Vibratory high frequency output device and control method thereof

Abstract

To provide a radio frequency output apparatus capable of vibrating, and a control method thereof.SOLUTION: A radio frequency output apparatus capable of vibrating includes: a main body; a handpiece operated by receiving power from the main body; and a tip attached to a side of the handpiece. The main body includes: a first power unit; a first control unit; a first display unit; a storage unit containing data required for operation control of the first control unit; an energy generation unit generating radio frequency energy; and a cooling unit to deliver a cooling gas to skin. The handpiece includes: a second power unit; a second control unit; a second display unit; an energy delivery unit; a gas delivery unit to deliver a cooling gas; and a casing. The tip includes: a housing that includes a coupling device coupled to the handpiece; an electrode unit to irradiate a user's skin with radio frequency energy; a data collection unit that measures detailed patient information; and a chamber which is formed inside the housing, and into which gas for cooling the user's skin is injected. The tip further includes a vibration unit provided on a side of the electrode unit so as to deliver vibrations to the user's skin.SELECTED DRAWING: Figure 1

Description

[Technical Field]

[0001] The present invention relates to a high-frequency irradiation device, and more particularly to a vibrating high-frequency irradiation device that irradiates high-frequency energy onto a patient's skin while transmitting vibrations to the skin, and a method for controlling the same. [Background technology]

[0002] Recently, skin treatment technologies that provide energy to the skin using various energy sources to change the state of skin tissue or improve tissue properties have been widely applied. Skin treatment devices using various energy sources such as laser beams, flash lamps, and ultrasound have been developed, and recently, research into skin treatment devices using RF high-frequency energy has been actively conducted.

[0003] When high-frequency energy is applied to the skin surface, the molecules that make up the skin tissue vibrate and rub against each other as the direction of the high-frequency current changes, generating deep heat through rotational, twisting, or collisional motions. This deep heat raises the temperature of the skin tissue and reorganizes the collagen layer, improving wrinkles and strengthening skin elasticity. It also promotes and improves blood circulation in the skin tissue, preventing skin aging and improving the overall condition of the skin.

[0004] To achieve the above-mentioned effects, there is a technique for applying radiofrequency energy under the skin. However, when applying radiofrequency energy to the skin, pain and heat due to an increase in deep tissue heat can occur, and the degree of discomfort varies depending on the treatment recipient. To eliminate these inconveniences, existing radiofrequency output devices include a vibrating unit that is connected to the inside of a handpiece housing and transmits vibrations to the skin. There is a technique for transmitting vibrations generated inside the handpiece by the operation of the vibrating unit under the skin through a tip connected to the handpiece.

[0005] However, when vibrations are generated inside the handpiece and transmitted to the skin, the efficiency of the vibrations transmitted to the tip end decreases depending on the strength with which the user grips the handpiece and the degree to which the tip is in contact with the skin. Summary of the Invention [Problem to be solved by the invention]

[0006] The object of the present invention to solve the above problems is to provide a high frequency irradiation device and a control method thereof that can shorten the time it takes to reach the appropriate temperature by placing wires on both sides of the electrode plate that comes into contact with the skin, thereby shortening the time it takes to irradiate high frequency energy and irradiating it multiple times, and that has a vibrating unit on the electrode plate of the tip so that vibrations can be transmitted directly under the skin. [Means for solving the problem]

[0007] To achieve the above object, the vibratory high frequency irradiation device and its control method of the present invention comprise a main body that controls the overall operation; a handpiece that is connected to the main body and operates by receiving power from the main body; and a tip that is attached to one side of the handpiece and is in close contact with the user's skin;

[0008] The main body includes a first power supply unit coupled to the inside of the main body and supplying power necessary for operation when a power source is activated; a first control unit coupled to the inside of the main body and receiving power from the first power supply unit to perform operation control; a first display unit coupled to one side of an upper end of the main body and provided to a practitioner and a user for operation control by the first control unit; a storage device attached to the first control unit inside the main body and containing data necessary for operation control by the first control unit; an energy generation unit attached to the inside of the main body and receiving power from the first power supply unit to generate high frequency energy; and a cooling unit to which a gas canister can be attached so that cooling gas can be irradiated to the skin by receiving power from the first power supply unit,

[0009] The handpiece comprises a second power supply unit coupled to an upper portion of an outer surface of the handpiece and receiving power from a first power supply unit of the main body via a wire to operate the handpiece; a second control unit fixed to the outer surface of the handpiece, some of which protrude in the shape of multiple buttons from the outer surface of the handpiece, receiving power from the second power supply unit to operate, interlocking with the first control unit of the main body and allowing direct control by a user; a second display unit coupled to the inner surface of the handpiece, some of which are exposed to the outer surface, receiving power from the second power supply unit to operate, and providing a user with detailed information about the second control unit; an energy transmission unit receiving energy generated by an energy generation unit of the main body and transmitting it as a chip; and a gas transmission unit transmitting cooling gas from a gas canister in a cooling unit of the main body, and a case for protecting the internal components from external impacts, which includes all of the above components.

[0010] The chip comprises a housing that protects the chip from external impact and includes a coupling device that is coupled to a handpiece; an electrode unit that is coupled to the inside of the housing, that transmits power to a second power supply unit of the handpiece through electrical connection therewith, that transmits an electric signal to an energy transmission unit through electrical connection therewith, and that irradiates high frequency energy generated from an energy generation unit of the main body onto the user's skin; a data collection unit that receives power from the electrode unit and operates to measure detailed information of a patient; and a chamber that is formed inside the housing and into which a cooling gas is injected to ultimately cool the user's skin.

[0011] The tip may further include a vibration unit that is provided on one side of the electrode unit, is operated by applying power generated by a first power supply unit of the main body to a second power supply unit of the handpiece, and transmits vibrations to the patient's skin.

[0012] The electrode unit may further include a third power supply unit to which power generated by a first power supply unit of the main body is transmitted through a second power supply unit of the handpiece and which is connected to one side of the second power supply unit to receive power; a first electrode plate and a second electrode plate to which energy generated by an energy generation unit of the main body is transmitted through an energy transmission unit and which receives energy from the energy transmission unit; and a third electrode plate that receives energy from the second electrode plate and finally comes into contact with the user's skin to irradiate high-frequency energy.

[0013] The main body may further include a return electrode unit that irradiates the high frequency energy generated by the energy generating unit onto the patient's skin and then discharges the current transmitted to the patient's body outside the body.

[0014] a step of supplying power to a second power supply unit of the handpiece when power is supplied from a first power supply unit of the main body; a step of connecting a gas canister to a cooling unit of the main body and connecting a tip to the handpiece when power is supplied to the second power supply unit of the handpiece; a step of inputting an energy output signal from a first control unit of the main body and a second control unit of the handpiece; a step of contacting an electrode unit of the tip with the patient's skin and then outputting a minute current to the electrode unit of the tip; a step of collecting an impedance value of the patient measured after outputting the minute current by a data collection unit of the tip; a step of determining by a first control unit whether the impedance value collected from the patient is 75Ω≦impedance value≦400Ω; a step of starting vibration output from the tip when the patient's impedance value is in the range of 75Ω to 400Ω; a step of starting vibration output from a vibration unit of the tip when the patient's impedance value is in the range of 75Ω to 400Ω; a step of starting output from the vibration unit and discharging cooling gas generated in the cooling unit of the main body a step of outputting the cooling gas to the chamber of the tip through the gas transmission unit of the handpiece; a step of generating high-frequency energy in the energy generation unit of the main body when the cooling gas is output to the chamber of the tip and transmitting it to the energy transmission unit of the handpiece; a step of transmitting the high-frequency energy transmitted to the energy transmission unit of the handpiece through the first and second electrode plates of the tip and finally transmitting it to the patient's skin through the third electrode plate; a step of determining whether an energy output signal has been input to the first control unit of the main body and the second control unit of the handpiece; a step of bringing the electrode unit of the tip into close contact with the patient's skin and then outputting a microcurrent to the electrode unit, and then operating again; and a step of terminating the treatment if it is determined that an energy output signal has not been input to the first control unit and the second control unit.

[0015] If the patient's impedance value is in the range of 75Ω to 400Ω, the vibration output may be maintained for 2 to 60 seconds in the step of starting vibration output from the vibration unit of the chip.

[0016] In the step of determining whether the impedance value collected from the patient is 75Ω≦impedance value≦400Ω, if the patient's impedance value is not within the range of 75Ω to 400Ω, the method may further include: determining whether a chip is in close contact with the patient's skin; determining whether a return pad is attached if it is determined that the chip is in close contact with the skin in the step of determining whether the chip is in close contact with the patient's skin; and, if it is determined that the return pad is attached in the step of determining whether the return pad is attached, returning to operation from the step of attaching an electrode unit of the chip to the patient's skin and outputting a small current to the electrode unit; if it is determined that the chip is not in close contact with the patient's skin in the step of determining whether the chip is in close contact with the patient's skin, returning to operation from the step of attaching an electrode unit of the chip to the patient's skin and outputting a small current to the electrode unit; and, if it is determined that the return pad is not attached in the step of determining whether the return pad is attached, canceling the operation.

[0017] The high-frequency energy transmitted to the energy transmission section of the handpiece is transmitted through the first and second electrode plates of the tip, and finally transmitted to the patient's skin through the third electrode plate. The high-frequency energy can be emitted two to eight times consecutively.

[0018] The steps of outputting cooling gas from the cooling unit of the main body to the chamber of the tip through the gas transmission unit of the handpiece, transmitting high-frequency energy through the first and second electrode plates in the energy transmission unit, and finally transmitting it to the patient's skin through the third electrode plate can be repeated.

[0019] When repeating the steps of outputting cooling gas from the cooling unit of the main body to the chamber of the tip through the gas transmission unit of the handpiece, transmitting high-frequency energy from the energy transmission unit through the first and second electrode plates, and finally transmitting it to the patient's skin through the third electrode plate, the cooling gas can be output once and the high-frequency energy can be irradiated at least four times in succession, and the output of cooling gas once and the high-frequency energy four times can be repeated at least four times. [Effects of the Invention]

[0020] According to these features, the present invention has the effect of reducing the time it takes for the electrode to reach the appropriate temperature, and by shortening the time for one irradiation, it has the effect of preventing burns compared to a long irradiation time.

[0021] Furthermore, by providing a vibrating section on the electrode plate of the chip, vibrations can be transmitted directly to the skin, which has the effect of alleviating pain. [Brief explanation of the drawings]

[0022] [Figure 1] 1 is a diagram illustrating the configuration of a vibrating high-frequency irradiation device according to an embodiment of the present invention. [Figure 2] 1 is a schematic diagram of an electrode portion of a vibrable high-frequency irradiation device according to an embodiment of the present invention. [Figure 3] 4 is a graph showing a microwave irradiation time, a cooling irradiation time, and a vibration output time of a vibrating microwave irradiation device according to an embodiment of the present invention. [Figure 4] 1 is a flowchart illustrating a method for controlling vibratory high-frequency irradiation according to an embodiment of the present invention. DETAILED DESCRIPTION OF THE INVENTION

[0023] Hereinafter, 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. However, the present invention may be embodied in various different forms and is not limited to the embodiments described herein. In order to clearly explain the present invention in the drawings, parts that are not relevant to the description are omitted, and similar parts are designated by similar reference numerals throughout the specification.

[0024] Throughout this specification, when a part is said to be "connected (connected, contacted, or coupled)" to another part, this includes not only "directly connected" but also "indirectly connected" through another member therebetween. Furthermore, when a part is said to "include" a certain component, this does not mean that it excludes other components, but that it may further include other components, unless otherwise specified to the contrary.

[0025] The terms used in this specification are merely used to describe specific embodiments and are not intended to limit the present invention. The singular expressions include the plural expressions unless the context clearly indicates otherwise. In this specification, the terms "comprise" or "have" and the like are intended to specify the presence of features, numbers, steps, operations, components, parts, or combinations thereof described in the specification, and should be understood not to preclude the possibility of the presence or addition of one or more other features, numbers, steps, operations, components, parts, or combinations thereof.

[0026] Now, a vibratory high frequency output device and a control method thereof according to an embodiment of the present invention will be described with reference to the accompanying drawings.

[0027] FIG. 1 is a diagram illustrating the configuration of a vibratory high-frequency irradiation device according to one embodiment of the present invention, FIG. 2 is a schematic diagram of the electrode part of a vibratory high-frequency irradiation device according to one embodiment of the present invention, and FIG. 3 is a graph showing the high-frequency irradiation time, cooling irradiation time, and vibration output time of a vibratory high-frequency irradiation device according to one embodiment of the present invention.

[0028] Referring to Figures 1 to 3, the high frequency output device comprises a main body 10 which controls the overall operation, a handpiece 20 which is connected to the main body 10 and operates by receiving power from the main body, and a tip 30 which is attached to one side of the handpiece 20 and comes into close contact with the user's skin.

[0029] The main body 10 is configured to include a first power supply unit 11 that is connected inside the main body 10 and is operated by a power source and supplies power required for operation; a first control unit 12 that is connected inside the main body 10 and receives power from the first power supply unit 11 to control operation; a first display unit 13 that is connected to one side of the upper end of the main body 10 and is provided to the practitioner and user to control operation by the first control unit 12; a storage unit 14 that is attached to the first control unit 12 inside the main body 10 and contains data required for operation control by the first control unit 12; an energy generation unit 15 that is attached inside the main body 10 and receives power from the first power supply unit 11 to generate high-frequency energy; and a cooling unit 16 that receives power from the first power supply unit 11 and can be attached to a gas canister (not shown) to irradiate cooling gas onto the skin.

[0030] The handpiece 20 comprises a second power supply unit 21 connected to the upper inner surface of the handpiece 20 and receiving power from the first power supply unit 11 of the main body 10 via a wired connection to operate the handpiece 20; a second control unit 22 fixed to the inner surface of the handpiece 20, some of which protrude in the shape of multiple buttons on the outer surface of the handpiece 20, receiving power from the second power supply unit 21 to operate, linked to the first control unit 12 of the main body 10, and directly controllable by the user; a second display unit 23 connected to the inner surface of the handpiece 20, some of which is exposed to the outer surface, receiving power from the second power supply unit 21 to operate, and providing the user with detailed information about the second control unit 22; an energy transmission unit 24 receiving energy generated from the energy generation unit 15 of the main body 10 and transmitting it to the tip 30; and a gas transmission unit 25 transmitting cooling gas from a gas canister in the cooling unit 16 of the main body 10, as well as a case (not shown) that contains all of the above components and protects the internal components from external impacts.

[0031] The chip 30 includes a housing (not shown) including the components of the chip 30, protecting it from external impact and including a coupling device (not shown) to be coupled to the handpiece 20; an electrode unit 31 coupled to the inside of the housing, electrically connecting with the second power supply unit 21 of the handpiece 20 to transmit power and electrically connecting with the energy transmission unit 24 to transmit an electrical signal; an electrode unit 31 that transmits high-frequency energy generated from the energy generation unit 15 of the main body 10 to the first energy application unit 26 of the handpiece 20 and finally irradiates the high-frequency energy to the user's skin; a data collection unit 32 that receives power from the electrode unit 31 and measures detailed patient information; and a chamber 33 formed inside the housing 36 into which cooling gas is injected through the gas transmission unit 25 of the handpiece 20 when it is output from the cooling unit 16 of the main body 10.

[0032] The first display unit 23 provides a control UI to the practitioner, and the first control unit 12 operates according to the detailed control of the practitioner.

[0033] The storage unit 14 includes data on detailed settings required for the operation of the first control unit 12.

[0034] The data stored in the storage unit 14 includes, but is not limited to, data on high frequency energy irradiation time, cooling gas irradiation time, high frequency energy output amount, and cooling gas output amount.

[0035] The cooling unit 16 further includes a case (not shown) to which a cooling gas canister (not shown) is attached, a gas output unit (not shown) at the end of the case for discharging gas, and a connecting pipe (not shown) connected to one side of the gas output unit and connected to the end of the gas delivery unit 25 of the handpiece 20 to deliver the cooling gas when gas is emitted from the gas output unit.

[0036] The second control unit 22 of the handpiece 20 is inserted into a hole (not shown) formed in the case of the handpiece 20 and protrudes therefrom, or has a touch-type.

[0037] The second display unit 23 of the handpiece 20 displays the operating status according to the input value of the first control unit 12 of the main body 10 and the input value of the second control unit 22 of the handpiece 20 to the user and the patient.

[0038] The gas transfer part 25 of the handpiece 20 is connected to one side of the connecting pipe of the cooling part 16 of the body 10 , and transfers the cooling gas to the chamber 33 of the tip 30 when gas is released from the cooling part 16 .

[0039] The detailed patient information collected by the data collecting unit 32 is one of the impedance value, the skin surface temperature, and the skin color value of the patient, but is not limited thereto.

[0040] The electrode unit 31 of the tip 30 includes third power supply units 31a and 31c connected to one side of the second power supply unit 21 to receive power from the first power supply unit 11 of the main body 10 via the second power supply unit 21 of the handpiece 20, a first electrode plate 31b and a second electrode plate 31d to which energy generated by the energy generating unit 15 of the main body 10 is transmitted via the energy transmission unit 24 and received from the energy transmission unit 24, and a third electrode plate 31e that receives energy at the first electrode plate 31b and the second electrode plate 31d and finally comes into contact with the user's skin to irradiate high-frequency energy.

[0041] With this configuration of the chip 30, energy is simultaneously transferred to the third electrode plate 31e from the first electrode plate 31b and the second electrode plate 31d, which has the effect of shortening the time required to reach an appropriate temperature.

[0042] The main body 10 further includes a return electrode unit (not shown) that irradiates the high-frequency energy generated by the energy generating unit 15 onto the patient's skin and then discharges the current transmitted to the patient's body back out of the body.

[0043] The return electrode is connected to the main body 10 by wire, and more specifically, one end of the return electrode is attached to the first control unit 12 of the main body 10, and the other end protrudes outside the main body. The end of the return electrode protruding outside further includes an output port (not shown) equipped with an electrode through which a current can flow.

[0044] The output port is configured with at least two electrode plates having the same polarity.

[0045] The output port further includes a return pad (not shown) that is attached to the patient's skin to absorb the current absorbed into the patient's body.

[0046] That is, when power is supplied from the first power supply unit 11 of the main body 10, the high-frequency energy is generated from the energy generating unit 15 and transmitted to the energy transmitting unit 24 of the handpiece 20, and is irradiated onto the user's skin through the electrode unit 31 of the tip 30. The irradiated high-frequency energy is discharged as a current to the first control unit 12 through the return pad and the output port electrically connected to the return pad.

[0047] The tip 30 further includes a vibration unit that is provided on one side of the electrode unit 31, and is operated by receiving power generated by the first power supply unit 11 of the main body 10 from the second power supply unit 21 of the handpiece 20, and transmits vibrations to the patient's skin.

[0048] Referring to the graph of FIG. 3, the x-axis is exposure time t, and the y-axis is exposure dose p versus cooling gas exposure 80, radio frequency exposure 90, and vibration power 100.

[0049] The cooling irradiation time is at least longer than the microwave irradiation time, and is characterized by, but not limited to, 0.1 to 6 seconds and 0.2 to 7 seconds.

[0050] The number of times of high frequency energy irradiation is between 2 and 8 times in succession, but is not limited thereto.

[0051] The number of times of cooling gas irradiation is characterized by being one to four times in succession, but is not limited thereto.

[0052] Referring to FIG. 3, in one embodiment of the present invention, it is preferable to irradiate the cooling gas 80 once, followed by four radio frequency irradiations 90.

[0053] The duration of the cooling irradiation 80 is at least longer than the duration of the high frequency irradiation 90. More specifically, the duration of the cooling irradiation 80 is 0.1 to 6 seconds, and the duration of the high frequency irradiation 90 is 0.2 to 7 seconds, but is not limited thereto.

[0054] The duration of the vibration output 100 is between 2 seconds and 60 seconds, but is not limited thereto.

[0055] Next, a method for irradiating high frequency waves according to an embodiment of the present invention will be described in detail with reference to the accompanying drawings.

[0056] FIG. 4 is a flowchart illustrating a method for controlling high-frequency irradiation according to an embodiment of the present invention.

[0057] Referring to FIG. 4, first, when power is supplied from the first power supply unit 11 of the main body 10, power is supplied to the second power supply unit 21 of the handpiece 20 (S10).

[0058] When power is supplied to the second power supply unit 21 of the handpiece 20, a gas can is connected to the cooling unit 16 of the main body 10, and the tip 30 is connected to the handpiece 20, S11.

[0059] An energy output signal is input to the first control unit 12 of the main body 10 and the second control unit 22 of the handpiece 20, S12.

[0060] After the electrode portion 31 of the tip 30 is brought into close contact with the patient's skin, a minute current is output from the electrode portion 31 of the tip 30 (S13).

[0061] The data collection unit 32 of the chip 30 collects the impedance value of the patient measured after the minute current output (S14).

[0062] The detailed patient information collected at this time may be any one of the patient's impedance value, skin surface temperature, and skin color value, but is not limited thereto.

[0063] The first control unit 12 of the main body 10 determines whether the impedance value collected from the patient is 75Ω≦impedance value≦400Ω (S15).

[0064] If the impedance value of the patient falls within the range of 75Ω to 400Ω, the vibration unit of the tip 30 starts to output vibrations (S16).

[0065] At this time, the duration of the vibration output is between 2 seconds and 60 seconds, but is not limited thereto.

[0066] In step S15 of determining whether the impedance value collected from the patient is 75Ω≦impedance value≦400Ω, if the patient's impedance value is not within the range of 75Ω to 400Ω, it is determined whether the chip 30 is in close contact with the patient's skin (S21).

[0067] In step S21 of determining whether the tip 30 is in close contact with the patient's skin, if it is determined that the tip 30 is in close contact with the skin, it is determined whether the return pad is attached (S22).

[0068] In step S22 of determining whether the return pad is attached, if it is determined that the return pad is attached, the operation is repeated from step S13 of applying a minute current to the electrode part 31 of the tip 30 after adhering it to the patient's skin, S24.

[0069] In step S21 of determining whether the tip 30 is in close contact with the patient's skin, if it is determined that the tip is not in close contact with the patient's skin, the operation is repeated from step S13 of outputting a microcurrent to the electrode part 31 after the electrode part 31 of the tip 30 is in close contact with the patient's skin, S23.

[0070] If it is determined that the return pad is not attached in step S22 of determining whether the return pad is attached, the operation is stopped, and a notice that the return pad is not attached properly can be sent to the user.

[0071] If the patient's impedance value is in the range of 75Ω to 400Ω, the vibration output from the vibration unit of the tip 30 is started (S16), and the cooling gas generated in the cooling unit 16 of the main body 10 is output to the chamber 33 of the tip 30 through the gas transmission unit 25 of the handpiece 20 (S17).

[0072] At this time, the cooling irradiation time is at least longer than the microwave irradiation time, and is characterized by being 0.1 to 6 seconds and 0.2 to 7 seconds, but is not limited thereto.

[0073] As described above, when the cooling gas is output to the chamber 33 of the tip 30, the energy generating unit 15 of the main body 10 generates high frequency energy and transmits it to the energy transmitting unit 24 of the handpiece 20 (S18).

[0074] As described above, the high-frequency energy transmitted to the energy transmission unit 24 of the handpiece 20 is transmitted through the first electrode plate 31b and the second electrode plate 31d of the tip 30, and finally transmitted to the patient's skin through the third electrode plate 31e, S19.

[0075] The number of times of high frequency energy irradiation is between 2 and 8 times in succession, but is not limited thereto.

[0076] Steps S17, S26, S19, S26, S27, S28, S29, S30, S31, S32, S33, S34, S35, S36, S37, S38, S39, S40, S41, S42, S43, S44, S45, S46, S47, S48, S49, S50, S51, S52, S53, S54, S55, S56, S57, S58, S59, S60, S61, S62, S63, S64, S65, S66, S67, S68, S69 ...

[0077] Next, it is determined whether an energy output signal is input to the first control unit 12 of the main body 10 and the second control unit 22 of the handpiece 20 (S20).

[0078] In step S20, the first control unit 12 and the second control unit 22 determine whether an energy output signal has been input. If it is determined that an energy output signal has been input, the operation returns to step S13, where the electrode unit 31 of the chip 30 is brought into close contact with the patient's skin and a microcurrent is output from the electrode unit 31, at step S25.

[0079] In the step of determining whether an energy output signal is input to the first control unit 12 and the second control unit 22, if it is determined that an energy output signal is not input, the treatment is terminated.

[0080] Although the embodiments of the present invention have been described in detail above, the scope of the present invention is not limited to these examples, and various modifications and improvements made by those skilled in the art using the basic concept of the present invention defined in the following claims also fall within the scope of the present invention. [Explanation of symbols]

[0081] 10 Main Unit 11 1st power supply section 12 First Control Section 13 First display section 14 Preservation Department 15 Energy generation unit 16 Cooling section 20 handpieces 21 2nd power supply section 22 Second Control Section 23 Second display unit 24 Energy transmission section 25 Gas transmission section 30 chips 31 Electrode part 32 Data Collection Department 33 Chamber

Claims

1. A vibrating high frequency output device, A main body that controls the overall operation; a handpiece connected to the main body and operating by receiving power from the main body; The handpiece includes a tip that is attached to one side of the handpiece and is in close contact with the user's skin. the main body includes a first power supply unit coupled to the inside of the main body and supplying power required for operation; a first control unit coupled to the inside of the main body and receiving power from the first power supply unit to perform operation control; a first display unit coupled to one side of an upper end of the main body and provided to a practitioner and a user for operation control by the first control unit; a storage unit attached to the first control unit inside the main body and storing data required for operation control by the first control unit; an energy generation unit attached to the inside of the main body and receiving power from the first power supply unit to generate high frequency energy; and a cooling unit to which a gas canister can be attached so as to receive power from the first power supply unit and irradiate cooling gas onto the skin, The handpiece comprises: a second power supply unit coupled to the handpiece and receiving power from the first power supply unit via a wire to enable operation of the handpiece; a second control unit fixed to the handpiece, operated by receiving power from the second power supply unit, and interlocked with the first control unit so as to be directly controllable by a user; a second display unit coupled to an inner surface of the handpiece, a portion of which is exposed to an outer surface, and receives power from the second power supply unit to operate and provide detailed information about the second control unit to a user; and an energy transfer unit receiving energy generated from the energy generating unit and transferring it to the tip. a gas transfer section for transferring cooling gas from the gas canister of the cooling section of the body; and a case for protecting the second power supply unit, the second control unit, the energy transfer unit, and the gas transfer unit from external impacts; The invention comprises: The chip is a housing protected from external impact and including a coupling device coupled to the handpiece; an electrode unit coupled to the inside of the housing, wherein power is transmitted from the second power supply unit to the electrode unit through an electrical connection between the electrode unit and the second power supply unit, high frequency energy generated from the energy generation unit is transmitted to the electrode unit through the energy transmission unit through the electrical connection between the electrode unit and the energy transmission unit, and the high frequency energy is finally irradiated onto the skin of a user; a data collection unit that operates by receiving power from the electrode unit and measures detailed information about the patient including an impedance value; a chamber formed inside the housing into which a cooling gas for cooling the skin of a user is finally injected; It is composed of the chip further includes a vibration unit provided on one side of the electrode unit, which is operated by receiving power generated by the first power supply unit from the second power supply unit and directly transmitting vibration to the patient's skin; the electrode unit further includes: a first electrode plate and a second electrode plate connected to one side of the second power supply unit, to which power generated by the first power supply unit is transmitted through the second power supply unit and to which energy generated by the energy generation unit is transmitted through the energy transmission unit; and a third electrode plate that receives energy from the first electrode plate and the second electrode plate and finally comes into contact with the skin of a user to irradiate high-frequency energy, The first electrode plate and the second electrode plate are respectively disposed at the ends of wires extending outward from the third electrode plate in opposite directions, and energy generated in the energy generating unit is transmitted to the third electrode plate via the wires.

2. 2. The vibratory high-frequency irradiation device according to claim 1, wherein the main body further comprises a return electrode unit that irradiates the high-frequency energy generated by the energy generating unit onto the patient's skin and then discharges the current transmitted to the patient's body outside the body.

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