KR102019771B1 - Custom LED light device based on skin analysis - Google Patents

Abstract

The present invention relates to a customized LED ray irradiator in accordance with skin analysis, capable of performing the best treatment in accordance with a condition of each skin position, which comprises: a skin diagnosis device (D) for setting a position on the skin, and performing measurement for each position; a smartphone (A) in which an application mode realized with a function for control is installed; and a control unit (F) for radiating and controlling rays of an LED.

Description

Custom LED light device based on skin analysis

The present invention relates to a customized LED light irradiator according to the skin analysis, and more particularly, by setting the coordinates on the skin (mainly, facial skin) by the skin diagnostic device and by position (eg, anterior eye, half eye, local) according to the coordinates Measure, diagnose and prescribe, transmit prescription information to the mask, and irradiate the appropriate LED light (blue light, yellow light, red light, infrared light, and complex light) for each treatment according to the prescription information of the skin from the mask. The present invention relates to a customized LED light irradiator based on a skin analysis capable of providing the best treatment according to the condition of the position.

In general, phototherapy for the treatment of skin diseases is based on the principle of promoting biochemical reactions in the skin by irradiating light to the skin using various light sources such as sunlight, laser, fluorescent lamps, ultraviolet lamps, etc. Or optical medical technology to treat damaged skin through destruction.

 Unlike high-power lasers, dual LED light sources can be irradiated to large areas of disease with proper light output, and skin treatment technology using LED light sources is similar to the principle that sunlight from plants is converted into plant cells through chlorophyl. LED light source is irradiated to induce photo-biochemical reaction between skin cells.

Phototherapy with such LED light sources is based on the absorption of photons in the LED light source into chromospheres or photoacceptors in tissues and to promote cell metabolic activity.

Light absorbed by cells increases ROS and ATP synthesis in cellular tissues, and cells exposed to red and near-infrared light emit NO.

Light of the wavelength selected at the appropriate time and period is absorbed by photoreceptors such as intracellular Cytochrome c oxidase, which photolyses the inhibitory NO, promotes enzyme activation, and promotes mitochondrial metabolism and ATP production.

Because of this, proteins such as hemoglobin and myoglobin release additional NO, which consists of a continuous intracellular biochemical reaction.

As a result, the irradiation of LED light to the cell activates the overall metabolic activity of the cell and plays a big role in cell regeneration and rehabilitation.

In addition, LED light irradiation can promote the production of collagen and elastin in the skin, suppress the occurrence of wrinkles, and make the skin moist and elastic.

In addition, LED light irradiation has a significant effect in the treatment of skin diseases. For example, irradiation of LED light, especially blue LED light, on the skin where acne has occurred has the effect of improving the overall condition of the skin by extinguishing the bacteria causing acne and reducing inflammation.

In order to improve the skin as described above, various cosmetics and beauty devices have been developed and distributed in the market.

In particular, a mask-type beauty device that is electrically attached to a wearer's face has been widely used in recent years, but the LED is most suitable according to the user's skin trouble state because a uniform LED module is used to improve only local skin problems. The wavelength band could not be used.

In addition, there should be a process to measure and diagnose the exact condition of each location of the skin. In order to go through this process, there is no measuring device that can be easily measured and a prescription manual according to the measured skin information. As the situation was to irradiate the LED light corresponding to wrinkles, freckles and acne.

In order to solve this problem, it is necessary to irradiate the LED light according to the wavelength according to the correct prescription according to the skin condition of each position of the skin, and in order to do so, accurate information about each individual skin (for example, pores, pigmentation, keratin, Atopic dermatitis, wrinkles, freckles, acne, etc.) can be easily obtained and diagnosed.

In addition, a technique for obtaining diagnosis and prescription according to accurate information on each skin position of each individual is needed, and it is necessary to irradiate an LED light of a wavelength band according to the prescription information to an accurate site, but it has not responded to this.

1. Korean Registered Patent No. 10-1807533 (Notice date: Dec. 11, 2017). 2. Korean Patent Registration No. 10-1648415 (Announcement Date: 2016.08.16).

Therefore, the present invention was invented to solve the above problems, and an object of the present invention is to set a position (coordinate) on the skin (mainly, facial skin) by means of a skin diagnosing machine, and the position (eg, anterior eye, half eye, local part). Measured and diagnosed by each unit and prescribes the information and transmits the prescription information wirelessly to the control unit of the mask through a smartphone, and according to the prescription information of the skin from the mask , Yellow light, red light, infrared light and composite light) to provide a customized LED light irradiator according to the skin analysis that can perform the best treatment according to the condition of each skin position.

The first embodiment for achieving the above object,

A skin diagnosis device that sets a position on the skin (mainly, facial skin) and measures the position (for example, anterior eye, half eye, local (forehead, chin, cheek, eye area, etc.)) and transmits and receives a wireless communication to a terminal (smartphone). ,

Receives skin information measured by wireless communication from the skin diagnosis device, diagnoses and prescribes skin information measured at each location, and controls for selecting LED (wavelength) band according to prescription. A smartphone with app mode installed,

Control unit for controlling the irradiation of the LED (LED) light by transmitting and receiving the LED (LED) light information of the wavelength band according to the prescription for the skin condition by each coordinate (position) by wireless communication from the smart phone (smart phone) Configure it,

The control unit is a wireless module (WIFI, BT) for transmitting and receiving prescription information by the skin diagnosis for each position (coordinate) of the skin from the wireless communication unit (WIFI, BT) of the smart phone (smart phone),

A microcomputer that transmits and receives, processes, and controls information signals with the wireless module (WIFI, BT);

An LED drive for turning on / off a light emitting diode (LED) by a signal command of the microcomputer;

It consists of a power supply unit for supplying power to the microcomputer and LED drive (LED Drive),

A DC power input device for supplying power to the power supply unit;

A light emitting diode that is turned on / off by a signal command of the LED drive and emits a plurality of light rays according to wavelength bands (400 to 470 nm, 570 to 590 nm, 630 to 700 nm, 800 to 1,200 nm, etc.) LED, light emitting diode)

The light emitting diode (LED) is installed in a mask as a plurality,

The light emitting diodes configured in the mask are distributed in coordinates, and each coordinate includes a plurality of light emitting diodes (2 to 4) for irradiating light rays for each wavelength band.

A second embodiment for achieving the above object,

Set the position on the skin (mainly, facial skin) and measure the position (eg, forehead, half-eye, local (forehead, chin, cheek, eyes, etc.)) to diagnose and prescribe skin information measured for each location. Skin diagnosis device with App Mode that implements functions for control such as selecting LED light of wavelength band according to prescription,

Comprising a control unit for controlling the irradiation of the LED (LED) by transmitting and receiving the LED (LED) light information of the wavelength band according to the prescription for the skin condition for each position (coordinate) by wireless communication,

The control unit is a wireless module (WIFI, BT) for transmitting and receiving prescription information by the skin diagnosis for each position (coordinate) of the skin from the wireless communication unit (WIFI, BT) of the skin diagnosis unit,

A microcomputer that transmits and receives, processes, and controls information signals with the wireless module (WIFI, BT);

An LED drive for turning on / off a light emitting diode (LED) by a signal command of the microcomputer;

It consists of a power supply unit for supplying power to the microcomputer and LED drive (LED Drive),

A DC power input device for supplying power to the power supply unit;

A light emitting diode that is turned on / off by a signal command of the LED drive and emits a plurality of light rays according to wavelength bands (400 to 470 nm, 570 to 590 nm, 630 to 700 nm, 800 to 1,200 nm, etc.) LED, light emitting diode)

The light emitting diode (LED) is installed in a mask as a plurality,

The light emitting diodes configured in the mask are distributed in coordinates, and each coordinate includes a plurality of light emitting diodes (2 to 4) for irradiating light rays for each wavelength band.

A third embodiment for achieving the above object,

The skin (mainly, facial skin) is set separately for each position (for example, forehead, half eye, and local (forehead, chin, cheek, eyes, nose, etc.)] and diagnosed and prescribed according to the skin condition for each position, according to the prescription. A smart phone with an app mode that implements functions for controlling LED light of a wavelength range,

The control unit for controlling the irradiation of the LED (LED) by transmitting and receiving the LED (LED) light information of the wavelength band according to the prescription of the skin condition for each position of the skin by wireless communication from the smart phone (smart phone), ,

The control unit is a wireless module (WIFI, BT) for transmitting and receiving prescription information by the skin diagnosis for each position (coordinate) of the skin from the wireless communication unit (WIFI, BT) of the smart phone (smart phone),

A microcomputer that transmits and receives, processes, and controls information signals with the wireless module (WIFI, BT);

An LED drive for turning on / off a light emitting diode (LED) by a signal command of the microcomputer;

It consists of a power supply unit for supplying power to the microcomputer and LED drive (LED Drive),

A DC power input device for supplying power to the power supply unit;

A light emitting diode that is turned on / off by a signal command of the LED drive and emits a plurality of light rays according to wavelength bands (400 to 470 nm, 570 to 590 nm, 630 to 700 nm, 800 to 1,200 nm, etc.) LED, light emitting diode)

The light emitting diode (LED) is installed in a mask as a plurality,

The light emitting diodes configured in the mask are distributed in coordinates, and each coordinate includes a plurality of light emitting diodes (2 to 4) for irradiating light rays for each wavelength band.

A fourth embodiment for achieving the above object,

Configure the control and mask,

The control unit is set to the skin (mainly, facial skin) by each position (for example, forehead, half-eye, local (forehead, chin, cheeks, eyes, nose, etc.)] and diagnosed and prescribed according to the skin condition of each position An operation control unit equipped with an app mode in which a function for controlling an LED light beam according to a prescription is implemented;

A microcomputer that receives an information signal from the operation control unit, and processes and controls the information signal;

An LED drive for turning on / off a light emitting diode (LED) by a signal command of the microcomputer;

It consists of a power supply unit for supplying power to the microcomputer and LED drive (LED Drive),

A DC power input device for supplying power to the power supply unit;

A light emitting diode that is turned on / off by a signal command of the LED drive and emits a plurality of light rays according to wavelength bands (400 to 470 nm, 570 to 590 nm, 630 to 700 nm, 800 to 1,200 nm, etc.) LED, light emitting diode)

The light emitting diodes (LED) are installed in the mask as a plurality,

The light emitting diodes configured in the mask are distributed in coordinates, and each coordinate includes a plurality of light emitting diodes (2 to 4) for irradiating light rays for each wavelength band.

Customized LED light irradiator according to the skin analysis according to the present invention,

First, the effect according to the first embodiment of the present invention is measured and diagnosed by the position of the skin by the skin diagnostic device and prescribes and transmits the prescription information wirelessly to the control unit of the mask via a smartphone and the skin of the mask According to the prescription information, it is wirelessly transmitted to the control part of the mask, and according to the prescription information of the skin, the light emitting diode (LED) rays (blue light, yellow light, red light, infrared light) Complex light) for best treatment according to the condition of each skin position.

In particular, each coordinate light-emitting diode (LED) configured in the mask is composed of a plurality of (ie, four), depending on the skin condition of the wavelength band (blue light, yellow light, red light, infrared light and composite light) single or complex The best treatment can be achieved by emitting light with light.

Second, the effect according to the second embodiment of the present invention is to measure, diagnose, and prescribe the skin by position of the skin by means of a skin diagnoser, and wirelessly transmit the prescription information to the control unit of the mask, according to the prescription information of the skin from the mask. By irradiating light-emitting diode (LED) rays (blue light, yellow light, red light, infrared light, and composite light) for each wavelength band suitable for treatment by the corresponding positions of the skin, the best treatment according to the condition of each skin position can be achieved. The light emitting diodes (LEDs) for each position (coordinates) are composed of a plurality of (ie four) light beams according to the skin condition (blue light, yellow light, red light, infrared light and composite light) into single or complex light. The best treatment can be achieved by luminescence irradiation.

Third, the effect according to the third embodiment of the present invention is diagnosed by the location of the skin by the user's naked eye and prescribed through the app of the smartphone and wirelessly transmits the prescription information to the control unit of the mask (Mask) of the skin According to the prescription information, it is possible to perform the best treatment according to the condition of each skin position by irradiating LED light (blue light, yellow light, red light, infrared light and composite light) by wavelength band suitable for treatment by the corresponding position of the skin. In particular, the light emitting diodes (LEDs) for each position (coordinates) configured in the mask are composed of a plurality of (ie, four) light rays for each wavelength band (blue light, yellow light, red light, infrared light, and composite light) according to the skin condition. The best treatment can be achieved by emitting light with single or multiple light beams.

Fourth, the effect according to the fourth embodiment of the present invention is diagnosed by the location of the skin by the user's naked eye and prescribed through the app of the operation control unit (F-1) and transmits the prescription information to the microcomputer 201 of the skin According to the prescription information, it is possible to perform the best treatment according to the condition of each skin position by irradiating LED light (blue light, yellow light, red light, infrared light and composite light) by wavelength band suitable for treatment by the corresponding position of the skin. In particular, the light emitting diodes (LEDs) for each position (coordinates) configured in the mask are composed of a plurality of (ie, four) light rays for each wavelength band (blue light, yellow light, red light, infrared light, and composite light) according to the skin condition. The best treatment can be achieved by emitting light with single or multiple light beams.

1 to 6 show a first embodiment of the "custom LED light irradiation according to the skin analysis" according to the present invention,
1 is an overall block diagram, FIG. 2 is a block diagram of a skin diagnosis apparatus and a smartphone, FIG. 3 is a block diagram of a dot matrix, FIG. 4 is a circuit diagram of a dot matrix, and FIG. 6 is a diagram illustrating color light for each wavelength band of a light emitting diode configured in a coordinate of a mask.
7 to 8 show a second embodiment of the "custom LED light irradiation according to the skin analysis" according to the present invention,
FIG. 7 is a block diagram of the whole block, and FIG. 8 is a block diagram of the skin diagnosis device.
9 is an overall block diagram showing a third embodiment of the "custom LED light irradiator according to skin analysis" according to the present invention.
10 is a block diagram showing a fourth embodiment of the "custom LED light irradiation according to the skin analysis" according to the present invention.

Hereinafter, described in detail with reference to the accompanying drawings shown as a preferred embodiment as follows.

Terms defined in the description of the present invention are defined in consideration of functions and forms in the present invention, and should not be understood as meanings that limit the technical components of the present invention.

Since the present invention may be modified in various ways and have various forms, embodiments (or embodiments) will be described in detail in the text. However, this is not intended to limit the present invention to the specific form disclosed, it should be understood to include all modifications, equivalents, and substitutes included in the spirit and scope of the present invention.

In addition, in the drawings, the components are exaggerated in size (or thick) in size (or thick) in size (or thin) or simplified in consideration of the convenience of understanding and the like, thereby limiting the scope of protection of the present invention. It should not be.

The terminology used herein is for the purpose of describing particular embodiments (suns, aspects, and embodiments) (or embodiments) only and is not intended to be limiting of the invention.

Terms such as those defined in the commonly used dictionaries should be construed as having meanings consistent with the meanings in the context of the related art, and shall not be construed in ideal or excessively formal meanings unless expressly defined in this application. .

Embodiments for achieving the object of the present invention will be described with reference to the accompanying drawings.

First, the first embodiment of the present invention will be described with reference to the accompanying drawings.

A skin diagnosis device that sets a position on the skin (mainly, facial skin) and measures the position (for example, anterior eye, half eye, local (forehead, chin, cheek, eye area, etc.)) and transmits and receives a wireless communication to a terminal (smartphone). D) and receiving the skin information measured by wireless communication from the skin diagnosis device (D), to diagnose and prescribe the skin information measured by each position, and to select the LED (LED) light band according to the prescription A smart phone A having an app mode in which a function for control is implemented is configured.

That is, the skin diagnosis device D and the smart phone A will be described with reference to FIG. 2 as an embodiment.

As shown in FIG. 2, a smartphone A includes a central processing unit 100 for processing and controlling information collected as a smartphone body, a lens 101 for receiving image information, The camera sensor 102 is configured to transfer the image information transmitted from the lens to the central processing unit.

LCD display unit 103 for displaying and outputting information provided from the central processing unit 100, a touch sensor unit 104 for outputting and controlling the necessary information to the LCD display unit 103, and a central processing station A wireless communication unit (WIFI, BT) 105 for transmitting and receiving information between the tooth unit 100 and the external module is configured.

The wireless communication unit (WIFI, BT) 105 is preferably set to Wi-Fi (WIFI) or Bluetooth (BT), more preferably Bluetooth (BT).

This is because Bluetooth (BT) consumes less power than WIFI.

Memory unit 106 for storing the information of the central processing unit 100, the battery unit 107 for supplying the charged power to the central processing unit 100, and the battery unit 107 is connected to external power The power supply unit 108 is configured to supply and charge power and to supply power of the battery unit 107 to the outside.

The smart phone A is comprised as mentioned above.

A mobile phone bumper wireless module device B and an enlarged adapter lens module device C are detachably attached to the smart phone A as the skin diagnosing machine D. FIG.

The bumper wireless module device (B) for a mobile phone includes a wireless module (WIFI, BT) 1 for transmitting and receiving an information signal with the wireless communication unit (WIFI, BT) 105, and the wireless module (WIFI, BT) (1). ) And a microcomputer 2 for transmitting / receiving, processing, and controlling information signals, and an LED drive 3 for turning on / off a light emitting diode by a signal command of the microcomputer 2.

The wireless module 1 is preferably WIFI or Bluetooth (BT), and more preferably Bluetooth (BT) like the wireless communication unit (WIFI, BT) 105.

This is because Bluetooth (BT) consumes less power than WIFI.

A frequency measuring oscillator 4 which operates a moisture measuring sensor by a signal command of the microcomputer 2 and measures moisture and transmits the measured moisture value to the microcomputer, and a lens by the signal command of the microcomputer 2. A lens detection agency (ADC) circuit 5 is configured to control a lens detection resistor for recognizing the type.

Connected to the power supply unit 108 of the smart phone main body A, the power is supplied to the microcomputer 2 to supply the bumper wireless module device B and the enlarged adapter lens module device C for the mobile phone. The power supply unit W for driving is constituted.

The enlarged adapter lens module device C includes a type of lens by a signal command of an enlarged adapter lens 6 and a lens detection AD circuit 5 configured by mounting a magnification and a type-specific lens. A lens detection resistor (7) for recognizing a water, a moisture measuring sensor (8) for measuring moisture by a signal command of the frequency measuring oscillator (4), and the LED drive (3). The light emitting diode 9 which emits LED light by the signal command of () is made.

After mounting the bumper wireless module device (B) for a mobile phone and the enlarged adapter lens module device (C) as a skin diagnosis device (D) on the smart phone (A) configured as described above, and then obtain the image information about the skin In order to mount the lens with the necessary magnification (for example, 60 times, 100 times, 200 times, 300 times, 600 times, 1000 times, etc.), the lens detection resistance (7) identifies the skin and professional skin medical perceptions and detects the lens. The ADC circuit 5 automatically detects the type of lens as the resistance value for lens detection.

The information of the detected lens is transmitted to the microcomputer 2 and the information of the microcomputer 2 is transmitted from the wireless module 1 to the wireless communication unit 105 of the smartphone body A and the wireless communication unit 105. The received information is transmitted to the central processing unit 100, the central processing unit 100 is processed through the received information is output through the LCD display unit 103.

When information on the type and magnification of the lens necessary for collecting skin information is output, the enlarged adapter lens 6 is brought into close contact with the skin, and the pore sensor unit 104 is operated to control the pore distribution, pore size, pigmentation, and dead skin cells of the skin. The atopy is captured by the camera sensor unit 102 and received as an image, and the received image information is transmitted to the central processing unit 100. The image information is analyzed by the central processing unit 100 to analyze the image and the image. The arithmetic operation is performed numerically, and the arithmetic processed image and the numerical signal are stored in the memory unit 106, and the image is also output through the LCD display unit 103.

Operation operations such as imaging, storing and outputting the skin information are performed by the touch sensor unit 104. When the image is captured, the LED driver 3 emits light by the LED drive 3 and irradiates the subject (skin, etc.) according to the signal command of the microcomputer 2 to enlarge the image information of the adapter lens 6 and the lens. The camera sensor unit 102 receives the light via 101.

And if you want to get information about the skin moisture, the moisture value measured by the moisture measuring sensor 8 by the operation of the touch sensor unit 104 is received by the moisture measuring frequency oscillator (4) and the microcomputer (2) The calculated moisture value is transmitted to the central processing unit 100 through the wireless module 1 and the wireless communication unit 105 and the LCD through the central processing unit 100. The numerical value is output to the display unit 103 and the numerical value is stored in the memory unit 106.

In the present invention, the operation of the bumper wireless module device B for a mobile phone and the enlarged adapter lens module device C are performed from the power supply 108 of the smart phone main body A. The operation is performed by supplying power to the power supply unit (W) of the power supply), but if necessary, the power supply unit (W) of the bumper wireless module device (B) for a mobile phone can be combined with a separate battery (not shown) to receive power. There is also.

Skin diagnosis device (D) for transmitting and receiving wireless communication to the terminal (smartphone) by measuring the skin condition as described above, and receives the skin information measured by wireless communication from the skin diagnostic device (D) and to the skin information measured by each position Diagnosis and prescription for the smart phone (Smart phone) (A) is installed is installed in the app mode that implements the function for the control such as selecting the LED (LED) light band according to the prescription.

As shown in FIG. 1, the LED (LED) ray information of the wavelength band according to the prescription for the skin condition for each position (coordinate) is transmitted and received by wireless communication from the wireless communication unit 105 of the smart phone A. (LED) The control part F which controls a light etc. is comprised.

The wireless communication unit 105 of the smart phone A is selectively connected to the wireless module 1 of the skin diagnosis device D and the wireless module 200 of the control unit F by wireless communication selectively. Send / receive by the app mode of the smart phone (A).

The control unit (F) is a wireless module (WIFI, WIFI, which transmits and receives prescription information by skin diagnosis for each position (coordinate) of the skin from the wireless communication unit (WIFI, BT) 105 of the smart phone (A) BT) 200 is configured.

The wireless communication unit (WIFI, BT) 105 is preferably set to Wi-Fi (WIFI) or Bluetooth (BT), more preferably Bluetooth (BT).

This is because Bluetooth (BT) consumes less power than WIFI.

The microcomputer 201 for transmitting, receiving, processing, and controlling information signals with the wireless modules WIFI and BT 200 of the control unit F, and light emitting diodes (LEDs) by the signal command of the microcomputer 201. The LED drive 203 is configured to turn on / off the light emitting diode 202.

As shown in FIGS. 3 and 4, the LED drive 203 may include a plurality of (eg, 64) light emitting diodes (LEDs) by one dot matrix 203a. 202 is configured to be turned on / off. In this case, the LED drive 203 may turn on / off the light emitting diodes 202 by a few (eg, three) dot matrix 203a. The cost can be reduced and the control unit (F) can be made compact.

The power supply unit 204 is configured to supply power to the microcomputer 201 and the LED drive 203, and a DC power input device 205 is configured to supply power to the power supply unit 204. do.

A light emitting diode (LED) 202 is turned on / off by a signal command of the LED drive 203 and irradiates a plurality of light rays for each wavelength band.

The wavelength-specific light emitting diode 202 is composed of 400 ~ 470nm, 570 ~ 590nm, 630 ~ 700nm, 800 ~ 1,200nm, and the like.

A plurality of light emitting diodes (LEDs) 202 may be installed in the mask 206, and the light emitting diodes 202 of the mask 206 may be distributed by coordinates and each coordinate ( In 207, a plurality of light emitting diodes 202 irradiating light beams for each wavelength band are configured (see FIGS. 5 and 6).

The plurality of light emitting diodes 202 is 2 to 4, preferably 4 (see Fig. 6).

As described above, the first embodiment of the present invention is achieved.

In the wavelength band light emitting diode 202, 400-470 nm has blue light, 570-590 nm has yellow light, 630-700 nm has red light, and 800-1,200 nm has infrared color light.

The wavelength-specific light emitting diode 202 has the effects as shown in the table below according to the skin condition.

Blue light Yellow light Red light infrared ray Compound light wavelength 400-470 nm 570-590 nm 630-700 nm 800-1200 nm various Penetration depth <1mm 05-2mm 2-3mm 5-10 mm various target epidermis Upper dermis Hair follicles and sebaceous glands Hair follicles, sebaceous glands and lower dermis various Mechanism of action Acne Bacteria Sterilization Fibroblast activation Promote collagen synthesis Vasodilation and increased blood flow various Studyed therapeutic effect acne Photoaging Treatment Healing wounds Recovery after laser and radiation treatment Improved skin aging Laser and postoperative recovery Light source for photodynamic therapy Protect against sunburn Improved skin aging Wound and ulcer treatment Blue light + red light: Acne improvement Red Light + Infrared-Skin Aging Improvement

As described above, the present invention sets the position on the skin (mainly, facial skin) by the skin diagnosing machine D, and the position thereof (for example, the anterior eye, the half eye, the local (forehead, chin, cheek, eye area, etc.)]. When measured by each device and transmitted to the smartphone (A) by wireless communication, the smartphone (A) receives the skin information from the skin diagnosis device (D) by wireless communication, diagnoses and prescribes the skin information measured for each location, and prescribes the prescription. Select the LED light beam according to the wavelength.

Meanwhile, the user attaches and measures the mask 206 configured as shown in FIG. 5 to the face skin by a general attachment method such as a band, and selects coordinates for each skin position diagnosed and prescribed.

For example, in FIG. 5, a part of a constant width of the forehead based on the X and Y coordinates is measured and diagnosed with acne, and a part of a constant width of both cheeks is measured and diagnosed with a wrinkle and a constant width of the jaw. If the part of the part is measured and diagnosed as a wound, the forehead part is irradiated with blue light having a wavelength range of 400-470 nm for sterilizing acne bacteria or red light having a wavelength range of 630-700 nm with blue light. do.

That is, as shown in Figs. 5 and 6, a plurality of light emitting diodes 202 for irradiating light beams for each wavelength band are configured at each coordinate 207, as well as for irradiating a single light beam for each wavelength band. It can be irradiated with a mixture of star rays.

The both cheeks are irradiated with yellow light having a wavelength range of 570-590 nm having an effect of improving skin aging due to wrinkles, or by mixing infrared rays having a wavelength range of 800-1200 nm with red light having a wavelength range of 630-700 nm. can do.

In addition, the jaw portion may be irradiated with yellow light having a wavelength band of 570-590nm having a wound healing effect according to the wound, or irradiated with red light having a wavelength band of 630-700nm.

The present invention as described above is measured and diagnosed by the position of the skin by the skin diagnostic device and prescribes and transmits the prescription information wirelessly to the control unit of the mask (Mask) via a smartphone and according to the prescription information of the skin in the mask ( It transmits wirelessly to the control part of the mask and irradiates the light-emitting diode (LED) rays (blue light, yellow light, red light, infrared light and composite light) for each wavelength band suitable for treatment according to the skin's prescription information in the mask. The best treatment is possible depending on the condition of the skin position.

In particular, each coordinate light-emitting diode (LED) configured in the mask is composed of a plurality of (ie, four), depending on the skin condition of the wavelength band (blue light, yellow light, red light, infrared light and composite light) single or complex The best treatment can be achieved by emitting light with light.

Next, a second embodiment of the present invention will be described with reference to FIGS. 7 and 8.

7 and 8, a second embodiment of the present invention will be described, but the same will be described with reference to FIGS. 3 to 6 described with reference to the first embodiment.

Incidentally, the same reference numerals in the drawings of the drawings described in the first embodiment have the same function as the same members.

Set the position on the skin (mainly, facial skin) and measure the position (eg, forehead, half-eye, local (forehead, chin, cheek, eyes, etc.)) to diagnose and prescribe skin information measured for each location. It configures the skin diagnosis device (D-1) that is equipped with an app mode that implements functions for controlling LED light in accordance with the prescription.

That is, the skin diagnosis device D-1 will be described with reference to FIG. 8 as an embodiment.

As shown in FIG. 8, the skin diagnosis device D-1 includes a micro measurement system B-1 and a macroscopic docking station C-1.

As the micro measurement system (B-1), an app mode in which a function for controlling an LED light beam according to a prescription is implemented is configured, and the LCD display 50 having a touch function and the user's Camera 52 equipped with a microlens 51 for obtaining the image image information by precisely enlarging a specific part of each skin position, and a main body that receives, analyzes and stores the image information photographed from the camera 52 ( CPU) 53, a moisture measuring sensor 54 for measuring the skin moisture distribution rate of the user, and the moisture collected by the moisture measuring sensor 54 by arithmetic processing to a numerical value for the main body (CPU) 53. Moisture measurement controller 55 for controlling the measurement of the moisture measuring sensor 54 and the elasticity measurement sensor 56 and elasticity information measured from the elasticity measuring sensor 56 to measure the elasticity of the skin. To determine aging The elasticity measuring controller 57 which transmits special information to the main body (CPU) 53 and also controls the measurement of the elasticity measuring sensor 56, a temperature measuring sensor 58 measuring the temperature of the skin, and the temperature measurement. The temperature measuring controller 59 which transmits the skin temperature information measured from the sensor 58 to the main body (CPU) 53 and controls the temperature measurement of the temperature measuring sensor 58, and the power supply device 60 or The LED lighting 62 and the main body (CPU) 53 which drive the main body 53 by the power supplied from the battery 61 and irradiate light to receive image information of the camera 52. Microscopic measurement system (B-1) is composed of a wireless module 63 for transmitting and receiving the diagnostic image or information and the analyzed data stored in the wireless control unit and the mask.

The macroscopic docking station C-1 separates the microlens 51 and the LED illumination 62 mounted on the camera 52 of the micrometering system B-1, and the macroscopic lens 510. ) And a macroscopic docking station (C-1) made by mounting an LED light 620 suitable for the macroscopic lens 510.

The above skin diagnosis device (D-1) is first diagnosed by the overall batch measurement analysis of the skin (eg, eye wrinkles, forehead wrinkles, nasolabial folds, transparency, UV, etc.) by the macroscopic docking station (C-1). The macroscopic lens 510 of the macroscopic docking station C-1 may be separated and the macroscopic lens 510 may be separated from the camera 52 and the macroscopic lens 510 and the LED lighting 620. ) Has a magnification of 3 to 5 times the resolution of the camera 52 is 200lp or more and the light of the LED light 620 has a function that includes the normal light, polarized light, UV light source.

The macroscopic docking station (C-1) enables measurement of moisture, elasticity, skin temperature, crow's feet, nasolabial folds, forehead wrinkles, pores, acne, freckles, and the like.

Subsequently, the microscopic measurement system B-1 uses image information of the skin photographed by the camera 52 and information of the skin moisture distribution ratio measured by the moisture measurement sensor 54 and the elasticity measurement sensor 56. Skin elasticity information of the user and skin temperature information measured by the temperature measuring sensor 58 by the moisture measuring controller 55, elasticity measuring controller 57 and the temperature measuring controller 59, respectively, the main body (CPU) Transmitted to the control unit F of the mask by the wireless module 63 by selecting the LED beam for each wavelength band prescribed by analyzing and diagnosing and diagnosing the skin position by the main body (CPU) 53 at the main body (53). Send.

Controls such as irradiating LED light by transmitting and receiving LED light information of the wavelength band according to the prescription for the skin condition for each position (coordinate) by wireless communication from the skin diagnosis device (D-1). The part F is configured (see FIG. 7).

As described in the first embodiment, the control unit F receives prescription information by skin diagnosis for each position (coordinate) of the skin from the wireless modules WIFI and BT 63 of the skin diagnosis device D-1. Configures a wireless module (WIFI, BT) 200 to transmit and receive.

The wireless module (WIFI, BT) 63 of the skin diagnosis device (D-1) and the wireless module (WIFI, BT) 200 of the control unit (F) is preferably set to Wi-Fi (WIFI) or Bluetooth (BT). More preferably, Bluetooth (BT) is preferable.

This is because Bluetooth (BT) consumes less power than WIFI.

A microcomputer 201 for transmitting, receiving, processing, and controlling an information signal with a wireless module (WIFI, BT) 200 of the control unit F, and a light emitting diode (LED, light) by a signal command of the microcomputer 201. An LED drive 203 is configured to turn on / off an emitting diode 202.

As shown in FIGS. 3 and 4, the LED drive 203 may include a plurality of (eg, 64) light emitting diodes (LEDs) by one dot matrix 203a. 202 is configured to be turned on / off. In this case, the LED drive 203 can turn on / off a light emitting diode (LED) by a few (eg, three) dot matrix 203a, thereby reducing costs. The control part F can be made compact.

The power supply unit 204 is configured to supply power to the microcomputer 201 and the LED drive 203, and a DC power input device 205 is configured to supply power to the power supply unit 204. do.

A light emitting diode (LED) 202 is turned on / off by a signal command of the LED drive 203 and irradiates a plurality of light rays for each wavelength band.

The wavelength-specific light emitting diode 202 is composed of 400 ~ 470nm, 570 ~ 590nm, 630 ~ 700nm, 800 ~ 1,200nm, and the like.

A plurality of light emitting diodes (LEDs) 202 may be installed in the mask 206, and the light emitting diodes 202 of the mask 206 may be distributed by coordinates and each coordinate ( In 207, a plurality of light emitting diodes 202 irradiating light beams for each wavelength band are configured (see FIGS. 5 and 6).

The plurality of light emitting diodes is 2-4, preferably 4 (see FIG. 6).

As described above, the second embodiment of the present invention is achieved.

As described above, the second embodiment of the present invention sets the position on the skin (mainly, facial skin) by the skin diagnosing machine (D-1), and the position (for example, the frontal eye, the half eye, the local (forehead, chin, Cheeks, eyes, etc.)] to measure and diagnose and prescribe LED light.

In addition, the user attaches and measures the mask 206 configured as shown in FIG. 5 to the face skin by a general attachment method such as a band, and selects coordinates for each skin position diagnosed and prescribed through the LCD display 50 of the skin diagnosis apparatus.

For example, in FIG. 5, a part of a constant width of the forehead based on the X and Y coordinates is measured and diagnosed with acne, and a part of a constant width of both cheeks is measured and diagnosed with a wrinkle and a constant part of the jaw. If the part of the width is a state measured and diagnosed as a wound, the mask control unit (F) through the wireless module 63 of the skin diagnosis device (D-1) to transmit the light beam information of the light-emitting diode (LED) for each wavelength band prescribed accordingly The wireless module 200 transmits the wireless communication.

The received prescription information is transmitted to the microcomputer 201, and the LED drive 203 is driven by the signal command of the microcomputer 201 to emit light of the light emitting diodes (LEDs) 202.

For example, the forehead portion is irradiated with blue light having a wavelength range of 400-470nm having a bactericidal action on acne bacteria or irradiated with red light having a wavelength range of 630-700nm together with blue light, and both cheeks are skin aging due to wrinkles. Irradiate yellow light with the wavelength range of 570-590nm, or red light with the wavelength range of 630-700nm, and infrared light with the wavelength range of 800-1200nm. Yellow light having a wavelength range of 570-590 nm which is effective is irradiated, or red light having a wavelength range of 630-700 nm is irradiated.

Therefore, according to the second embodiment of the present invention, the skin diagnosis device D-1 measures, diagnoses, and prescribes skin by position, and transmits the prescription information wirelessly to the control unit of the mask according to the prescription information of the skin in the mask. By irradiating light-emitting diode (LED) rays (blue light, yellow light, red light, infrared light, and composite light) for each wavelength of the skin suitable for treatment at the corresponding position of the skin, the best treatment according to the condition of each skin position can be achieved. Each light emitting diode (LED) for each position (coordinate) is composed of a plurality of (ie four) light beams (blue light, yellow light, red light, infrared light, and composite light) for each wavelength band depending on the skin condition. By luminescent irradiation, the best treatment can be achieved.

Next, a third embodiment of the present invention will be described with reference to the accompanying drawings.

A third embodiment of the present invention will be described with reference to FIG. 9, but will be described with reference to FIGS. 3 to 6 described with reference to the first embodiment.

Incidentally, the same reference numerals in the drawings of the drawings described in the first embodiment have the same function as the same members.

The skin (mainly, facial skin) is set separately for each position (for example, forehead, half eye, and local (forehead, chin, cheek, eyes, nose, etc.)] and diagnosed and prescribed according to the skin condition for each position, according to the prescription. A smart phone (A-1) configured with a wireless communication unit 105-1, which is installed with an app mode in which a function for controlling LED light of a wavelength band is implemented and communicates wirelessly, is configured. do.

Control unit (F) for controlling the irradiation of the LED (LED) by transmitting and receiving the LED (LED) light information of the wavelength band according to the prescription of the skin condition for each position of the skin by wireless communication from the smart phone (smart phone) (F) ).

The control unit F wirelessly transmits and receives prescription information by skin diagnosis for each position (coordinate) of the skin from the wireless communication unit (WIFI, BT) 105-1 of the smart phone A-1. Configure the module (WIFI, BT) 200.

The wireless communication unit (WIFI, BT) 105-1 and the wireless module 200 is preferably set to Wi-Fi (WIFI) or Bluetooth (BT), more preferably Bluetooth (BT).

This is because Bluetooth (BT) consumes less power than WIFI.

A microcomputer 201 for transmitting, receiving, processing, and controlling an information signal with a wireless module (WIFI, BT) 200 of the control unit F, and a light emitting diode (LED, light) by a signal command of the microcomputer 201. An LED drive 203 is configured to turn on / off an emitting diode 202.

As shown in FIGS. 3 and 4, the LED drive 203 may include a plurality of (eg, 64) light emitting diodes (LEDs) by one dot matrix 203a. 202 is configured to be turned on / off. In this case, the LED drive 203 may turn on / off the light emitting diodes 202 by a few (eg, three) dot matrix 203a. The cost can be reduced and the control unit (F) can be made compact.

The power supply unit 204 is configured to supply power to the microcomputer 201 and the LED drive 203, and a DC power input device 205 is configured to supply power to the power supply unit 204. do.

A light emitting diode (LED) 202 is turned on / off by a signal command of the LED drive 203 and irradiates a plurality of light rays for each wavelength band.

The wavelength-specific light emitting diode 202 is composed of 400 ~ 470nm, 570 ~ 590nm, 630 ~ 700nm, 800 ~ 1,200nm, and the like.

A plurality of light emitting diodes (LEDs) 202 may be installed in the mask 206, and the light emitting diodes 202 of the mask 206 may be distributed by coordinates and each coordinate ( In 207, a plurality of light emitting diodes 202 irradiating light beams for each wavelength band are configured (see FIGS. 5 and 6).

The plurality of light emitting diodes is 2-4, preferably 4 (see FIG. 6).

As described above, the third embodiment of the present invention is achieved.

In the third embodiment of the present invention as described above, the user visually determines the state of each position of the skin, and then diagnoses and prescribes according to the skin state of each position through an app implemented in a smart phone A-1. Select the LED light of the wavelength band according to the prescription.

That is, the user attaches the mask 206 configured as shown in FIG. 5 to the face skin using a general attachment method such as a band, sets the coordinates for each skin position diagnosed and prescribed visually through the app, and also uses the LED of the wavelength band according to the prescription. Select the (LED) beam.

For example, in FIG. 5, a part of a constant width of the forehead is diagnosed as acne based on the X and Y coordinates, a part of a constant width of both cheeks is diagnosed as a wrinkle, and a part of a constant width of the jaw is If it is a state diagnosed as a wound, the wireless module 200 of the control unit (F) via the wireless communication unit 105-1 of the smartphone (A-1) the light beam information of the wavelength-specific light emitting diode (LED) prescribed accordingly To send).

The prescription information received from the wireless module 200 of the control unit F is transmitted to the microcomputer 201 and the LED drive 203 is driven by a signal command of the microcomputer 201 to emit light. 202) is emitted to irradiate the skin at each position.

For example, as described in the first and second embodiments, the forehead portion is irradiated with blue light having a wavelength range of 400-470 nm, which has a bactericidal action on acne, or together with red light having a wavelength range of 630-700 nm with blue light. Irradiate yellow light having a wavelength range of 570-590 nm, which has an effect of improving skin aging due to wrinkles, or by mixing infrared light having a wavelength range of 800-1200 nm with red light having a wavelength range of 630-700 nm. The jaw portion is irradiated with yellow light having a wavelength band of 570-590 nm having a wound healing effect according to the wound, or irradiated with red light having a wavelength band of 630-700 nm.

Therefore, the third embodiment of the present invention is diagnosed by the location of the skin by the naked eye of the user to prescribe through the app of the smart phone (A-1) and wirelessly transmit the prescription information to the control unit of the mask (Mask) skin from the mask According to the prescription information of the skin, it is possible to do the best treatment according to the condition of each skin location by irradiating the light-emitting diode (LED) rays (blue light, yellow light, red light, infrared light, and complex light) for each wavelength area suitable for treatment. In particular, the light emitting diodes (LEDs) for each position (coordinates) configured in the mask are composed of a plurality of (ie, four) light rays for each wavelength band (blue light, yellow light, red light, infrared light and infrared light) according to the skin condition. The best treatment can be achieved by emitting light with single or complex light.

Next, a fourth embodiment of the present invention will be described with reference to the accompanying drawings.

A fourth embodiment of the present invention will be described with reference to FIG. 10, but will be described together with reference to FIGS. 3 to 6 described with reference to the first embodiment.

Incidentally, the same reference numerals in the drawings of the drawings described in the first embodiment have the same function as the same members.

The control unit F-1 and the mask 206 are configured, and the control unit F-1 is disposed on the skin (mainly, the facial skin) at each position (for example, anterior eye, half eye, local (forehead, chin, cheek, Eyes, nose, etc.)] and control the app mode that implements functions for control such as selecting LED light of wavelength band according to prescription by diagnosing and prescribing according to skin condition of each location. The part G is comprised.

A microcomputer 201 for receiving, processing, and controlling an information signal from the manipulation controller G, and a light emitting diode (LED) 202 is turned on / off by a signal command of the microcomputer 201. The LED drive 203 is configured.

As shown in FIGS. 3 and 4, the LED drive 203 may include a plurality of (eg, 64) light emitting diodes (LEDs) by one dot matrix 203a. 202 is configured to be turned on / off. In this case, the LED drive 202 may turn on / off the light emitting diodes 202 by a few (eg, three) dot matrix 203a. The cost can be reduced and the control unit (F-1) can be made compact.

The power supply unit 204 is configured to supply power to the microcomputer 201 and the LED drive 203, and a DC power input device 205 is configured to supply power to the power supply unit 204. do.

A light emitting diode (LED) 202 is turned on / off by a signal command of the LED drive 203 and irradiates a plurality of light rays for each wavelength band.

The wavelength-specific light emitting diode 202 is composed of 400 ~ 470nm, 570 ~ 590nm, 630 ~ 700nm, 800 ~ 1,200nm, and the like.

A plurality of light emitting diodes (LEDs) 203 may be installed in the mask 206, and the light emitting diodes 202 of the mask 206 may be distributed according to coordinates and each coordinate ( In 207, a plurality of light emitting diodes 202 irradiating light beams for each wavelength band are configured (see FIGS. 5 and 6).

The plurality of light emitting diodes is 2-4, preferably 4 (see FIG. 6).

As described above, the fourth embodiment of the present invention is achieved.

In the fourth embodiment of the present invention as described above, the user visually determines the state of each position of the skin and then diagnoses and prescribes the prescription according to the skin state of each position through the app implemented in the operation control unit F-1. Select the LED light beam according to the wavelength.

That is, the user attaches the mask 206 configured as shown in FIG. 5 to the face skin using a general attachment method such as a band, sets the coordinates for each skin position diagnosed and prescribed visually through the app, and also uses the LED of the wavelength band according to the prescription. Select the (LED) beam.

For example, in FIG. 5, a part of a constant width of the forehead is diagnosed as acne based on the X and Y coordinates, a part of a constant width of both cheeks is diagnosed as a wrinkle, and a part of a constant width of the jaw is If the state is diagnosed as a wound, the light beam information of the wavelength-specific light emitting diodes (LEDs) prescribed accordingly is transmitted from the operation control unit F-1 to the microcomputer 201 and the LED drive by the signal command of the microcomputer 201. A light emitting diode (LED) 202 is driven to drive 203 to irradiate the skin at each location.

For example, as described in the first to third embodiments, the forehead portion is irradiated with blue light having a wavelength range of 400-470 nm, which has a bactericidal action against acne, or together with red light having a wavelength range of 630-700 nm with blue light. Irradiate yellow light having a wavelength range of 570-590nm, which has an effect of improving skin aging due to wrinkles, or mix infrared rays having a wavelength range of 800-1,200nm with red light having a wavelength range of 630-700nm. The jaw portion is irradiated with yellow light having a wavelength band of 570-590 nm having a wound healing effect according to the wound, or irradiated with red light having a wavelength band of 630-700 nm.

Therefore, the fourth embodiment of the present invention diagnoses the position of the skin by the naked eye of the user and prescribes it through the app of the operation control unit F-1, and transmits the prescription information to the microcomputer 201 according to the prescription information of the skin. By irradiating light-emitting diode (LED) rays (blue light, yellow light, red light, infrared light, and composite light) for each wavelength of the skin suitable for treatment at the corresponding position of the skin, the best treatment according to the condition of each skin position can be achieved. Each light emitting diode (LED) for each position (coordinate) is composed of a plurality of (ie four) light beams (blue light, yellow light, red light, infrared light, and composite light) for each wavelength band depending on the skin condition. By luminescent irradiation, the best treatment can be achieved.

A, A-1: Smartphone B: Bumper Wireless Module Device for Mobile Phone
C; Adapter lens module for magnification D, D-1: skin diagnostic
F, F-1: Control part G: Operation control part
1: wireless module
2: Micom 3: LED Drive
4: Frequency oscillator for moisture measurement 5: Lens detection ADC circuit
6: Adapter lens for magnification 7: Resistance for lens detection
8: moisture measuring sensor 9: light emitting diode
50: LCD display 52: camera
60: power supply 63: wireless module
51: microlens 53: main body (CPU)
54: Moisture Measurement Sensor 55: Moisture Measurement Controller
56: elasticity measuring sensor 57: elasticity measuring controller
58: temperature measuring sensor 59: temperature measuring controller
61: battery 62,620: LED lighting
200: wireless module 201: microcomputer
202: light emitting diode 203: LED drive
203a: dot matrix 204: power supply
205: dish power input device 206: mask
207: Coordinates 510: Macro Lens

Claims (12)

Install and configure a plurality of light emitting diodes (LEDs) 202 in the mask 206,
The light emitting diodes 202 of the mask 206 are distributed by coordinates, and each of the coordinates 207 constitutes a plurality of light emitting diodes 202 that irradiate light rays for each wavelength band.
The control unit (F) for irradiating and controlling the LED (LED) rays by transmitting and receiving the LED (LED) light information of the wavelength band according to the prescription for the skin condition of each position by wireless communication,
The control unit (F) is a wireless module (WIFI, BT) 200 for transmitting and receiving prescription information by skin diagnosis for each position (coordinate) of the skin,
A microcomputer 201 for transmitting and receiving information signals with the wireless module (WIFI, BT) 200 and performing arithmetic processing and control;
An LED drive 203 for turning on / off a light emitting diode (LED) by a signal command of the microcomputer 201;
It consists of a power supply unit 204 for supplying power to the microcomputer and the LED drive (LED Drive),
It includes a light emitting diode (LED, 202) on / off by the signal command of the LED drive (LED Drive) 203 for irradiating a plurality of light rays for each wavelength band,
The wireless module (WIFI, BT) 200 transmits and receives the LED light information of the wavelength band according to the prescription for the skin condition of each position by wireless communication from the smart phone A, and the smart phone ( smart phone (A) receives the skin information measured by wireless communication from the skin diagnostic device (D), diagnoses and prescribes the skin information measured for each location, and selects the LED (LED) light band according to the prescription. App Mode is configured with the functionality for controls.
The skin diagnosis device (D) comprises a bumper wireless module device (B) for mobile phones and an enlarged adapter lens module device (C) to be detachably configured to a smartphone (A), and the bumper for mobile phones. The wireless module device (B) is a wireless module (WIFI, BT) (1) for transmitting and receiving information signals with the wireless communication unit (WIFI, BT) 105, and the information signal with the wireless module (WIFI, BT) (1) A microcomputer 2 for transmitting / receiving, arithmetic processing and controlling, an LED drive 3 for turning on / off a light emitting diode by a signal command of the microcomputer 2, and a signal command of the microcomputer 2; The frequency detection oscillator (4) for measuring the moisture by operating the moisture measuring sensor and transmitting the measured moisture value to the microcomputer, and the lens detection for recognizing the type of the lens by the signal command of the microcomputer (2) Configure a lens detection AD (5) circuit 5 for controlling the resistance,
The magnification adapter lens module device (C) uses a magnification adapter lens (6) configured by mounting a magnification and a type-specific lens, and a type of lens by a signal command of the lens detection AD (circuit detection circuit) 5. A lens detection resistor 7 for recognizing, a moisture measuring sensor 8 for measuring moisture by a signal command of the moisture measuring frequency oscillator 4, and the LED drive 3 Customized LED light emitter according to the skin analysis by configuring a light emitting diode (9) that emits LED light by the signal command of. According to claim 1, wherein the customized light emitting diode according to the skin analysis, characterized in that the number of light emitting diodes (202) configured in the mask (206) 2 to 4 per coordinates. 2. The customized LED light irradiator according to claim 1, wherein the LED drive (203) is composed of a dot matrix (203a). The light emitting diode (LED) of claim 1, wherein the light emitting diode (LED) has a wavelength range of 400-470 nm blue light, 570-590 nm yellow light, 630-700 nm red light, and 800-1,200 nm infrared wavelength band. Customized LED light irradiator for skin analysis. delete delete Install and configure a plurality of light emitting diodes (LEDs) 202 in the mask 206,
The light emitting diodes 202 of the mask 206 are distributed by coordinates, and each of the coordinates 207 constitutes a plurality of light emitting diodes 202 that irradiate light rays for each wavelength band.
The control unit (F) for irradiating and controlling the LED (LED) rays by transmitting and receiving the LED (LED) light information of the wavelength band according to the prescription for the skin condition of each position by wireless communication,
The control unit (F) is a wireless module (WIFI, BT) 200 for transmitting and receiving prescription information by skin diagnosis for each position (coordinate) of the skin,
A microcomputer 201 for transmitting and receiving information signals with the wireless module (WIFI, BT) 200 and performing arithmetic processing and control;
An LED drive 203 for turning on / off a light emitting diode (LED) by a signal command of the microcomputer 201;
It consists of a power supply unit 204 for supplying power to the microcomputer and the LED drive (LED Drive),
It includes a light emitting diode (LED, 202) on / off by the signal command of the LED drive (LED Drive) 203 for irradiating a plurality of light rays for each wavelength band,
The wireless module 200 sets a position on the skin, measures the position, and diagnoses and prescribes skin information measured for each position, and selects an LED (LED) beam according to the prescription and controls the function. Send and receive prescription information by wireless communication from the skin diagnostic device (D-1) with the implemented app mode,
The skin diagnosis device (D-1) is made of any one of the micro measurement system (B-1) and the macroscopic docking station (C-1),
The micro measurement system (B-1) is configured with an app mode that implements a function for selecting the LED (LED) beam of the wavelength according to the prescription and control, and has an LCD display 50 having a touch function and the user's skin position A camera 52 equipped with a microlens lens 51 for precisely enlarging a specific part of the image to obtain image image information, and a main body (CPU) that receives, analyzes, and stores the image information photographed from the camera 52. (53), the moisture measurement sensor 54 for measuring the skin moisture distribution rate of the user, and the water collected by the moisture measurement sensor 54 is processed to a numerical value and transmitted to the main body (CPU) 53 And the moisture measurement controller 55 for controlling the measurement of the moisture measurement sensor 54, the elasticity measurement sensor 56 for measuring the elasticity of the skin, and the elasticity information measured from the elasticity measurement sensor 56. Determination and determination of aging To the main body (CPU) 53 and also controls the elasticity measuring controller 57 for controlling the measurement of the elasticity measuring sensor 56, a temperature measuring sensor 58 for measuring the temperature of the skin, and the temperature measuring sensor Temperature measurement controller 59 which transmits the skin temperature information measured from the 58 to the main body (CPU) 53 and controls the temperature measurement of the temperature measuring sensor 58, and the power supply 60 or the battery. LED lighting 62 for driving the main body (CPU) 53 by the power supplied from the 61 and irradiating light to receive image information of the camera 52, and the main body (CPU) 53. It consists of a wireless module 63 for transmitting and receiving the diagnostic image or information and the analyzed data stored in the wireless with the control unit of the mask,
The macroscopic docking station C-1 separates the microlens 51 and the LED illumination 62 mounted on the camera 52 of the micrometering system B-1, and the macroscopic lens 510. Customized LED light irradiator according to the skin analysis, characterized in that made by mounting the LED light (620) suitable for the macroscopic lens (510). delete delete delete delete delete

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