KR20090012226U - High frequency electrode unit for hair - Google Patents

Abstract

The present invention relates to a scalp management electrode unit having a scalp management electrode unit and a scalp management electrode unit, the scalp management electrode unit according to the present invention to apply the high frequency current to the scalp through a plurality of protruding terminals to the maximum The present invention provides a scalp management electrode unit that can effectively stimulate the scalp through a plurality of protruding terminals.

The electrode unit for managing the scalp according to the present invention provides high frequency to the scalp through a plurality of protruding terminals, thereby helping the protruding terminals and the scalp to directly contact each other and stimulating the scalp to maximize the hair care effect. In addition, the electrode unit for managing the scalp according to the present invention forms an electrode unit having a plurality of protruding terminals different in length to correspond to the shape of the human head, thereby increasing the contact area with the scalp.

Radiofrequency treatment device, hair care, scalp care, multiple protruding terminals

Description

High frequency electrode unit for scalp care

The present invention relates to a radiofrequency treatment apparatus, and more particularly, to a scalp management electrode unit that generates a deep heat inside the scalp by applying a high frequency current to the scalp and promotes hair growth using the deep heat generated.

In general, high frequency therapy device converts high frequency current into human body by applying electric energy and converts it into bioenergy, and promotes fat metabolism and muscle movement through deep heat generated by using such bioenergy. It is a medical device used for skin care, hair promotion or pain relief.

Since the high frequency current has a very short vibration width when energizing human tissue, almost no ion movement occurs and there is no electrochemical reaction or electrolysis. When such a high frequency current is energized in the human body, heat is generated in the tissue, which is called deep heat. The reason why the deep heat is generated is that whenever high-frequency electric energy is applied, the molecules constituting the tissues vibrate and rub against each other when the direction of the current changes, thereby causing the bio-heat to be generated by rotational motion, distortion, and collision motion. Because it is generated.

High-frequency current can heat certain parts of the body tissue without causing discomfort or muscle contraction in the body, and the deep heat generated increases the temperature of the tissue to enhance cell function and increase blood flow. Play a role. As a result, the metabolism and muscle movement of the human body is promoted, and the effects of obesity treatment, muscle strengthening, skin care, hair promotion or pain relief can be obtained.

Referring to FIG. 1, a high frequency treatment apparatus according to the related art includes a main body 10 generating and outputting a high frequency current, a treatment electrode unit 20 for applying the generated high frequency current to an affected part, and a part of a body. And a counter electrode part 30 which contacts and energizes the high frequency current applied to the affected part to the contacted body part. At this time, the treatment electrode 20 is composed of a treatment electrode unit 21, the handle 23 and the cable 25, the counter electrode 30 is composed of a counter electrode plate 31 and the cable 33.

The treatment electrode unit 21 of the treatment electrode part 30 is brought into contact with the affected part, and the counter electrode plate 31 of the counter electrode part 30 is in contact with a part of the human body, and then the main body 10 is operated. Then, in the main body 10, a high frequency current is generated, and a high frequency current is energized through the human body placed between the treatment electrode portion 20 and the counter electrode portion 20, and the periphery of the affected part that contacts the treatment electrode unit 21. Deep fever develops in the

The therapeutic electrode unit 21 of the conventional high frequency treatment apparatus described above is a flat plate, and is not limited to a specific part of the body, but is manufactured to be used for all body parts having a flat contact surface.

Therefore, in the case of managing the scalp by using the radiofrequency treatment device having the conventional treatment electrode unit 21, since the treatment electrode unit 21 of the treatment electrode unit 20 is formed in a flat plate shape, the treatment electrode unit 21 ) Even if you try to contact the scalp to manage, it is difficult to directly contact the scalp due to the hair on the scalp. In addition, even if the treatment electrode unit 21 contacts the scalp, the contact area is small and a region where deep heat is generated is narrow. Therefore, the problem that the scalp stimulation is not made efficiently and takes a lot of time to manage the entire scalp.

The present invention is to overcome the above-mentioned conventional problems, the problem to be solved by the present invention is to maximize the contact area with the scalp so that high frequency current is well transmitted to the scalp and efficiently stimulate the scalp to shorten the treatment time It is to provide an electrode unit for scalp management.

Another problem to be solved by the present invention is to provide a scalp management radiofrequency treatment apparatus having an electrode unit for scalp management to maximize the scalp and contact area to deliver high frequency current to the scalp.

According to an embodiment of the present invention, the scalp management electrode unit for generating a deep heat inside the scalp by applying a high frequency current to the scalp and managing the scalp through the generated deep heat includes a base electrode plate and a base electrode plate. A connection terminal formed at one side and receiving a high frequency current, a plurality of protruding terminals formed at the other side of the base electrode plate and applied to the scalp to manage the input high frequency current, and surrounding the base electrode plate. And a first insulator, each protruding terminal comprising a conductor and a second insulator surrounding the conductor.

The high frequency treatment apparatus for managing the scalp according to an embodiment of the present invention includes a high frequency generating unit for generating a high frequency current and a plurality of protruding terminals in contact with the scalp to be managed, and manages the generated high frequency current through the plurality of protruding terminals. And a second electrode unit having a first electrode unit to be applied to the scalp and a electrode plate to be in contact with a part of the body, and energizing a high frequency current applied to the scalp to the part of the body to be contacted.

The electrode unit for scalp management according to the present invention has various effects as follows.

First, the electrode unit for managing the scalp according to the present invention provides a high frequency to the scalp through a plurality of protruding terminals, so that the protruding terminal and the scalp can be easily in direct contact with each other, thereby reducing the management time. .

Second, the electrode unit for scalp management according to the present invention forms an electrode unit having a plurality of protruding terminals of different lengths to correspond to the shape of the human head, thereby increasing the contact area with the scalp.

Third, the electrode unit for managing the scalp according to the present invention can maximize the hair care effect by stimulating the scalp through the protruding terminal while providing deep heat to the scalp by using a plurality of protruding terminals.

Hereinafter, with reference to the accompanying drawings will be described in detail a preferred embodiment of the present invention.

Figure 2 is a perspective view of a radiofrequency treatment device for scalp management according to an embodiment of the present invention, Figure 3 is a schematic functional block diagram of a radiofrequency treatment device for scalp management according to an embodiment of the present invention, Figure 4 An exploded perspective view of the first electrode unit of the invention.

2 to 4, the high frequency treatment apparatus for managing the scalp according to an embodiment of the present invention generates a high frequency current and outputs the generated high frequency current 100, a plurality of contact with the scalp to be managed And a first electrode unit 200 for applying the generated high frequency current to the scalp to be managed through the plurality of protruding terminals, and an electrode plate contacting a part of the body. And a second electrode unit 300 for energizing the plate.

The high frequency generation unit 100 includes a power supply unit 110, an oscillator 120, an amplifier 130, a level adjuster 140, and an output unit 150.

The power supply unit 110 supplies power required for each component of the high frequency generation unit 100, the oscillator 120 oscillates a high frequency current, and the amplifier 130 amplifies the high frequency current oscillated by the oscillator 120. It plays a role. The level adjuster 140 adjusts the intensity of the high frequency current, and the output unit 150 serves to output a high frequency current of a predetermined intensity. The range of the high frequency current output from the output unit 150 is in the range of 400 Hz to 600 Hz, and the high frequency current of the band is managed through the first electrode unit 200 and the second electrode unit 300. Is applied.

The first electrode unit 200 includes a body portion 210, a first cable 230, and a head portion 250, and the second electrode unit 300 includes a second electrode plate 310 and a second cable 330. ).

The body portion 210 of the first electrode unit 200 is formed in a stick shape so that the user of the radiofrequency treatment apparatus can grip and use it. The body portion 210 is formed of an insulating material, and a through hole 220 is formed inside the body portion 210. The second cable 230 is inserted and fastened to one end of the body part 210, and the head part 250 is inserted and fastened to the other end.

The head 250 is a component for applying a high frequency current to the scalp to be managed, and includes a base electrode plate (not shown), a first insulator 265, a connection terminal 270, and a plurality of protruding terminals 280. It includes.

One end of the connection terminal 270 is fastened to one surface of the base electrode plate, and a plurality of protruding terminals 280 are fastened to the other surface of the base electrode plate, and the first insulator 265 surrounds the base electrode plate. Is formed. The other end of the connection terminal 270 is inserted into the through hole 220 formed in the body 210 to be electrically connected to the second cable 230.

The second electrode unit 300 is a part of the human body, that is, the second electrode plate 310 in contact with other parts of the human body (eg, arms, hands, etc.) except the scalp, the second electrode plate 310 and the high frequency. The second cable 330 is connected to the output unit 150 of the generation unit 100. One end of the second cable 330 is electrically connected to the output unit 150, and the other end thereof is electrically connected to the second electrode plate 310. The second electrode plate 310 is made of a conductive material, and in the present embodiment, the shape of the second electrode plate 310 is described as an example, but the shape of the second electrode plate 310 is not limited thereto. It can be formed as.

Preferably, the second electrode plate 310 acts as a ground terminal. For example, when + current is applied through the first electrode unit 200 in response to a high frequency current applied to the human body through the first electrode unit 200, the second electrode plate 310 operates as a negative terminal. When a current is applied through the first electrode unit 200, the second electrode plate 310 operates as a + terminal.

Figure 5a is an exploded perspective view of the head of the present invention, Figure 5b is a perspective view of the head of the present invention, Figure 5c is a modification of the head of the present invention.

5A and 5B, the head part 250 includes a base electrode plate 260, a first insulator 265, a connection terminal 270, and a plurality of protruding terminals 280, and includes a first insulator ( 265 includes an upper case 266 and a lower case 268.

The base electrode plate 260 is generally formed in a disc shape, and a plurality of through holes 261 and a central through hole 262 are formed. The through holes 261 are formed to be spaced apart from each other, and are formed to be spaced apart from the center of the base electrode plate 260 by a predetermined interval. That is, the through hole 261 is formed in the base electrode plate 260 in a radial shape. The base electrode plate 260 is formed of a conductive material to conduct high frequency current. In the present embodiment, the base electrode plate 260 is formed using copper (Cu), but the material of the base electrode plate 260 is not limited thereto.

The first insulator 265 is disposed on the upper case 266 disposed above the base electrode plate 260 and the lower case 268 disposed under the base electrode plate 260 and fastened to and coupled to the upper case 266. It consists of. A plurality of through holes 269a are formed in the lower case 268 to correspond to the plurality of through holes 261 formed in the base electrode plate 260, and a through hole 267 is formed in the center of the upper case 266. do. The connection terminal 270 is fastened to the center through hole 262 of the base electrode plate 260 by passing through the through hole 267 of the upper case 266.

Each of the plurality of protruding terminals 280 is inserted into and fastened to the through hole 261 formed in the base electrode plate 260, and the plurality of protruding terminals 280 are formed to have different lengths from each other. The long protruding terminal is disposed on the outer circumference of the base electrode plate 260, and the short protruding terminal is disposed on the inner circumference of the base electrode plate 260, so that the plurality of protruding terminals 280 are concave in the center. It is formed into a shape. As such, when the lengths of the plurality of protruding terminals 280 are different from each other, all of the plurality of protruding terminals are in direct contact with the affected part, thereby increasing the contact area with the scalp to more effectively perform the stimulation of the scalp. It becomes possible.

The head part shown in FIG. 5C is different in that it is generally configured in the form of a square, and the rest of the configuration is almost similar, and will be described in detail with a different configuration. The head portion shown in FIG. 5C is formed in the form of a square plate as a whole. The base electrode plate (not shown) and the first insulator 265a surrounding the base electrode plate are formed in a rectangular plate shape.

6A is a sectional view of a head portion of the present invention, and FIG. 6B is a schematic sectional view of a plurality of protruding terminals.

6A and 6B, the plurality of protruding terminals 280 may include a first group protruding terminal 280a, a second group protruding terminal 280b, and a third group protruding terminal 280c. The first group protruding terminal 280a is disposed at the outer circumferential portion of the base electrode plate 260, and the third group protruding terminal 280c is disposed at the inner circumferential portion adjacent to the central region of the base electrode plate 260, and the second group The protruding terminal 280b is disposed between the first group protruding terminal 280a and the third group protruding terminal 280c. The protruding terminals have a length formed in the order of the first group protruding terminals 280a, the second group protruding terminals 280b, and the third group protruding terminals 280c, so that the plurality of protruding terminals 280 may have a central area as a whole. It is formed in a concave shape.

Each protruding terminal 280 is composed of a conductor 281 and a second insulator 285 formed to surround the conductor 281. In the present embodiment, the conductor 281 is made of aluminum, but the material of the conductor is not limited thereto, and may be variously modified. As shown in FIG. 6B, the first to third group protruding terminals 280a, 280b, and 280c have the same length of each of the conductors 281a, 281b, and 281c, and the second insulators 285a, 285b, and 285c. By coating different thicknesses), the lengths of the plurality of protruding terminals can be formed different from each other. Alternatively, the length of each conductor may be different, and the coating thickness of the second insulator may be the same, so that the lengths of the plurality of protruding terminals may be adjusted differently.

Hereinafter, the configuration of the second insulator 285 will be described using the third group protruding terminal 280c as an example, but the second insulator of the remaining first and second group protruding terminals 280a and 280b is also the third group protruding terminal. It is configured as 280c.

The second insulator 285c is composed of a first layer 286c formed on the conductor 281c and a second layer 287c formed on the first layer 286c. In this case, the first layer 286c is formed by ceramic coating on the conductor 281c, and the second layer 287c is formed by nylon coating on the first layer 286c. As such, by coating the conductor 281c in double, it is possible to prevent the occurrence of cracks in the second insulator, and as a result, it is possible to prevent the high-frequency current directly applied to the human body through the cracks, Stability and reliability can be further improved.

7A is a plan view of the upper case of the first insulator of the head portion, FIG. 7B is a side view of the upper case of the first insulator, FIG. 7C is a plan view of the base electrode plate, and FIG. 7C is a plan view of the lower case of the first insulator. .

7A to 7D, the upper case 266 of the first insulator is formed in a disc shape in which a center region protrudes, and a through hole 267 is formed in the protruding portion so that the connection terminal 270 is inserted. Provides space to be

A central through hole 262 is formed in the central region of the base electrode plate 260, and a plurality of through holes 261 are formed around the central through hole so as to be spaced apart by a predetermined interval. Three through-holes are formed adjacent to the central through-hole 262, six through-holes are formed around it, and twelve through-holes are formed on the outermost side, and the plurality of through-holes are formed in a radial shape as a whole. do.

The lower case 268 has a plurality of through holes 269 corresponding to sizes and positions formed in the plurality of through holes 261 formed in the base electrode plate 260, and a plurality of protruding terminals (not shown) may be inserted therein. It provides a space for the insertion, the insertion groove (269b) is formed in the center area, the end of the connection terminal 270 is inserted.

8 is a perspective view of a radio frequency treatment device for hair care according to another embodiment of the present invention. The embodiment shown in FIG. 8 differs from the above embodiment in that the first electrode unit is provided in a part of the second electrode unit, and will be described below with a different configuration.

Referring to FIG. 8, the radio frequency treatment apparatus for managing hair according to another embodiment of the present invention includes a high frequency generating unit 100 for generating a high frequency current and a plurality of protruding terminals, and generates the generated high frequency current through the plurality of protruding terminals. And a second electrode unit 300 having a first electrode unit 200 to be applied to the scalp to be managed and an electrode plate contacting the body, and energizing the high frequency current applied to the scalp through the electrode plate.

The first electrode unit 200 includes a body portion 210, a first cable 230, and a head portion 250, and the second electrode unit 300 includes a second electrode plate 320 and a second cable ( 330). The second electrode plate 320 is formed on the body portion 210 of the first electrode unit 200. As a result, when the user grips the body portion 210 of the first electrode unit 200 and makes the head portion 250 contact with the affected part, ie, the scalp, the hand holding the body portion 210 may cause the second electrode plate ( 320, the radio frequency treatment may be performed without any additional act of contacting the second electrode plate 320 and a part of the human body.

As described above is merely an exemplary embodiment of the electrode unit for scalp management according to the present invention, the present invention is not limited to the above embodiment, as claimed in the following utility model registration claims, Without departing from the gist, any person having ordinary knowledge in the field to which the present invention belongs will have a technical spirit of the present invention to the extent that various modifications can be made.

1 is a perspective view of a radiofrequency treatment apparatus according to the prior art.

2 is a perspective view of a radiofrequency treatment device for scalp management according to an embodiment of the present invention.

Figure 3 is a schematic functional block diagram of a radiofrequency treatment device for scalp management according to an embodiment of the present invention.

4 is an exploded perspective view of the first electrode unit of the present invention.

Figure 5a is an exploded perspective view of the head of the present invention, Figure 5b is a perspective view of the head of the present invention, Figure 5c is a modification of the head of the present invention.

6A is a sectional view of a head portion of the present invention, and FIG. 6B is a schematic sectional view of a plurality of protruding terminals.

7A is a plan view of the upper case of the first insulator of the head portion, FIG. 7B is a side view of the upper case of the first insulator, FIG. 7C is a plan view of the base electrode plate, and FIG. 7D is a plan view of the lower case of the first insulator. .

8 is a perspective view of a radiofrequency treatment apparatus for a scalp according to another embodiment of the present invention.

* Description of the symbols for the main parts of the drawings *

100: high frequency generation unit

200: first electrode unit

210: body part

230: first cable

250: head

260: base electrode plate

265: first insulator

270 connection terminal

280: protruding terminal

285: second insulator

300: second electrode unit

Claims (10)

In the scalp management electrode unit for generating a deep heat inside the scalp by applying a high frequency current to the scalp, and manages the scalp through the generated deep heat, A base electrode plate in the form of a plate; A connection terminal formed at one side of the base electrode plate and receiving a high frequency current; And The electrode unit for scalp management is formed on the other side of the base electrode plate and comprises a plurality of protruding terminals for applying to the scalp to manage the input high frequency current. The method of claim 1, wherein the scalp management electrode unit Further comprising a first insulator surrounding the base electrode plate, Wherein each protruding terminal comprises a conductor and a second insulator surrounding the conductor. The method of claim 1, A first fastening hole and a plurality of second fastening holes are formed in the base electrode plate. The connection terminal further includes a first fastening part inserted into and fastened to the first fastening hole, and each protruding terminal further includes a second fastening part inserted into and fastened to the respective second fastening holes. Electrode unit for management. The method of claim 1, And the base electrode plate, the connection terminal and the plurality of protruding terminals are integrally formed. The method of claim 2, wherein the first insulator An upper case covering an upper portion of the base electrode plate; And And a lower case coupled to the upper insulator and covering a lower portion of the base electrode plate. The method of claim 1, The plurality of protruding terminals are disposed to be spaced apart from each other, the length of the plurality of protruding terminals is shorter toward the center area of the base electrode plate characterized in that the electrode unit for managing the scalp. The method of claim 2, wherein the second insulator A first layer coated to surround the conductor; And And a second layer coated on the first layer, wherein the first layer comprises a ceramic and the second layer comprises nylon. A high frequency generating unit for generating a high frequency current; A first electrode unit having a plurality of protruding terminals in contact with the scalp to be managed, and applying the generated high frequency current to the scalp to be managed through the plurality of protruding terminals; And And a second electrode unit having an electrode plate in contact with a part of the body and energizing the high frequency current applied to the scalp to the part of the contacted body. The method of claim 8, And the first electrode unit is formed on the body portion of the second electrode unit. The method of claim 8, The high frequency current is a high frequency treatment device for scalp, characterized in that the range of 400 kHz to 600 kHz.

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