KR101798099B1 - Method for peeling skin and skin peeling device - Google Patents

Abstract

The present invention relates to a skin peeling method, and a skin peeling device. The skin peeling method comprises: a step of inputting mode setting information to the skin peeling device; and a step of operating the skin peeling device based on the mode setting information. The mode setting information refers to an operational mode of the skin peeling device, and the operational mode includes a standby mode, a first mode, a second mode, and a water drain mode.

Description

TECHNICAL FIELD [0001] The present invention relates to a skin peeling method and a skin peeling device,

The present invention relates to a skin filling method and a skin peeling machine. More particularly, the present invention relates to a skin filling method for performing skin care through expensive aquapilation performed at a dermatologist or beauty shop at home, and an apparatus for performing such a method.

Many people want to overcome the skin elasticity, wrinkles and skin aging and look younger. There is a growing interest in anti-aging and anti-aging industries to meet these consumers' desires.

According to research data from Samsung Economic Research Institute, domestic market size for skin beauty is expected to grow from 11.9 trillion won in 2011 to 28.3 trillion won in 2020.

In particular, as the facial beauty industry, which is one of the anti-aging and anti-aging industries, has grown, various beauty devices have been emerging to help prevent facial skin aging. Among them, the water peeling machine is a device that can easily massage the face. The water peeling machine is developed not only for various skin care companies and dermatologists, but also for home use, helping consumers to manage their own skin at home.

The demand for such a skin-filling device is increasing, and the consumer wants to effectively manage the skin at a lower cost. Therefore, it is necessary to study the skin peeling machine to manage the skin more effectively and at low cost without visiting the esthetic shop or dermatology.

It is an object of the present invention to solve all the problems described above.

It is another object of the present invention to provide a skin peeling machine for simple skin care at home.

Another object of the present invention is to provide a cleansing function or an essence function effectively without waste of cleansing solution and essence solution depending on the skin contact area and skin characteristics through the handpiece.

In order to accomplish the above object, a representative structure of the present invention is as follows.

According to an aspect of the present invention, a skin filling method may include receiving a mode setting information by a skin peeling device and operating the skin peeling device based on the mode setting information, Setting information for an operation mode of the peeling machine, and the operation mode may include a standby mode, a first mode, a second mode, and a dew condensation mode.

According to another aspect of the present invention, a skin peeling machine comprises a first container embodied for storing a first solution, a second container embodied for storing a second solution, a second container embodied for ejecting the first solution and the second solution, A handpiece implemented to recover said first solution and said second solution, a third vessel embodied for storing said recovered first solution and said second solution, Wherein the controller is configured to receive mode setting information and to operate the skin peeling device based on the mode setting information, wherein the mode setting information includes at least one of skin peeling And the operation mode may include a standby mode, a first mode, a second mode, and a drain mode.

According to the present invention, a skin peeling machine for simple skin care at home can be provided.

According to the present invention, a cleansing function or an essence function can be effectively provided without waste of cleansing solution and essence solution depending on the skin contact area and skin characteristics through the handpiece.

1 is a conceptual view showing a skin-peeling machine according to an embodiment of the present invention.
2 is a conceptual diagram illustrating an operation of a skin peeling machine according to an embodiment of the present invention
3 is a conceptual diagram showing a circuit configuration of a skin peeling machine according to an embodiment of the present invention.
FIG. 4 is a conceptual view showing a configuration of a skin peeling machine according to an embodiment of the present invention.
5 is a conceptual diagram illustrating a structure of a handpiece according to an embodiment of the present invention.
FIG. 6 is a conceptual diagram illustrating a hand-based skin management method according to an embodiment of the present invention.
7 is a conceptual diagram illustrating a method of operating a handpiece according to an embodiment of the present invention.

The following detailed description of the invention refers to the accompanying drawings, which illustrate, by way of illustration, specific embodiments in which the invention may be practiced. These embodiments are described in sufficient detail to enable those skilled in the art to practice the invention. It should be understood that the various embodiments of the present invention are different, but need not be mutually exclusive. For example, the specific shapes, structures, and characteristics described herein may be implemented by changing from one embodiment to another without departing from the spirit and scope of the invention. It should also be understood that the location or arrangement of individual components within each embodiment may be varied without departing from the spirit and scope of the present invention. Therefore, the following detailed description is not to be taken in a limiting sense, and the scope of the present invention should be construed as encompassing the scope of the appended claims and all equivalents thereof. In the drawings, like reference numbers designate the same or similar components throughout the several views.

Hereinafter, various embodiments of the present invention will be described in detail with reference to the accompanying drawings so that those skilled in the art can easily carry out the present invention.

In the embodiment of the present invention, a skin peeling machine that enables cleansing, exfoliation, extraction, and nutrient supply directly at home instead of skin care by an expensive aquapilation machine performed in a dermatologist or a beauty shop is disclosed.

1 is a conceptual view showing a skin-peeling machine according to an embodiment of the present invention.

In Fig. 1, a skin peeling machine capable of moisture peeling is disclosed.

1, the skin peeling machine includes a hand piece 100, a first container 110, a second container 120 and a third container 130, a pump motor 140, a power source unit (not shown) An output unit (not shown), a controller 150, and a valve unit 160.

The handpiece 100 may be an apparatus for performing skin care by contacting the user's skin. The distal end of the handpiece 100 may be replaced in different forms depending on whether it is in contact with any surface of the user's face. The first handpiece type may be implemented in a shape for performing skin care for a narrow area such as a T zone of a face. The second handpiece type may be implemented in a shape for performing skin care for a large area such as a face or forehead of a face. The user can selectively use the first handpiece type or the second handpiece type as needed.

The distal end of the handpiece 100 may be configured to eject the first solution stored in the first container 110 or the second solution stored in the second container. At the distal end of the handpiece 100, a solution transfer part for flowing the first solution or the second solution after adhering the handpiece and the skin may be located. When the handpiece 100 and the skin are in close contact with each other, the wall forming the solution transfer portion can be brought into contact with the skin, and the skin can be managed through the first solution or the second solution, For example, cleansing or essence, can be performed. The solution transfer path can be variously determined depending on the shape of the solution transfer part. The solution transfer part can be formed in a bending form, and the first solution or the second solution can flow according to the bending, so that the contact time between the first solution or the second solution and the skin can be increased.

In addition, the distal end of the handpiece 100 may include a solution jetting portion and a solution sucking portion. The solution jetting portion may be implemented to flow the first solution or the second solution through the solution transfer portion. The solution spraying unit may spray the solution (the first solution or the second solution) to the end of the handpiece 100 through the pipe connecting the first container 110 and the second container 120 to the handpiece 100 Can be implemented. The solution sucking portion may be implemented to move the first solution or the second solution out of the solution jet portion through the solution transfer portion and then to the third container 130 again. The first solution or the second solution sucked through the solution sucking portion may be moved to the third container 130 through a pipe connecting the solution sucking portion and the third container 130.

That is, after the first solution or the second solution is ejected from the first container 110 or the second container 120 through the solution spouting part of the handpiece, the first solution or the second solution is discharged into the third container 130 through the solution suction part of the handpiece You can enter.

The handpiece 100 can improve the skin care effect through the first solution or the second solution through the galvanic function. The galvanic function is a function that helps the ionization of the molecules through galvanic current flow to infiltrate the active ingredients into the skin or to discharge waste products. The handpiece can perform the first solution-based cleansing and the second solution-based essence supply more effectively through the galvanic function.

The first container 110 may be implemented to store the first solution.

For example, the first solution may be a solution for cleansing. The first solution may be alpha hydroxy acid (AHA), which is readily soluble in waste and used for the removal of waste products. When the operation mode of the skin peeling machine is the first operation mode, the first solution can be supplied through the handpiece. The first solution exits through the first container 110, is ejected through the solution spouting part of the handpiece, and then sucked into the third container 130 through the solution suction part.

The second container 120 may be implemented to store the second solution.

For example, the second solution may be a solution for skin nutrition. The second solution may be a high-concentration hydro-essence that provides a variety of nutrients to aid skin. When the operation mode of the skin peeling machine is the second operation mode, the second solution can be supplied through the handpiece. The second solution may be drawn out from the second container 120 and ejected through the solution spouting portion of the handpiece, and then sucked into the third container 130 through the solution suction portion.

A T-shaped valve is positioned between the first and second vessels 110 and 120 and the first solution or the second solution can flow through the handpiece depending on the mode of operation of the skin peeling machine.

The inlet direction of the first container 110 and the second container 120 are the same as the inlet direction of the third container 130. The inlet direction of the first container 110 and the second container 120, And the inlet direction of the third container 130 may be reversed. For example, the inlet direction of the first vessel 110 and the second vessel 120 is in the direction of gravity (or the lower end of the skin peeling machine), and the inlet direction of the third vessel 130 is the opposite direction of gravity The upper direction of the peeling machine).

The valve portion 160 may include a first solenoid valve (or a first water solenoid valve) and a second solenoid valve (or a second water solenoid valve).

The valve portion 160 may be implemented to provide a first solution through the first vessel 110 or to provide a second solution through the second vessel 120. For example, in the first mode, the first solution contained in the first container 110 may be supplied to the handpiece through the first solenoid valve. In the second mode, the second solution contained in the second container 120 can be supplied to the handpiece through the second solenoid valve.

The third container 130 may be implemented for treatment of the first solution and the second solution after contact with the skin.

The first solution from the first container 110 or the second solution from the second container 120 is ejected through the handpiece 100 and then contacted with the skin and the remaining solution is contacted with the third container 130 Can be entered and processed. A pump motor 140 may be implemented at one end of the third vessel 130 and a pump motor 140 may be used to evacuate the third vessel 130. When the third container 130 is switched to the vacuum state, the first solution 110 or the second solution 120 is supplied with the first solution or the second solution through the solution outlet of the handpiece 100 And may enter the third container 130 through the solution suction portion.

The third container 130 may be connected to the liquid suction portion of the handpiece 100 through a pipe, and the liquid suction portion may have a suction force by the third container 130 in a vacuum state. Accordingly, the first solution and the second solution ejected through the handpiece 100 can be sucked through the solution suction part after being in contact with the skin, and can be contained in the third container 130.

The third container 130 may further include a water level sensor. The water level sensor senses the level of the first solution and the second solution recovered after contact with the skin, and transmits the sensed value to the control unit. The controller 150 may determine whether the skin peeling device operates as a water-drain mode based on the sensed water level. The controller 150 may control the skin peeling device to operate as a water-empty mode when the sensed water level is higher than a certain level.

A power supply (not shown) may be implemented to supply power for operation of each component of the skin peeling machine. The power supply unit (not shown) may operate based on directly supplied power, may include a charging structure, and may be powered on the charging structure to operate the skin peeling machine without power supply for a certain period of time.

An output (not shown) may be used to indicate the condition of the skin peeling machine. For example, the output (not shown) may indicate the power state of the skin peeling machine. The output unit (not shown) can output information on whether it is being charged, whether charging is completed, whether power is insufficient, and the like. Also, an output unit (not shown) may be implemented to output information on the operation mode. The output unit (not shown) may output information on whether the operation mode is the first mode, the second mode, or the water-empty mode.

The control unit 150 includes a handpiece 100, a first container 110, a second container 120, a third container 130 and a pump motor 140, a valve unit 160, a power unit (not shown) An output unit (not shown), and the like.

2 is a conceptual diagram illustrating an operation of a skin peeling machine according to an embodiment of the present invention

In Figure 2, three modes of operation of the skin peeling machine are disclosed.

Referring to FIG. 2, the skin peeling machine may operate in a standby mode 200, a first mode 210, a second mode 220, and a ditch mode 250.

The standby mode 200 may be implemented for operation of the skin peeling machine before operation in the first mode 210 or the second mode 220. [

The first mode 210 may be a mode for performing skin care through the first solution supplied from the first container. The first solution may be a cleansing solution, and the first mode 210 may be used for cleansing.

The second mode 220 may be a mode for performing skin care through the second solution supplied from the second container. The second solution may be an essence solution, and the second mode 220 may be used to supply the essence to the skin.

The drain mode 250 may be a mode for emptying the third vessel when the first solution and the second solution recovered in the third vessel are complete. The user can emptill the first solution and the second solution in the third vessel through the drain mode 250. [

The standby mode 200 can control the on operation for the motor pump. For example, in the standby mode (200), the motor pump may be operated to put the third container portion in a vacuum state and a suction force may be generated in the solution suction portion of the handpiece. In the standby mode 200, an output signal indicating the standby mode 200 may be output through the output unit.

The first mode 210 may be implemented such that the solenoid valve of the first container portion is opened so that the first solution flows through the first container to the handpiece. In the first mode 210, an output signal indicating the first mode 210 may be output through the output unit.

The second mode 220 may be implemented to open the solenoid valve of the second container portion so that the second solution flows through the second container to the handpiece. In the second mode 220, an output signal indicating the second mode 220 may be output through the output unit.

When power is applied to the skin peeling machine, the skin peeling machine can operate in the standby mode (200). In the standby mode 200, power is supplied to the motor pump, the third container is switched to a vacuum state, and a suction force may be generated in the handpiece due to the vacuum state.

When the first mode is selected in the standby mode 200, operations according to the first mode can be performed. The first solution can flow through the solution outlet of the handpiece through the first container and enter the third container through the solution suction portion.

When the second mode is selected in the standby mode 200, operations according to the second mode can be performed. Through the second container, the second solution can flow out through the solution jet port of the handpiece and enter the third container through the solution suction port.

The drain mode 250 may be performed when the solution level sensor implemented in the third vessel senses a solution level above a threshold value. The third container may store the recovered first solution and second solution after skin contact. When a solution of a predetermined level or higher is detected in the third container, the water discharge mode 250 may operate. An indicator indicating that the water discharge mode 250 is to be performed may be output from the output unit.

In the drain mode 250, a rotatable wastewater vessel hinge can be located to separate the third vessel. The waste water container hinge can be rotated 45 degrees so that the third container can be more conveniently separated after the user pulls the third container. The waste water container hinge structure will be described in more detail later.

3 is a conceptual diagram showing a circuit configuration of a skin peeling machine according to an embodiment of the present invention.

In Fig. 3, a circuit configuration for implementing a skin peeling machine is disclosed.

3, the circuit of the skin peeling machine may include a power unit 300, a control unit 310, an output unit 320, and a FET (field effect transistor) control block unit 330.

The power unit 300 may be implemented to provide power for operation of the skin peeling machine.

The power unit 300 may be implemented to supply power to the skin peeling unit based on power supplied from the outside or to store power for operation of the skin peeling unit.

For example, the power unit 300 may include a direct current (DC) / DC converter, a power path, and a charger.

The DC / DC converter can be implemented to secondarily change the characteristics of the electrical signal that is primarily converted by the adapter.

The power path may be a path of a power supply to provide a changed electrical signal by the DC / DC converter.

The charging unit may be implemented to supply power to the rechargeable battery for charging. The rechargeable battery may be a Li-ion battery.

The control unit 310 may be implemented to control the operation of each component in the skin peeling machine. For example, the control unit 310 may be implemented to control the operation of the FET control block unit for controlling the output unit 320 and each component of the skin peeling machine. Specifically, the control unit 310 can determine the state of the skin peeling machine and control the output unit 320 to output a signal matching the state of the skin peeling machine.

Further, the control unit 310 may be implemented to control the operation of the pump motor, the solenoid valve, and the water level sensor.

The output 320 may be implemented to indicate the condition of the skin peeling machine. The output unit 320 of the skin peeling machine can output information on the power state of the skin peeling machine, information on the operation mode of the skin peeling machine, and the like.

For example, the output unit 320 may output information related to the power of the skin peeling machine, such as being charged, completed, charged, or the like. Also, the output unit 320 may output information on whether the skin peeling machine is in the standby mode, the first mode, or the second mode. The output unit 320 may be implemented as an LED (light emitting diode) to output information on the power state of the skin peeling machine, information on the operation mode of the skin peeling machine, and the like.

The FET control block 330 may be coupled to the controller 310 to control the operation of each component of the skin peeling machine. For example, the FET control block unit 330 may be implemented to control the operation of the solenoid valve, the pump motor, and the water level sensor.

FIG. 4 is a conceptual view showing a configuration of a skin peeling machine according to an embodiment of the present invention.

Referring to FIG. 4, a connection structure may be formed at the entrance of the first container and the second container of the skin peeling machine to connect the air pipe 400 serving as a check valve. The openings of the first container 410 and the second container 420 may be oriented toward the lower end of the skin peeling machine.

The first solution or the second solution stored in the first container 410 or the second container 420 may be ejected through the solution ejecting portion of the handpiece through the air pipe based on the gravity and the suction force generated by the pump motor.

The air pipe may include a first pipe and a second pipe.

The first solution or the second solution before contact with the skin can be delivered through the first tube. The first pipe may primarily connect the first container 410 or the second container 420 and the solution jetting portion of the handpiece. After contact with the skin, the first solution or the second solution may be delivered through the second air line. The third container 430 can be secondarily connected from the solution suction portion of the handpiece through the second pipe.

The inlet of the third container 430 may be installed to face the top of the skin peeling machine. The first solution or the second solution recovered through the second tube may be introduced into the third vessel 430 along the second tube.

A rotatable wastewater container hinge can be positioned to separate the third vessel 430 in the drain mode. The waste water container hinge 450 can be rotated 45 degrees so that the third container 430 can be more easily separated after the user pulls the third container.

5 is a conceptual diagram illustrating a structure of a handpiece according to an embodiment of the present invention.

In Figure 5, the distal end of the handpiece for contacting the skin after ejection of the first or second solution is disclosed.

Referring to FIG. 5, the distal end of the handpiece may be configured to increase the contact time with the skin after the solution is sprayed. For example, the solution transfer path 500 may be implemented spirally. The solution may be sucked into the third container through the solution sucking portion 540 after exiting through the solution jetting portion 520. The solution discharged through the solution jetting unit 520 may be moved through the helical solution transfer path 500 before being sucked into the solution sucking unit 540. By this method, the time for which the solution comes into contact with the skin before being sucked into the solution suction portion 540 may be increased. For convenience of explanation, the solution injecting unit 520 and the solution sucking unit 540 are represented one by one, but a plurality of the solution injecting unit 520 and the solution sucking unit 540 may exist. In addition, a solution transfer path may be implemented in various other structures than in a spiral.

In addition, according to the embodiment of the present invention, a solution movement controller for controlling the contact time between the solution and the skin can be implemented.

For example, after the liquid is ejected through the solution jetting port 520 for a predetermined time, the solution sucking portion 540 and the solution jetting port 520 may be clogged such that no additional solution is supplied. Thereafter, the solution movement control part can be implemented to continuously move the solution on the spiral movement path. The spiral movement path may be embodied in various forms of movement path 500 as an example. For example, the spiral movement path 500 may be a structure in which the first and the second ends are closed. The solution transfer control part can rotate the solution on the helical closed path 500 to increase the contact time between the skin and the solution and effectively control the solution to penetrate the skin.

The solution movement control part can be implemented to move the solution on the spiral movement path 500. For example, in the solution movement control section, a solution recovery 540 / solution spraying section 520 for repeatedly recovering and ejecting the solution on the movement path 500 on the handpiece may be implemented. The solution can come into contact with the skin while moving in the movement path on the handpiece through the solution recovery unit 540 / solution spouting unit 520.

After the movement of the solution on the movement path based on the solution movement control part for a predetermined period, the solution suction part 540 is opened and the solution can be sucked into the third container through the solution suction part 540. The solution may be supplied through the solution spouting unit 520 again.

In this manner, rather than the continuous supply of solution, the solution can be brought into contact with the skin for a long time by rotating the solution by placing the solution back on the path for a period of time after the solution is supplied. The number of rotations (or the number of times of reuse) of the solution may be adjusted according to the user's setting. For example, the user can set the number of rotations (or the number of reuses) of the solution n times, and the solution can be rotated on the handpiece for the set n times. Alternatively, the user can set the mode to the economizing mode, and the solution may be rotated n times on the handpiece when set to the economizing mode.

Or the number of rotations may be set in consideration of the expected use time and the amount of the remaining solution. The information using the skin peeling machine can be stored by the user and the predicted use time can be determined. If the amount of the remaining solution is sufficient for the user's estimated use time, the rotation of the solution may not occur. However, when the amount of the remaining solution is insufficient based on the predicted use time of the user, the solution sprayed through the solution spraying portion may be controlled to be reused on the handpiece.

FIG. 6 is a conceptual diagram illustrating a hand-based skin management method according to an embodiment of the present invention.

6, an effective skin care method based on a handpiece is disclosed.

Referring to FIG. 6, it is possible to analyze the pressure change between the handpiece 600 and the skin to optimally maintain friction between the handpiece 600 and the skin.

For example, when the solution is sufficiently ejected on the handpiece 600, the amount of the solution is relatively large, so that the friction force between the handpiece 600 and the skin can be relatively reduced. On the other hand, when the solution is not sufficiently ejected on the handpiece 600, the amount of solution is small, so that the friction force between the handpiece 600 and the skin can be relatively increased. This change in the frictional force can be sensed by the sensor 610 installed on the handpiece 600. [ For example, the sensor 610 may sense normal and horizontal forces due to friction between the handpiece 600 and the skin.

Depending on the change in the sensed value, it may be determined whether or not the solution is further ejected through the handpiece 600. In addition, the change in the sensing value for determining whether to spray the additional solution may be determined by further considering the use characteristics of the user's handpiece 600. [

For example, the skin peeling machine may collect user characteristics of the user's basic handpiece 600 through the sensor 610 to generate user-use characteristic information. The user usage characteristic information may include pressure information to be applied by the user when the handpiece 600 is used in a default state. Depending on the characteristics of the user's use of the user's handpiece, the pressure applied to the skin through the handpiece may vary. For example, a first user using the skin peeling machine may contact the handpiece with the first average pressure value, and a second user using the skin peeling machine may contact the handpiece with the second average pressure value have.

The handpiece periodically collects information about pressure values between the handpiece and the skin to determine the average pressure value 630 of the user using the handpiece. The average pressure value 630 can be continuously updated based on the information on the pressure value collected in the predetermined time interval as the current reference.

Thereafter, the average pressure value 630 may be considered to determine whether the solution is further ejected through the handpiece. If a pressure greater than the threshold value is generated for the critical time based on the average pressure value 630, it is determined that the pressure value due to lack of solution is increased, and the solution is further sprayed through the solution jet port of the handpiece .

On the other hand, when a pressure smaller than the threshold value is generated by the threshold time based on the average pressure value 630, it is determined that the pressure value due to the overdrawing of the solution is decreased. The additional spraying of the solution through the solution jetting port of the handpiece may be restricted.

The solution injection control method prevents the overspray of the solution and the user can utilize the skin peeling machine considering the characteristics of the user.

Further, according to the embodiment of the present invention, the ejection speed of the liquid ejected according to the use time of the user can be controlled. The starting point of use for the user's skin peeling machine may be before the solution is applied to the user's skin. Therefore, a relatively large amount of solution is required to be ejected through the handpiece, and the ejection speed of the solution can be controlled to be relatively fast. On the other hand, since the solution is applied to the skin of the user after a certain point of time has elapsed, a relatively small amount of solution is required to be ejected through the handpiece, and the ejection speed of the solution can be controlled to be relatively slow. Further, it is possible to control so that the solution is not further sprayed at the end point. The skin peeling machine may eject the solution at a first rate for a critical time based on the start time of the mode and eject the solution at a second rate after a critical time.

7 is a conceptual diagram illustrating a method of operating a handpiece according to an embodiment of the present invention.

7, a method for controlling the ejection of a solution and the recovery of a solution in a handpiece is disclosed.

Referring to FIG. 7, contact between the solution and the skin may occur for a certain time after the solution is ejected through the handpiece, and the solution should be recovered after the contact between the solution and the skin. To effectively utilize the solution, the solution ejected through the handpiece should not be immediately recovered and should be recovered after contact with the skin for a period of time.

In order to effectively utilize such a solution, the solution ejection time 710 / the solution use time 720 / the solution recovery time 730 may be separately set. The information about whether the solution ejection time 710 / the solution use time 720 / the solution recovery time 730 may be output through the handpiece. For example, information on whether the solution is sprayed out time 710 / solution use time 720 / solution recovery time 730 through the LED light / vibration pattern of the handpiece can be transmitted to the user.

As a specific example, the solution may be ejected through the handpiece during solution ejection time 710 (e.g., 1 minute). During solution use time 720 after solution ejection time 710, solution spouting and solution recovery may not be performed. The solution may be recovered for a solution recovery time 730 (e.g., 30 seconds) after the solution use time 720. The solution ejection time 710, the solution usage time 720 and the solution recovery time 730 may be set in advance according to the operation mode, but may be adjusted according to the amount of the ejected solution and / or the sensing value sensed through the handpiece It may change to enemy. For example, when a large amount of solution is ejected through a handpiece, it is necessary to sufficiently reduce the contact time between the solution and the skin in order to sufficiently utilize the solution.

Whether or not the solution has been sufficiently sprayed can be sensed by the frictional force sensed by the sensor implemented in the handpiece. A relatively high frictional force can be sensed before sufficient ejection of the solution, and the frictional force can be reduced due to the solution after sufficient ejection of the solution. Thereafter, the friction force can be relatively increased again due to the absorption of the solution into the skin and the absorption of water into the air after the solution has been applied to the skin. The solution ejection time 710, the solution use time 720, and the solution recovery time 730 can be set based on the information on the change in the frictional force.

If the sensed value is equal to or greater than the first threshold frictional force after the first mode or the second mode of operation of the skin peeling machine, the solution ejection time 710 may be set. If the sensed value falls below the second critical frictional force and falls within the critical frictional force range, the solution utilization time 720 may be set. If the frictional force is increased more than the first frictional force, it is determined that the solution is sufficiently used and the solution recovery time is set to 730 to recover the solution.

According to the embodiment of the present invention, a plurality of solution jetting ports and solution recovery ports may be implemented in the handpiece, and only a part of the plurality of solution jetting ports and the plurality of solution recovery ports may be utilized according to the operation setting of the user. For example, when a large amount of solution is desired to be used, the skin peeling machine can be set at the first operating speed, and in this case, a relatively large number of solution jetting openings and solution recovery openings can be opened to perform solution jetting and solution recovery. Conversely, when the solution is to be used in a conservative manner, the skin peeling machine can be set at the second operation speed, and in this case, the relatively small solution jet port and the solution recovery port are opened, and solution jetting and solution recovery can be performed.

The threshold value of the frictional force for determining the solution ejecting time 710, the solution use time 720 and the solution recovery time 730 for setting the first operating speed and the second operating speed, and the critical range of the frictional force are set differently . When the threshold value of the frictional force and the critical range of the frictional force are set to the first operating speed, the solution ejecting time 710 is relatively long, the solution use time is relatively short, and the solution recovery time 730 is relatively long Can be set short. In addition, when the second operation speed is set, the solution ejecting time 710 can be relatively long, the solution using time 720 is relatively long, and the solution collecting time 730 can be set relatively long.

The embodiments of the present invention described above can be implemented in the form of program instructions that can be executed through various computer components and recorded in a computer-readable recording medium. The computer-readable recording medium may include program commands, data files, data structures, and the like, alone or in combination. The program instructions recorded on the computer-readable recording medium may be those specifically designed and configured for the present invention or may be those known and used by those skilled in the computer software arts. Examples of computer-readable media include magnetic media such as hard disks, floppy disks and magnetic tape, optical recording media such as CD-ROM and DVD, magneto-optical media such as floptical disks, medium, and hardware devices specifically configured to store and execute program instructions, such as ROM, RAM, flash memory, and the like. Examples of program instructions include machine language code, such as those generated by a compiler, as well as high-level language code that can be executed by a computer using an interpreter or the like. The hardware device may be modified into one or more software modules for performing the processing according to the present invention, and vice versa.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, Those skilled in the art will appreciate that various modifications and changes may be made thereto without departing from the scope of the present invention.

Accordingly, the spirit of the present invention should not be construed as being limited to the above-described embodiments, and all ranges that are equivalent to or equivalent to the claims of the present invention as well as the claims .

Claims (11)

The skin-
Receiving a mode setting information by a skin peeling device; And
Wherein the skin peeling device is operated based on the mode setting information,
Wherein the mode setting information is setting information for an operation mode of the skin peeling machine,
Wherein the operation mode includes a standby mode, a first mode, a second mode, and a water drain mode,
The distal end of the handpiece is implemented with a solution movement path,
The first solution or the second solution moves on the solution movement path,
A solution jetting part and a solution suction part are realized on the solution movement path,
Wherein the solution jetting portion is implemented to eject the first solution or the second solution,
Wherein the solution suction part is embodied for sucking the first solution or the second solution,
Wherein the operation of the solution jetting part and the solution suction part is determined in consideration of contact time of the skin with the first solution or the second solution,
The first solution or the second solution is rotated at different rotation times on the solution movement path depending on the mode,
Wherein the opening of the solution jetting portion and the solution suction portion is determined by further considering a frictional force between the skin and the first solution or the second solution. The method according to claim 1,
Wherein the standby mode is a mode for supplying power to the skin peeling machine before the skin peeling machine operates in the first mode and the second mode,
Wherein the first mode is a mode for supplying the first solution contained in the first container of the skin peeling machine through the handpiece,
Wherein the second mode is a mode for supplying the second solution contained in the second container of the skin peeling machine through the handpiece,
Wherein the water blanket mode is a mode for treatment of the first solution and the second solution supplied through the handpiece recovered to the third vessel. delete 3. The method of claim 2,
An inlet of the first container and an inlet of the second container are located in a lower direction of the skin peeling machine,
An air pipe serving as a check valve is implemented at an inlet of the first container and an inlet of the second container,
The first solution and the second solution move to the handpiece through the air pipe,
An inlet of the third container is positioned in an upper direction of the skin peeling machine,
The inlet of the third vessel is coupled to a rotatable wastewater vessel hinge,
And the third container is separated after rotation of the waste water container hinge. 5. The method of claim 4,
Wherein the first container is provided with a first solenoid valve for controlling whether the first solution is supplied to the handpiece,
A second solenoid valve for controlling whether the second solution is supplied to the handpiece is positioned in the second vessel,
And a pump motor for sucking the first solution or the second solution is connected to the third container. The skin-
A first container embodied for storing a first solution;
A second container embodied for storing a second solution;
A handpiece embodied for ejecting the first solution and the second solution and for recovering the ejected first solution and the second solution;
A third container configured to store the recovered first solution and the second solution; And
And a controller for controlling supply and recovery of the first solution and the second solution,
Wherein the controller receives the mode setting information and operates the skin peeling machine based on the mode setting information,
Wherein the mode setting information is setting information for an operation mode of the skin peeling machine,
Wherein the operation mode includes a standby mode, a first mode, a second mode, and a water drain mode,
Wherein a distal end of the handpiece is implemented with a solution transfer path,
The first solution or the second solution moves on the solution movement path,
A solution jetting part and a solution suction part are realized on the solution movement path,
Wherein the solution jetting portion is implemented to eject the first solution or the second solution,
Wherein the solution suction portion is embodied for absorbing the first solution or the second solution,
Wherein the operation of the solution jetting part and the solution suction part is determined in consideration of contact time of the skin with the first solution or the second solution,
The first solution or the second solution is rotated on the solution movement path according to the set mode,
Wherein the opening of the solution spraying part and the solution suction part is determined based on the friction between the skin and the first solution or the second solution. The method according to claim 6,
Wherein the standby mode is a mode for supplying power to the skin peeling machine before the skin peeling machine operates in the first mode and the second mode,
Wherein the first mode is a mode for supplying the first solution contained in the first vessel through the handpiece,
The second mode is a mode for supplying the second solution contained in the second vessel through the handpiece,
Wherein the water blanket mode is a mode for treatment of the first solution and the second solution supplied through the handpiece recovered to the third vessel. delete 8. The method of claim 7,
An inlet of the first container and an inlet of the second container are located in a lower direction of the skin peeling machine,
An air pipe serving as a check valve is implemented at an inlet of the first container and an inlet of the second container,
The first solution and the second solution move to the handpiece through the air pipe,
An inlet of the third container is positioned in an upper direction of the skin peeling machine,
The inlet of the third vessel is coupled to a rotatable wastewater vessel hinge,
And the third container is separated after rotation of the waste water container hinge. 10. The method of claim 9,
Wherein the first container is provided with a first solenoid valve for controlling whether the first solution is supplied to the handpiece,
A second solenoid valve for controlling whether the second solution is supplied to the handpiece is positioned in the second vessel,
And a pump motor for sucking the first solution or the second solution is connected to the third container. A computer program for executing the method according to any one of claims 1, 2, 4, and 5.

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