KR20240046331A - Face care apparatus - Google Patents

Abstract

The present invention relates to a facial care device, comprising: a main body that manages facial skin and wrinkles using an optical module; A stand that can hold the main body and is connected to the main body through wireless communication to remotely control the main body or monitor the status of the main body; A support that is physically coupled to the holder and allows the face of the user to be photographed for wrinkle analysis to always be in close contact with the user at a constant position; And it is connected to the holder through wireless communication to update the app of the main body, receive shooting data, perform wrinkle analysis, and transmit the wrinkle analysis results to the holder, thereby forming a touch & display on the holder. Includes a device that allows output to the module.

Description

Face care device {FACE CARE APPARATUS}

The present invention relates to a facial care device, and more specifically, to a facial care device that can support the improvement of wrinkles occurring on the face, facial skin care, facial health care, or analysis of wrinkles on the face or eye area. will be.

In general, wrinkles on the skin occur as a result of a combination of intrinsic aging, which occurs naturally as one ages without the influence of the environment, and extrinsic aging, which occurs due to the influence of the environment.

Accordingly, in order to prevent skin diseases and skin aging, modern people are managing damaged skin with functional cosmetics, packs, massage, and professional procedures to quickly restore damaged skin. Among these skin care methods, mask pack products with various effects are on the market and are widely preferred because they are easy to use. In addition to these mask packs, the development of masks using phototherapy is also being actively developed.

For example, phototherapy is based on the fact that light promotes biochemical reactions within the skin. It uses various light sources such as sunlight, lasers, fluorescent lights, and UV lamps to treat damaged skin by regenerating or destroying skin tissue. It is a medical technology. And recently, masks using LED light are being used for cosmetic purposes as well.

In particular, LED is effective and economical because it is safe because it does not cause heat damage or direct tissue damage and can treat a wide range of affected areas or skin by arranging light of various wavelengths in a wide and simple manner.

Among the various wavelengths of the LED, red visible light and near-infrared light have high penetrability into the skin and muscles, so they can treat or improve skin beauty even in deep areas, and do not damage the surrounding area through which the light passes. These characteristics of LEDs are that they are less dangerous than lasers, so the FDA has approved them for use on the human body.

It is already known that different therapeutic effects appear depending on the wavelength of light used as described above.

For example, light with a wavelength of 633nm is known to improve the skin's natural healing ability and create healthy and beautiful skin through the production of collagen and elastin, while blue light at 415nm is known to be effective in treating inflammatory diseases, and light with a wavelength of 830nm is known to promote the growth of skin cells. It is known to be effective in regenerating skin and healing wounds after sunburn.

However, although it is widely known that devices for skin care using light as described above are effective, there is no way for users who actually use these devices to visually confirm the care effects.

The background technology of the present invention is disclosed in Korean Patent Publication No. 10-2018-0096971 (published on August 30, 2018, LED treatment device for alleviating surgical scars).

According to one aspect of the present invention, the present invention was created to solve the above problems, and supports the improvement of wrinkles occurring on the face, facial skin care, facial health care, or analysis of wrinkles on the face or eye area. The purpose is to provide a facial management device that allows.

A facial care device according to one aspect of the present invention includes a main body that manages facial skin and wrinkles using an optical module; A stand that can hold the main body and is connected to the main body through wireless communication to remotely control the main body or monitor the status of the main body; A support that is physically coupled to the holder and allows the face of the user to be photographed for wrinkle analysis to always be in close contact with the user at a constant position; And it is connected to the holder through wireless communication to update the app of the main body, receive shooting data, perform wrinkle analysis, and transmit the wrinkle analysis results to the holder, thereby forming a touch & display on the holder. It is characterized in that it includes a device that allows output to the module.

In the present invention, the main body is characterized in that it is mounted on the holder and charged wirelessly, or is directly connected to an adapter and charged in a wired manner.

In the present invention, the main body includes an optical module in which a plurality of light sources are formed at designated intervals, and the light source of the optical module includes a plurality of LEDs having different wavelengths, colors, and energy levels of light. Characterized in that it includes a type of light source.

In the present invention, the main body includes: a first processor that controls to selectively irradiate light only to areas with wrinkles among the entire face area when operating in an operation mode corresponding to a wrinkle analysis result according to remote control of the holder; It is characterized by including.

In the present invention, the holder includes a camera module for photographing the face of a user to analyze wrinkles, and opens the cover to display the camera module, the lighting module, and a menu related to wrinkle analysis results and face management. It is characterized in that the touch & display module is formed in an exposed form.

In the present invention, the holder sets an operation mode corresponding to the analysis result of the user's wrinkle state, and remotely controls the light source of the optical module by communicating with the first processor of the main body, so that the cradle can be customized according to the user's wrinkle state. It is characterized in that it includes a second processor that performs face management.

In the present invention, the holder displays a menu for wrinkle analysis, a menu for facial skin care, and a menu for setting up a plurality of devices, and moves the main body according to a menu selected by the user using a touch method among the menus. It is characterized in that it includes a touch & display module that allows remote control and outputs the wrinkle analysis results of the user.

In the present invention, the main body checks whether the main body is worn on the face, and when the main body is worn on the face with the power switch turned on, it switches into an operation mode when there are wrinkles and an operation mode when there are no wrinkles. Accordingly, the optical module is controlled, and when the power switch is turned on and the light is not worn on the face, the optical module is turned off to terminate light irradiation in order to protect the user's eyes and prevent power consumption. When the first specified time has elapsed after terminating, it is determined that the user cannot use the main body, and the power switch is automatically turned off.

In the present invention, when the cover of the holder is opened and the start analysis button is input from the menu displayed on the touch & display module of the holder, the holder checks whether the registration of the genuine key has been completed, and if the genuine key is If it is not registered, a genuine key registration guide is printed so that the user can register the genuine key. If the genuine key is already registered, the camera module mounted on the holder is activated, and the touch & display module is activated. The camera image is output in real time, and when the user takes the correct posture by referring to the camera image output in real time to the touch & display module and completes the shooting by pressing the shooting button, the captured image of the user's face is sent to the device. The device processes the user's face image and receives wrinkle analysis results that analyze the wrinkle condition, outputs them to the touch & display module, and performs a face management operation mode corresponding to the wrinkle analysis results. It is characterized by being implemented.

According to one aspect of the present invention, the present invention provides support for improving wrinkles occurring on the face, managing facial skin, managing facial health, or analyzing wrinkles on the skin around the face or eyes.

1 is an exemplary diagram showing the schematic configuration of a face management device according to an embodiment of the present invention.
FIG. 2 is a flowchart for explaining the control method of the face management device according to the first embodiment of FIG. 1.
FIG. 3 is a flowchart for explaining the control method of the face management device in FIG. 1 according to a second embodiment.
FIG. 4 is a flowchart for explaining the control method of the face management device according to the third embodiment of FIG. 1.
FIG. 5 is an exemplary diagram showing the outer and inner shapes of the main body of the facial care device in FIG. 1.
Figure 6 is an example diagram showing the closed and open states of the cover of the holder and the menu displayed on the touch & display module in Figure 1.
FIG. 7 is an example diagram shown in FIG. 1 to explain the shape of the support to which the stand is coupled and the preparation operation for taking a picture for wrinkle analysis by placing the face in close contact with the support.
FIG. 8 is an example diagram shown in FIG. 7 to explain a method of starting imaging when preparation for imaging for wrinkle analysis is completed.
FIG. 9 is an example of a screen showing a method of starting facial care after completing wrinkle analysis and displaying the care time after starting, as shown in FIG. 7. FIG.

Hereinafter, an embodiment of a face management device according to the present invention will be described with reference to the attached drawings.

In this process, the thickness of lines or sizes of components shown in the drawing may be exaggerated for clarity and convenience of explanation. In addition, the terms described below are terms defined in consideration of functions in the present invention, and may vary depending on the intention or custom of the user or operator. Therefore, definitions of these terms should be made based on the content throughout this specification.

1 is an exemplary diagram showing the schematic configuration of a face management device according to an embodiment of the present invention.

As shown in FIG. 1, the face management device according to this embodiment includes a main body 100, a holder 200, a support 300, and a server 400.

The main body 100 includes a sensor module 110, an operation module 120, a first processor 130, an optical module 140, and a first communication module 150.

The holder 200 includes a camera module 210, a lighting module 220, a second processor 230, a touch & display module 240, and a communication module 250.

The main body 100 and the holder 200 of the face management device are connected through a wireless communication method (e.g. WiFi, Bluetooth, NFC, IR, etc.) to remotely control the main body 100 or monitor the status of the main body 100. It can be monitored.

In addition, the holder 200 and the server 400 of the facial management device are connected by wireless communication (e.g., Internet, LTE, etc.) to update the app or collect data (e.g., image data) for wrinkle analysis. You can transmit or receive the wrinkle analysis results.

Additionally, the holder 200 of the facial management device may be attached to the support 300 to photograph the user's face for wrinkle analysis (see FIG. 7).

The main body 100 of the facial care device can be mounted on the holder 200 and charged wirelessly, or directly connected to an adapter (not shown) and charged in a wired manner.

The sensor module 110 is attached to the inside or outside of the main body 100 of the face management device and includes at least one sensor for detecting face temperature, face humidity (e.g., face moisture), and face skin color. Includes sensors. At this time, the sensors that detect the above-described information (e.g., facial temperature/humidity/skin color, etc.) are for illustrative purposes only and are not intended to be limiting.

The manipulation module 120 receives a user's command to operate the main body 100 of the face management device.

For example, the manipulation module 120 can remotely perform power on/off, operation mode, and status information through the user's touch, voice, fingerprint, and menu manipulation of the holder 200.

Accordingly, the manipulation module 120 is preferably formed on the outside of the main body 100 of the face management device, but is not limited to this, and is not limited to this, and is not limited to at least one of the boundary between the outside and the inside of the main body 100 of the face management device. It can be formed in one.

The first processor 130 integrates and controls the sensor module 110, the manipulation module 120, the optical module 140, and the first communication module 150 to determine the facial condition for each user (e.g., wrinkle analysis result). ) Controls the main body 100 of the face management device in an operation mode corresponding to ).

The optical module 140 includes a plurality of light sources (eg, LEDs) formed at predetermined intervals inside the main body 100 of the facial management device (see FIG. 5).

The light source includes an LED type light source, the wavelength range of light generated from each light source is formed differently, and the color of the light emitted from each light source may also be formed differently. In other words, a plurality of light sources with different light wavelengths and colors are formed by arranging them at predetermined positions and at specified intervals.

For example, the light source may be equipped with various specifications that irradiate light in different wavelength ranges. For example, some of the plurality of light sources may be LEDs that output a wavelength of 460 nm to 470 nm, others may be LEDs that output a wavelength of 620 nm to 680 nm, and still other parts may be LEDs that output a wavelength of 760 nm to 900 nm. You can.

In the case of the infrared wavelength of 460 nm to 470 nm, it is known to have skin regeneration and wrinkle improvement effects by activating epidermal cells and increasing blood flow to activate skin tissue. The light emitted from the light source and the heat generated by the light can stimulate cells that produce collagen and elastin, which maintain skin elasticity, to induce active production of collagen and elastin.

Additionally, the optical module 140 may adjust the wavelength, color, and size of energy emitted from the light source according to the state of each user's face (e.g., wrinkles).

In addition, the light module 140 irradiates light only to a selectively designated location (e.g., a location with wrinkles) among the entire facial area, or the energy level of the light irradiated for each area (i.e., an area with wrinkles or an area without wrinkles). can be adjusted differently. Accordingly, unnecessary waste of power can be prevented and the impact on the wrinkled and non-wrinkled areas for each user can be harmonized.

The first communication module 150 is connected to the holder 200 through a wireless communication method (e.g. WiFi, Bluetooth, NFC, IR, etc.), so that the holder 200 remotely controls the main body 100, It is possible to monitor the status of the main body 100.

The camera module 210 of the holder 200 captures the user's face and transmits it to the server 400, allowing the server 400 to analyze the user's skin condition (eg, wrinkle condition).

For reference, the camera module 210 includes at least one camera sensor (or image sensor), and the at least one camera sensor (or image sensor) may be formed at a predetermined location inside the holder cover.

The lighting module 220 (or lighting) operates when the user's face is photographed through the camera module 210, allowing the user's face to be clearly photographed (see FIG. 6). The lighting module 220 (or lighting) may be provided in plural numbers.

The second processor 230 processes information (e.g., voice, fingerprint, registered user selection, etc.) input through at least one of the manipulation module 120, the camera module 210, and the touch & display module 240. ) can be analyzed to automatically or manually (forcefully) recognize the user. When the user is recognized as described above, the second processor 230 stores the usage time and operation mode information of the main body 100 of the face management device for each user, and the skin condition (e.g., wrinkle condition) for each user in the internal memory ( (not shown) can be managed cumulatively.

In addition, the second processor 230 may set an operation mode based on an analysis result of the user's skin condition (e.g., wrinkle condition), and the optical module ( 140), the light source can be custom-controlled according to the user's skin condition (e.g., wrinkle condition).

The touch & display module 240 of the holder 200 displays a menu for wrinkle analysis, a menu for facial skin care, and a menu for multiple settings, and among the menus, a menu is selected by the user using a touch method. Accordingly, the main body 100 can be remotely controlled. Additionally, analysis results of the user's skin condition (e.g., wrinkle condition) can be output through the touch & display module 240.

Additionally, the touch & display module 240 of the holder 200 can output power on/off, operation mode, and status information of the main body 100 (see FIGS. 6 to 9).

For example, the touch & display module 240 can output the usage time of the main body 100 of the face management device, the current operation mode, facial condition (wrinkle condition), and facial management guide information.

The second communication module 250 can communicate with the holder 200 of the face management device, the main body 100, a mobile terminal (eg, a smartphone), an Internet router, and the server 400. In addition, through the second communication module 250, the second processor 230 can update an app (APP) and transmit operation information or status information to the server 400, and the main body ( 100) can be controlled remotely.

The server 400 may be trained in advance to analyze the user's skin condition (eg, wrinkle condition). That is, the server 400 can compare the effects of facial skin care (eg, wrinkle management) and transmit the results to the holder 200 to output them.

FIG. 2 is a flowchart for explaining the control method of the face management device according to the first embodiment of FIG. 1.

As shown in FIG. 2, when the power switch of the face management device is turned on (example in S101), the first processor 130 checks whether the main body 100 of the face management device is worn on the face (S102). .

When the main body 100 of the facial care device is turned on and worn on the face (example in S102), the first processor 130 is set to an operation mode (e.g., a mode when there are wrinkles, a mode when there are no wrinkles). The light module 140 is controlled according to the mode of the case to irradiate light for each area of the face (e.g., area with wrinkles, area without wrinkles) (S103).

Meanwhile, if the power switch of the main body 100 of the face management device is turned on and is not worn on the face (No in S102), the first processor 130 is configured to protect the user's eyes and prevent power consumption. The optical module 140 is turned off to terminate light irradiation so that no light is irradiated (S104).

In addition, when the first specified time (e.g., 30 seconds) has elapsed after the light irradiation is terminated (example in S105), it is determined that the user cannot use the main body 100, and the power switch is automatically turned off ( S106).

FIG. 3 is a flowchart for explaining the control method of the face management device according to the second embodiment of FIG. 1.

As shown in FIG. 3, the second processor 230 opens the cover of the holder 200 (example of S201) and selects the start analysis button among the menus displayed on the touch & display module 240 of the holder 200. When (i.e., start button for wrinkle analysis) is input (example in S202), if wireless communication (e.g. WiFi) is set, check whether the genuine key registration has been completed (S203), and if the genuine key is registered If it is not in the status (No in S203), a genuine key registration guide is printed (S210) so that the user can register the genuine key.

And if the genuine key has already been registered (example in S203), the camera module (e.g. optical phase contrast camera) 210 mounted on the holder 200 is operated (S204), and the touch & display module of the holder 200 is operated. The camera image is output in real time at 240 (S205) (see FIGS. 7 and 8).

Accordingly, the user takes the correct posture by referring to the camera image output in real time to the touch & display module 240 of the holder 200, and when the user inputs the shooting button and the shooting is completed (example in S206) (Figure 8), the captured image (i.e., the user's face image) is transmitted to the server 400 (S207).

Accordingly, the server 400 processes the image (i.e., the user's face image) transmitted from the holder 200, analyzes the wrinkle state, and transmits it to the holder 200, and the holder 200 is the server. The wrinkle analysis result is received from 400, and the wrinkle analysis result is output to the touch & display module 240 of the holder 200 (S208).

And the second processor 230 performs facial management (care) based on the wrinkle analysis results (S209) (see (d) of FIG. 7).

FIG. 4 is a flowchart for explaining the control method of the face management device according to the third embodiment of FIG. 1.

As shown in FIG. 4, when the main body 100 or the holder 200 of the face management device is manipulated (example of S301), the second processor 230 operates the manipulation module 120 of the main body 100, By analyzing information (e.g. voice, fingerprint, registered user selection, etc.) input through at least one of the touch & display module 240 of the holder 200 and the camera module 210 of the holder 200, , the user is recognized automatically (Yes in S302), or if the user cannot be recognized automatically (No in S302), the user is recognized manually (forced) (S303).

When the user is recognized automatically or manually as described above, the second processor 230 selects the user-specific operation mode (i.e. , an operation mode according to the wrinkle state) is retrieved (loaded), and the optical module 140 is controlled through the first processor 130 to perform light irradiation (S304).

When light irradiation is performed for each user as described above, the usage information of the facial management device is accumulated and stored in the internal memory (or storage unit (DB)), and the facial condition (i.e., wrinkle condition) for each user is analyzed. is stored cumulatively every time you manage your face (S305).

In addition, the second processor 230 stores the cumulatively stored usage information of the face management device for each user (e.g., total usage time, usage time zone, average usage time per time, operation mode, etc.), and facial condition (i.e., wrinkle state). Outputs the analysis results and effects (e.g., the effect of improved wrinkle condition according to accumulated usage time) (S306).

As described above, in this embodiment, the camera module 210 (e.g., optical phase contrast camera) is operated through the menu button of the holder 200 to capture the user's face according to the instructions, and the captured image is communicated with the server to communicate with the AI server. (Artificial intelligence) analysis is performed, the presence of wrinkles around the eyes, etc. is analyzed, and the wrinkle analysis results are output to the user through the holder 200.

After outputting the wrinkle analysis results, when the user wants to irradiate light, he or she operates the menu button to remotely control the main body 10 of the facial management device to apply light to the user's skin (e.g., especially the user's skin in areas with wrinkles). (e.g. irradiate more light to areas with wrinkles) (see Figure 5).

At this time, the user may wear safety glasses (e.g., laser protection glasses) as a safety device against the irradiated light.

Additionally, the face management device according to this embodiment performs operations for safety.

For example, 1) The LED does not operate during charging. 2) After operating the device, the operation automatically ends after a specified time (e.g. 20 minutes). 3) If an object is not detected within a certain distance by applying a proximity sensor that detects an object, it is considered that the mask is not worn and the operation mode is paused, the LED does not turn on, and the paused state continues for a specified time (e.g. If an object is not detected for 3 minutes, it is determined that the mask is not worn and the device is automatically turned off. 4) If the user presses a designated button (e.g. touch sensor) on the main unit while the device is in operation, the currently operating mode and power can be terminated. 5) A PCM protection circuit is applied inside the battery to prevent battery swelling, overcharging, and overdischarging during charging and discharging.

Additionally, the face management device according to this embodiment operates using a battery (not shown) built into the main body 100, and charges are performed while the main body 100 is placed on the holder 200.

The holder 200 is equipped with a camera module 210 (e.g., optical phase contrast camera) on the inside of the cover, and when the cover is opened, the camera module 210 is exposed and is placed in close contact with the support. ) is photographed. When the cover of the holder 200 is opened, the touch & display module 240 (e.g., LCD display) is exposed, and the user's face captured using the camera module 210, wrinkle analysis results, and/or the A menu for remotely controlling the face management device is displayed (see FIGS. 6 to 8).

At this time, the holder 200 is coupled to the support 300, and the support 300 serves to always keep the shooting range and position of the user's face constant from the camera module 210. For example, when taking a picture of the user's face using the camera module 210, it fixes the face so that it does not shake and serves to increase accuracy when analyzing wrinkles around the eyes.

The menu displayed on the touch & display module 240 (e.g., LCD display) of the holder 200 can be operated by the user by touch, and is based on the wrinkle analysis function around the eyes and the wrinkle analysis results. In order to use care (i.e. facial care), you must register a genuine key.

For reference, this will explain how to use the function to analyze wrinkles around the eyes, etc. by manipulating the menu displayed on the touch & display module 240 (e.g., LCD display) of the holder 200 and then perform the care mode. .

For example, when the user selects the "Start Analysis" button from the menu of the holder while keeping his face in close contact with the support 300 (see FIGS. 6 and 7), the holder 200 captures the user's face when the shooting mode is executed. and displayed on the touch & display module 240 (e.g. LCD display).

Accordingly, the user checks whether the face displayed on the touch & display module 240 (e.g., LCD display) has been photographed normally, and adjusts the position or angle of the cover on which the camera module 210 is mounted. The user's face can be adjusted to fit exactly within the screen of the display module 240 (e.g., LCD display).

As described above, when the position at which the user's face is captured is adjusted and the user presses the "shoot" button (see FIG. 9), the second processor 230 performs a count for a specified time (e.g., 5 seconds) (FIG. 8 (see ), the user closes his eyes and waits by maintaining a fixed posture while the count is performed.

At this time, the number of shots can be taken in front of the face, in the left side of the face, and in the right side of the face. Since the lighting is turned on during the shooting, the user must close his eyes. Accordingly, the holder 200 may output a message informing the user to close his or her eyes.

If the shooting is wrong or you want to shoot again, you can return to the initial menu screen by selecting the "First" button and then perform shooting again by "Start Analysis" (see Figure 7).

The captured image is automatically transmitted to a designated server (i.e., a server for wrinkle analysis) 400 to determine whether there are wrinkles, and if there are wrinkles, the location and size of the wrinkles are analyzed. When the wrinkle analysis is completed, the server 400 stores the analysis results in the internal memory, transmits them to the holder 200, and outputs them through the touch & display module 240 (eg, LCD display).

Based on the wrinkle analysis results displayed on the touch & display module 240 (e.g., LCD display) (e.g., when wrinkles are found, when wrinkles are not found), the user performs care (i.e., facial care) in the specified operation mode. ) can be started. When care (i.e., facial care) in the designated operation mode begins, the care time (i.e., operation time) is displayed on the LCD display of the holder (see FIG. 9).

As described above, this embodiment supports the improvement of wrinkles occurring on the face, facial skin care, facial health care, or analysis of wrinkles on the face or eye area.

As described above, the present invention has been described with reference to the embodiments shown in the drawings, but these are merely illustrative, and various modifications and equivalent embodiments can be made by those skilled in the art. You will understand the point. Therefore, the scope of technical protection of the present invention should be determined by the scope of the patent claims below. Implementations described herein may also be implemented as, for example, a method or process, device, software program, data stream, or signal. Although discussed only in the context of a single form of implementation (eg, only as a method), implementations of the features discussed may also be implemented in other forms (eg, devices or programs). The device may be implemented with appropriate hardware, software, firmware, etc. The method may be implemented in a device such as a processor, which generally refers to a processing device that includes a computer, microprocessor, integrated circuit, or programmable logic device. Processors also include communication devices such as computers, cell phones, portable/personal digital assistants (“PDAs”) and other devices that facilitate communication of information between end-users.

100: main body 110: sensor module
120: operation module 130: first processor
140: optical module 150: first communication module
200: Holder 210: Camera module
220: lighting module 230: second processor
240: Touch & Display Module 250: Communication Module
300: support 400: server

Claims (9)

A main body that manages facial skin and wrinkles using optical modules;
A stand that can hold the main body and is connected to the main body through wireless communication to remotely control the main body or monitor the status of the main body;
A support that is physically coupled to the holder and allows the face of the user to be photographed for wrinkle analysis to always be in close contact with the user at a constant position; and
A touch & display module formed on the holder is connected to the holder through wireless communication, updates the app of the main body, receives shooting data, performs wrinkle analysis, and transmits the wrinkle analysis results to the holder. A facial management device comprising a device that allows output to a face.
The method of claim 1, wherein the main body:
A facial care device characterized in that it is mounted on the holder and charged wirelessly, or is directly connected to an adapter and charged in a wired manner.
The method of claim 1, wherein the main body:
It includes an optical module in which a plurality of light sources are formed at specified intervals,
The light source of the optical module is,
A facial care device comprising a plurality of LED type light sources having different wavelengths, colors, and energy levels.
The method of claim 1, wherein the main body:
According to the remote control of the holder,
When operating in an operation mode corresponding to the wrinkle analysis results,
A facial care device comprising a first processor that controls light to be selectively irradiated only to areas with wrinkles among the entire face area.
The method of claim 1, wherein the stand is:
Includes a camera module that photographs the user's face to analyze wrinkles,
A facial care device characterized in that the camera module, the lighting module, and the touch & display module that display wrinkle analysis results and menus related to facial care are exposed by opening the cover.
The method of claim 1, wherein the stand is:
Sets the operation mode corresponding to the analysis results of the user's wrinkle condition,
A facial management device comprising: a second processor that communicates with the first processor of the main body and remotely controls the light source of the optical module to perform customized facial management according to the user's wrinkle condition.
The method of claim 1, wherein the stand is:
Displays a menu for wrinkle analysis, a menu for facial skin care, and a menu for setting up multiple devices, and allows the user to remotely control the main body according to the menu selected by the user using a touch method among the menus. A facial care device comprising a touch & display module that outputs wrinkle analysis results.
The method of claim 1, wherein the main body:
Check whether the main body is worn on the face,
When the main body is worn on the face with the power switch turned on, the optical module is controlled according to the operation mode when there are wrinkles and the operation mode when there are no wrinkles,
If the power switch is turned on and not worn on the face, the optical module is turned off to end light irradiation in order to protect the user's eyes and prevent power consumption;
A facial care device characterized in that when the first designated time elapses after the light irradiation is terminated, it is determined that the user cannot use the main body, and the power switch is automatically turned off.
The method of claim 1, wherein the stand is:
When the cover of the holder is opened and the start analysis button is input from the menu displayed on the touch & display module of the holder,
Check whether the genuine key registration has been completed. If the genuine key has not been registered, print a genuine key registration guide so that the user can register the genuine key.
If the genuine key has already been registered, the camera module mounted on the holder is activated and the camera image is output to the touch & display module in real time,
When the user takes the correct posture by referring to the camera image output in real time to the touch & display module and presses the shooting button to complete the shooting, the captured image of the user's face is transmitted to the device,
The device processes the user's face image, receives wrinkle analysis results that analyze the wrinkle condition, and outputs them to the touch & display module,
A face management device characterized in that it is implemented to perform a face management operation mode corresponding to the wrinkle analysis result.

Images