the mounting holes 810 to conform to the mounting holes 810. Exemplarily, a flange or a protrusion is formed around the fixing bracket 81, and a spacer or an engagement groove is formed between the edge of the front housing 110 and the transparent substrate 10. The flange or the protrusion of the fixing bracket 81 is inserted and fitted into the spacer or the engagement groove between the edge of the front housing and the transparent substrate, and the RF attachment head 80 may be removed by pulling it out of this spacer or engagement groove. A notch is formed in the flange of the fixing bracket 81, and the positive and negative electrodes 83 of the RF electrode penetrate through the notch and are electrically connected to the main control board or the individual RF control board inside the beauty mirror body.

[0061] Exemplarily, the fixed bracket 81 is a disk as a whole (but not limited thereto) and is adapted to the circular transparent substrate and the annular front housing 110. The fixed bracket 81 is provided with mounting holes 810 that are spirally wound. A pair of spiral RF electrodes 82 are locked in the mounting holes 810 that are spirally wound so as to be fitted into each other. A pair of positive and negative electrodes 83 are formed at one end of each of the pair of RF electrodes 82. The positive and negative electrodes are bent and inserted into spacers or through holes between the edge of the transparent substrate 10 and the annular front housing 110, and are wired to the inner wall of the housing via the electric wire 85, and then are electrically connected to the main control board 50 (or the RF control board). The RF electrode 82 may be in a long shape, a column shape, or any appropriate shape, and is attached to the mounting hole of the fixed bracket 81 to become an RF electrode point, which contacts the skin. The RF electrode 82 and the light emitting surface are provided so as to be stackable or are provided around the light emitting surface. The RF control board or the main control board 50 controls the DC power module to supply the necessary voltage to the corresponding gear to the RF drive module. The RF drive module converts the DC power supply voltage into a high voltage sine wave by means of a step-up transformer and outputs it to the control module. The output control module outputs an RF current through the RF electrode 82 to act on the user's skin, and performs RF treatment or RF beauty treatment on the skin.

[0062] In the seventh embodiment, the transparent substrate 10 may be a complete transparent crystal or a semiconductor cooling member 10' having the transparent substrate cold surface 15 in the above embodiment. In this embodiment, for the same structures and configurations as those in the foregoing embodiments, refer to the above embodiments.

[0063] By combining or replacing the components of the beauty mirror 1000 in each of the above embodiments with each other, beauty mirrors in various embodiments can be obtained.

[0064] In the beauty mirror 1000 of the embodiment of the present application, light from a tungsten wire or carbon wire light source passes through the filter sheet / filter film, passes through the transparent substrate, and irradiates the skin in close contact at a constant temperature, and light waves in various wavelength bands act accurately on the epidermis layer, basal layer, melanocytes, and dermal tissue of the skin to achieve the purpose of beauty and skin care. Exemplarily, the emitted light has a wavelength band in the range of 500 to 600 nm that acts on the epidermis layer of the human body, and light waves in the wavelength band of 900 to 1800 nm that act on the basal layer and melanocytes of the human body, etc.

[0065] The beauty mirror of the embodiment of the present application is designed to be used as a combination of a dressing mirror and a beauty device with a large window, which can significantly reduce the consumer's usage cost, shorten the usage time, and lower the maintenance cost.

[0066] In the dressing mode of the beauty mirror of the embodiment of the present application, the filter sheet or filter film achieves a mirror effect by optical coating, and the mirror surface becomes more delicate compared to a normal mirror using a spray process. Since the molecular structure of the optical coating process is finer than that of the spray process, a mirror surface is formed by the transparent substrate integrated with the optical coating filter sheet or filter film of the present application, and its clarity is higher.

[0067] In the skin care mode of the beauty mirror of the embodiment of the present application, the size of the light emitting surface is close to the size of the front surface (the entire mirror surface) of the beauty mirror, so that it is possible to perform skin care over a large area of the whole body, enabling quick and efficient use.

[0068] In the beauty mirror according to the embodiment of the present application, as the light source, a full wavelength band light source is used. It has a wide spectrum range, and the filtered near-infrared light has a high repair and activation effect on any of the human skin, blood vessels, dermal tissue, collagen, and elastic fibers. A tungsten wire or carbon wire light source is used. By using a tungsten wire or carbon wire light source, precise beauty repair can be performed on the skin with filter sheets of various wavelength bands. Therefore, the beauty mirror of the present application is characterized by high efficiency, speed, and simplicity.

[0069] In the beauty mirror according to the embodiment of the present application, the filter sheet is of a type where a single sheet corresponds to a wavelength band of a single section, or a type where a single sheet corresponds to a multi-section wavelength band formula, or a multi-sheet type, or a type with multi-zones on a single sheet, or a type where a transparent substrate (for example, transparent crystal) and a coating are integrated. When the full-spectrum light from a tungsten wire or carbon wire light source is filtered, light of more wavelength bands in sections can be obtained, and the light waves act precisely on the epidermal layer, basal layer, melanocytes, and dermal tissue of the skin, achieving the purpose of beauty and skin care.

[0070] In the beauty mirror according to the embodiment of the present application, the temperature sensor controls the temperature of the transparent substrate to a constant temperature. When the light from a tungsten wire or carbon wire light source passes through the filter sheet / filter film and the transparent substrate and irradiates the skin, the temperature of the transparent substrate is detected by the temperature detection device, and the power and on / off of the tungsten wire or carbon wire light source are controlled by the main control board 50, and temperature range management is performed, thereby avoiding skin burns caused by long-term use.

[0071] In the beauty mirror according to the embodiment of the present application, active temperature control is used, and cooling is performed by a semiconductor cooling member to control the temperature of the transparent substrate within a predetermined range.

[0072] In the beauty mirror according to the embodiment of the present application, RF is used assistively. For example, by NIR+RF, various light wavelength band + RF treatments are realized.

[0073] Regarding the beauty mirror in the following embodiments of the present application, the usage method is as follows. When used as a dressing mirror, it can be held by hand or placed on a table for use. When used in the beauty mode, hold the device by hand and closely attach the outer surface of the transparent substrate to the skin for use.

[0074] Although the embodiments of the present application are shown and described, for those skilled in the art, these embodiments can be variously changed, modified, substituted, and deformed without departing from the principle and spirit of the present application. It is understood that the protection scope of the present application is limited by the appended claims and their equivalent scope.

Claims

1. A beauty mirror with a tungsten wire or carbon wire light source, comprising a housing, a main control board mounted inside the housing, and a light source assembly and a power supply assembly electrically connected to the main control board, wherein the light source assembly includes a tungsten wire or carbon wire light source, a window is formed on the front surface of the housing, further comprising a transparent substrate that closes the window to form a light-emitting surface that becomes a mirror surface, a filter film is integrally coated on the surface of the transparent substrate to obtain a transparent substrate with a filtering function, and / or a filter sheet is attached inside the transparent substrate, light from the tungsten wire or carbon wire light source passes through the filter film and / or the filter sheet and is filtered to obtain light in a predetermined wavelength band, which passes through the light-emitting surface and irradiates the skin, the housing includes an annular front housing and a hemispherical or substantially hemispherical rear housing, the front housing is connected to the opening at the tip of the rear housing to form the window, and the light-emitting surface substantially has the size of the entire front surface of the beauty mirror excluding the front housing, the power supply assembly includes a battery and / or a power supply interface, and power is connected to the power supply interface for power supply, the light source assembly further includes a light reflection member, and the tungsten wire or carbon wire light source is mounted inside the light reflection member, a light reflection member heat dissipation member is provided on the back surface of the light reflection member, the light reflection member heat dissipation member has a conforming shape and performs rapid heat transfer by being provided in close contact, or the light reflection member heat dissipation member has an integral structure, a bush is provided on the light reflection member, a through hole is provided in the bush, the tungsten wire or carbon wire light source is inserted into the bush, and its electrodes extend backward from the bush and penetrate the through hole and are electrically connected to the main control board, the bush protrudes from the inside of the light reflection member to the back surface, and the light reflection member heat dissipation member is provided with a through hole for fitting the light reflection member heat dissipation member onto the bush, The light-reflecting member heat dissipation member is one or a combination of one or more selected from a heat pipe, a vapor chamber, a super heat pipe, a super heat plate, a heat conduction element made of a single heat conductive material, or heat dissipation fins, A heat shield plate is provided on the back side of the light-reflecting member heat dissipation member in the housing, which confines the main control board in the cavity in the housing and isolates it from the light source assembly. A through hole for fitting into the bush is provided at the center of the heat shield plate. The light-reflecting member and the light-reflecting member heat dissipation member are hemispherical. The main control board and the power supply assembly are attached in a cavity defined by the heat shield plate and the rear housing, and the beauty mirror is characterized by this.

2. The filter sheet is formed by applying an optical coating to a transparent base, or an integrated transparent substrate with a filter function is formed by applying an optical coating to the surface of a transparent substrate. The filter sheet or filter film that transmits a single wavelength band by coating a single wavelength band, or the filter sheet or filter film that simultaneously transmits multiple wavelength bands by coating multiple wavelength bands is formed. The beauty mirror according to claim 1 is characterized by this.

3. A plurality of filter sheets are arranged in the beauty mirror, and the plurality of filter sheets are detachably attached in the light emission direction of the tungsten wire or carbon wire light source to filter the light from the tungsten wire or carbon wire light source. The filter sheet is replaced by removing the transparent substrate, or the housing is provided with slots and is replaced by inserting and removing. The beauty mirror according to claim 1 is characterized by this.

4. A temperature sensor is further provided in the housing. One end of the temperature sensor is connected to the transparent substrate to detect the temperature of the transparent substrate, and the other end is electrically connected to the main control board. The power and switch of the tungsten wire or carbon wire light source are controlled through the main control board to control the temperature of the transparent substrate. The beauty mirror according to claim 1 is characterized by this.

5. It further includes a semiconductor cooling member including a semiconductor particle layer in the middle and cold surfaces and hot surfaces at both ends. The cold surface of the semiconductor cooling member is connected to the transparent substrate in a heat-transferable manner to cool the transparent substrate, or the transparent substrate directly functions as the cold surface of the semiconductor cooling member, A semiconductor cooling member heat dissipation member is connected to the heat surface, The semiconductor cooling member heat dissipation member is one or a combination of one or more selected from a heat pipe, a vapor chamber, a super heat pipe, a super heat plate, heat dissipation fins, or a heat conduction element made of a single thermally conductive material. The beauty mirror according to claim 1, wherein

6. The semiconductor cooling member is in an annular shape and is adhered to the back surface of the transparent substrate to cool the periphery of the light-emitting surface. The annular intermediate region of the semiconductor cooling member is a through hole through which light from a tungsten wire or carbon wire light source passes, or The cold surface of the semiconductor cooling member is the transparent substrate as a whole, closes the window to form a light-emitting surface, the semiconductor particle layer is arranged in an annular shape, the heat surface is annular, and the annularly arranged semiconductor particle layer is welded to the annular edge of the transparent substrate, and the light-emitting surface is formed by the cold surface of the transparent substrate, The semiconductor cooling member heat dissipation member is annular and contacts the heat surface to conduct heat, The transparent substrate further includes a protective ring fitted outside the edge of the transparent substrate, and the transparent substrate is assembled to the edge of the window of the housing through the protective ring, The transparent substrate is locked in the front housing. The beauty mirror according to claim 5, wherein

7. It has a makeup mode and a photon beauty mode, In the makeup mode, the beauty mirror functions as a makeup mirror, and the tungsten wire or carbon wire light source is turned off, In the beauty mode, the light tungsten wire or carbon wire light source is turned on, When functioning as a makeup mirror, the filter sheet or the filter film has one-way transparency. The beauty mirror according to any one of claims 1 to 6, wherein

8. The beauty mirror is hemispherical as a whole, The window is formed on the front surface of the housing, and the transparent substrate closes the window to form the light-emitting surface. The beauty mirror according to claim 7, wherein

9. It includes an RF assembly including one or more pairs of RF electrodes, The above-mentioned one or more pairs of RF electrodes are attached to the transparent substrate or removably connected to the front surface of the housing via an RF accessory head. The RF electrodes are electrically connected to a main control board or an RF control board, and the main control board or the RF control board controls so that the RF electrodes generate an RF current and act on the skin. The RF accessory head includes an electrode fixing bracket, and a mounting hole is provided in the electrode fixing bracket, and the RF electrode is mounted in the mounting hole. The positive and negative electrodes of the RF electrode are electrically connected to an RF control board or a main control board via an interface or an electric wire. The mirror for skin beautification according to any one of claims 1 to 6, characterized in that.

10. A flange or a protrusion is provided at an edge of the electrode fixing bracket, and a spacer or an engaging groove is provided at an edge of the window. The flange or the protrusion of the electrode fixing bracket fits into the spacer or the engaging groove provided at the edge of the window, and the RF accessory head is removably connected to the outside of the light emitting surface, and / or A magnet is attached to the electrode fixing bracket, and a magnet is attached inside the tip of the housing. The RF accessory head is attracted to the front surface of the housing by magnetic attraction. A pair of mounting holes are provided in the electrode fixing bracket. The pair of mounting holes are wound in a spiral shape and are formed in a nested manner. In this case, a pair of spiral RF electrodes are locked and mounted in the mounting holes wound in a spiral shape so as to fit into each other. The mirror for skin beautification according to claim 9, characterized in that.

11. The tungsten wire light source or the carbon wire light source includes a transparent cover and a light emitting material mounted inside the transparent cover. The inside of the transparent cover is evacuated or filled with an inert gas or a halogen gas. The light emitting material of the tungsten wire light source is a tungsten wire, and the light emitting material of the carbon wire light source is a carbon wire. The tungsten wire light source or the carbon wire light source generates full-spectrum light. The mirror for skin beautification according to any one of claims 1 to 6, characterized in that.

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