KR20230054044A - Brush structure with microcurrent, toothbrush using it, hair cap using it and mask using it - Google Patents

Abstract

The present invention relates to a microcurrent-generating brush structure, a toothbrush equipped with the same, a hair cap, and a mask. More specifically, the microcurrent-generating brush structure can sterilize harmful pathogens such as viruses by generating microcurrent when moisture is provided and can perform beneficial functions for the human body by effectively stimulating parts of the human body such as teeth and scalp. The microcurrent-generating brush structure, according to the present invention, comprises: a brush base having a brush-forming surface; a plurality of brushes protruding and formed on the brush base; and a current-generating conductive part selectively formed on the brush base and the brush and containing a conductive material to generate a microcurrent upon contact with moisture.

Description

Microcurrent generating brush structure, toothbrush, hair cap and mask having the same

The present invention relates to a microcurrent generating brush structure, a toothbrush having the same, a hair cap, and a mask, and more particularly, when moisture is provided, a microcurrent is generated to sterilize harmful pathogens such as viruses, teeth, It relates to a microcurrent generating brush structure that can effectively stimulate human body parts such as the scalp and perform functions beneficial to the human body, and a toothbrush, hair cap, and mask having the same.

Viruses such as Corona 19 are spreading, and many people are infected by airborne transmission. As a result, social and economic activities are reduced, resulting in economic losses and difficulties in life.

In addition, according to virus experts, the Corona 19 virus is expected to cause damage to mankind for a long time as it is difficult to overcome completely as more and more variants are generated.

Viruses such as COVID-19 are known to spread to others by being included in droplets generated when an infected person breathes or coughs and scatters over several meters (100,000 viruses are scattered over 7 meters when coughing once).

In addition, when a virus such as Corona 19 is attached to the surface, it survives for a long time, so there is a high risk of infection during contact with the skin and repeated detachment.

As such, viruses such as COVID-19 may survive for a long time and cause infection in the process of ventilation, so protective wear such as hats and household items such as toothbrushes are in dire need of sterilization properties that can kill attached viruses. there is a fact

To this end, Republic of Korea Patent Registration No. 10-0773210, as shown in Figure 1, can improve hygiene by sterilizing action by ultraviolet rays and at the same time stimulate the gums to maintain gum health, thereby improving the overall health of teeth. A toothbrush having sterilization and gum treatment functions has been proposed.

However, since these toothbrushes depend on ultraviolet rays for sterilization, general bacteria such as Escherichia coli can be sterilized, but there is a limitation in that it is difficult to sterilize pathogens such as viruses such as Corona 19.

Korean Patent Registration No. 10-0773210 "Toothbrush with sterilization and gum treatment" Japanese Patent No. 3276141 "Antibacterial fabric and antibacterial composite fabric" Korea Utility Model Registration No. 20-0460479 "Mask with antibacterial and antiviral function"

The present invention has been proposed in view of the above, and provides a microcurrent generating brush structure that generates microcurrent to sterilize harmful pathogens such as viruses when moisture is provided, a toothbrush, a hair cap, and a mask equipped with the same. It has a purpose.

Another object of the present invention is to provide a microcurrent generating brush structure capable of effectively stimulating human body parts such as teeth and scalp to perform functions beneficial to the human body, and a toothbrush, hair cap and mask having the same.

In order to achieve the above object, a microcurrent generating brush structure according to the present invention includes a brush base having a brush forming surface; A plurality of brushes protruding and formed on the brush base; and a current generating conductive part selectively formed on the brush base and the brush and containing a conductive material to generate a microcurrent upon contact with moisture.

The brush base may have a hair transplant hole formed on the brush formation surface for hair transplant of the brush.

The current generating conductive part includes a surface layered conductive part laminated on the brush formation surface, a hole laminated conductive part laminated on the inner surface of the tufted hole, a brush conductive part formed on the brush, and the tufted hole formed on the bottom surface of the brush base. At least one of a bottom layered conductive part formed to contact and a detachable conductive part detached from the brush base may be provided.

In addition, the brush base includes a drainage hole communicating for drainage of moisture inside the implantation hole and having a smaller inner diameter than that of the implantation hole; Alternatively, a concavo-convex portion formed on the brush formation surface may be provided to allow moisture to flow.

Meanwhile, the brush may include a plurality of filament yarns, and the brush conductive part may include at least one conductive filament yarn containing a conductive material among the plurality of filament yarns, or a lower part of the plurality of filament yarns. A conductive material may be laminated or formed.

The brush may include a hollow protrusion having a hollow portion formed therein.

In addition, the brush may include a shape memory alloy yarn or an optical fiber yarn, and the brush base may be provided with a light source for transmitting light to the optical fiber yarn.

Preferably, the brush may be formed as a pressure protrusion having flexibility. At this time, the pressure protrusion may be formed with an antibacterial pressure portion on the outer surface.

The microcurrent generating brush structure according to the present invention includes a permanent magnet for protrusions installed on the pressing protrusions; and a permanent magnet for applying a repulsive force installed on the brush base so that the pressing protrusion stands up by applying a repulsive force to the permanent magnet for the protrusion.

The antibacterial pressure unit may be composed of a metal coating layer stacked on top of the pressing protrusion or a metal cap coupled to the top of the protrusion.

The current generating conductive part includes a positive electrode part formed on the brush base to be electrically connected to some of the plurality of brushes, and a negative electrode part formed on the brush base to be electrically connected to the remaining part of the plurality of brushes. can be configured.

On the other hand, the microcurrent generating brush structure according to the present invention includes a low-frequency generator for generating and applying low-frequency current, a bio-signal measurement module for measuring the bio-signal of the human body, a temperature sensor for detecting the temperature of the human body, and a vibration force A vibration module having a built-in vibrator to generate and apply, a moisture sensor installed to detect moisture, a negative ion generator for generating negative ions, a wireless communication module for communicating with an external terminal, and a display unit for displaying information. At least one of a camera performing an imaging operation, a speaker outputting an audio signal, a blowing fan forcibly performing a blowing action, a heating wire installed to perform a heating action, and a light source generating light for human body stimulation. It can be configured on a brush base.

On the other hand, a toothbrush having a microcurrent generating brush structure according to the present invention, in the toothbrush, a toothbrush body provided with a handle portion that the user can hold on one side; And a toothbrush head formed on the other side of the toothbrush body, but the toothbrush head is characterized in that it is configured to be covered with the above-described microcurrent generating brush structure.

And, in the hair cap having a microcurrent generating brush structure according to the present invention, in the hair cap having a brush structure seated on the head of the human body, the brush structure is characterized in that it is composed of the above-described microcurrent generating brush structure to be

Here, the hair cap is formed on the cap base to which the microcurrent generating brush structure is detached, a first binding member formed on the microcurrent generating brush structure, and the first binding member are coupled and separated from the cap base It may be configured to include a second binding member.

On the other hand, in the mask having a microcurrent generating brush structure according to the present invention, in the mask having a brush structure seated on the head of the human body, the brush structure is characterized in that it is composed of the above-described microcurrent generating brush structure. .

According to the microcurrent generating brush structure according to the present invention, since the current generating conductive part is formed in the brush base and the brush, when moisture is provided, microcurrent is generated through an electrochemical reaction with moisture, and harmful pathogens such as viruses can be sterilized. There is an effect.

Accordingly, when a toothbrush, a hair cap, and a mask are constructed using the microcurrent generating brush structure, it is possible to maintain health by effectively sterilizing harmful pathogens using microcurrent, promote hair growth and reduce hair loss, and wrinkles. It has the effect of effectively managing the skin by reducing or exerting a whitening effect.

1 is a view for explaining the prior art;
2 is a view for explaining a microcurrent generating brush structure according to a first embodiment of the present invention;
3 is a view for explaining a microcurrent generating brush structure according to a modified example of the first embodiment of the present invention and a toothbrush having the same;
4 is a view for explaining a microcurrent generating brush structure according to a second embodiment of the present invention;
5 is a view for explaining a microcurrent generating brush structure according to a third embodiment of the present invention;
6 is a view for explaining a microcurrent generating brush structure according to a fourth embodiment of the present invention;
7 is a schematic perspective view for explaining a hair cap having a microcurrent generating brush structure according to an embodiment of the present invention.

Hereinafter, a preferred embodiment of the present invention will be described in detail based on the accompanying drawings 2 to 7, and the same reference numerals are assigned to the same components in FIGS. 2 to 7. On the other hand, in each drawing, the illustration and detailed description of the configuration and its action and effect, which can be easily known by those skilled in the art from general technology, are simplified or omitted, and the parts related to the present invention are mainly shown.

Figure 2 is a view for explaining the microcurrent generating brush structure according to the first embodiment of the present invention, a cross-sectional view schematically showing a portion of the cross section.

Referring to FIG. 2, the microcurrent generating brush structure (B) according to the first embodiment of the present invention is provided with a brush base (1), a plurality of brushes (2) and a current generating conductive part (3), and moisture When provided, it is characterized in that it is configured so that a microcurrent can be generated.

The brush base 1 has a structure in which a brush forming surface is formed so that the brush 2 can be formed or planted. For example, the brush base 1 may be formed in a planar structure having flexibility as will be described later, but in this embodiment, it is formed in a structure similar to that of the head of a toothbrush.

In the brush base 1, a plurality of hair transplant holes 12 are perforated on the brush formation surface formed flat for the brush 2 to be transplanted.

The brush 2 is a component that protrudes and is formed on the brush base 1, and is formed in plurality.

Preferably, the brush 2 is composed of a plurality of filament yarns. At this time, the filament yarn may be applied to the monofilament yarn widely used as the bristles of the toothbrush.

In addition, the brush 2 may include a conductive material in a resin chip (usually referred to as a master beach) for forming filament yarns. Here, as the conductive material, metal nanoparticles, metal oxide particles, metal particles, and the like can be applied.

In addition, the brush 2 may include titanium dioxide (TiO 2 ) as a photocatalyst so that a sterilization action is performed by irradiated light. At this time, titanium dioxide is included in a resin chip in which nano-sized particles are mixed with other synthetic resin components.

The current generating conductive part 3 is a component that contains a conductive material and generates a minute current by interacting with moisture when in contact with moisture, and is formed on at least one of the brush base 1 and the brush 2. It can be.

For example, in this embodiment, the current generating conductive portion 3 is formed on the brush base 1 and the brush 2.

More specifically, the current generating conductive portion 3 is composed of a surface layered conductive portion 31 in the form of a metal layer laminated on the brush formation surface of the brush base 1.

Here, the surface layered conductive portion 31 can be formed by various techniques of forming a metal thin film, but in this embodiment, a deposition method, which is a typical metal thin film formation technique, is representatively applied.

The surface-layered conductive portion 31 can be formed of various types of metal materials and processed materials as long as they can generate a microcurrent by interaction with moisture, and a conductive polymer including metal nanoparticles, metal oxide particles, metal particles, and the like. However, in this embodiment, the surface layered conductive part is formed by depositing one kind of metal material known to be harmless to the human body, such as gold (Au), silver (Ag), zinc, titanium, and the like. In this way, even if one type of metal material such as titanium is disposed on the brush base 1 in the form of a metal layer, a microcurrent may be generated by an electrochemical reaction when moisture is supplied.

Meanwhile, the surface layered conductive portion 31 may be formed by mixing two or more metal materials. At this time, two or more metal materials are formed of metals that are harmless to the human body but have different electrical conductivity.

For example, the brush base 31 may be formed with a concave-convex portion (not shown) having a concave surface and a protruding surface so that a plurality of surface-laminated conductive portions may be formed. It can also be formed by depositing aluminum (Al) first and then depositing silver (Ag) on the surface of the aluminum (Al) deposited layer so that silver (Ag) and aluminum (Al) are disposed together on the depressed and protruding surfaces of the concavo-convex part. can In this way, when the concavo-convex portion is formed on the brush base 1, it can effectively perform the role of a passage for the flow of moisture.

In addition, when different types of metal layers are formed on the concave and protruding surfaces of the concave-convex portion (not shown), as is well known, when two types of electrodes with different ionization tendencies are exposed to moisture, an oxidation-reduction reaction occurs and electrons move A microcurrent is generated. As is well known, microcurrent can provide sub-sensory level stimulation, and is not generated by an external current supply device but is continuously generated by metals with different electrical characteristics such as potential difference. It is a well-known fact that an almost uniform microcurrent is generated.

In addition, in the electrochemical reaction, the greater the ionization tendency, the easier it is to lose electrons and become a cation (oxidation). When Al and Ag are combined, Al becomes the anode and Ag becomes the cathode. Oxygen is generated, but even the same metal can be an anode or a cathode, so even a single metal can generate a microcurrent. However, when metals having a large difference in ionization tendencies are combined (that is, the greater the potential difference), the generated microcurrent also becomes stronger.

The microcurrent and active oxygen generated in this way damage the electrostatic force required when the strain or virus binds to the human body, thereby killing the virus or losing its infectivity.

In addition, the surface layer conductive part 31 can be configured such that a conductive resin layer (called conductive rubber or conductive silicone) containing a conductive material (conductive polymer, etc.) is coupled to the upper surface of the brush base 1, and is injected. Among the methods, the conductive resin layer applied to the brush base 1 and the surface layered conductive portion 31 can be sequentially formed through an injection method called double injection. In this way, when the conductive resin layer is formed as the surface layer conductive portion 31, the hair transplant hole 12 is drilled for hair transplant of the brush 2, and then the hair is transplanted so that the brush 2 is in contact with it.

On the other hand, the current generating conductive portion 3 may be configured in various forms other than the surface layer conductive portion 31 described above.

For example, the current generating conductive portion 3 may be composed of a brush conductive portion 32 formed on the brush 2 as shown in the enlarged portion of FIG. 2 . At this time, the brush conductive part 32 may be composed of at least one conductive filament yarn containing a conductive material among a plurality of filament yarns, but in this embodiment, the conductive material is laminated and formed on the lower part of the plurality of filament yarns. are showing

And, the current generating conductive part 3 may be composed of a hole-stacked conductive part (not shown) laminated on the inner surface of the tufted hole 12 perforated on the brush forming surface. Here, the hole stacked conductive portion (not shown) may be formed by a deposition method widely used as a general metal thin film forming technique.

In addition, the current generating conductive part 3 may be composed of a bottom layered conductive part (not shown) formed on the bottom surface of the brush base 1 so as to come into contact with the tufted hole 12 . Here, the bottom area laminated conductive part (not shown) can be configured such that a conductive resin layer containing a conductive material (conductive polymer, etc.) is coupled to the bottom surface of the brush base 1, and is applied to the brush base 1 through a double injection method. A bottom layered conductive portion (not shown) may be sequentially formed on the bottom surface with conductive rubber or the like. The brush 2 is planted so as to come into contact with the injection-molded low-area laminated conductive portion (not shown).

In addition, the current generating conductive part 3 may be composed of a detachable conductive part (not shown) attached to the brush base 1. Here, the detachable conductive portion (not shown) may be molded using a conductive resin containing a conductive material. For example, the detachable conductive part may be formed in a square cap shape to be coupled to a brush base that can be applied as a toothbrush head, or may be formed in a ring shape to be inserted into a hair transplant hole.

3 is a view for explaining a microcurrent generating brush structure according to a modified example of the first embodiment of the present invention and a toothbrush having the same, and is a cross-sectional view showing the microcurrent generating brush structure applied to the head of the toothbrush.

Referring to FIG. 3, a microcurrent generating brush structure (B) according to a modified example of the first embodiment of the present invention includes a brush base (1) having a brush formation surface, and a plurality of brushes protruding and formed on the brush base (1). (2), a current generating conductive part 3 selectively formed on the brush base 1 and the brush 2 and containing a conductive material to generate a microcurrent when in contact with moisture, but the brush base 1 ) is communicated for drainage of moisture inside the implantation hole 12 and a drainage hole 14 having a smaller inner diameter than the implantation hole 12 is formed.

As shown in FIG. 3, when the brush base 1 is provided with a drain hole 14 communicating with the hair transplant hole 12, moisture can be discharged through it, and ventilation is secured, so that the brush 2 can be quickly dried. Since it is possible, there is an advantage in reducing the generation and reproduction of pathogens.

On the other hand, the toothbrush having a microcurrent generating brush structure according to the first embodiment of the present invention includes a toothbrush body (t) equipped with a handle portion that a user can hold on one side, and a toothbrush head (1a) formed on the other side of the toothbrush body. However, the toothbrush head 1a is composed of the above-described microcurrent generating brush structure 1.

Hereinafter, other embodiments according to the present invention will be described, but detailed descriptions of elements similar to those shown in the first embodiment and its modifications will be omitted and the elements having differences will be mainly described. In addition, in the following other embodiments, any structure that can be employed between the components shown in the first embodiment and its modifications or components shown in other embodiments can be selectively applied, and detailed descriptions or drawings are omitted. do.

4 is a diagram for explaining a microcurrent generating brush structure according to a second embodiment of the present invention, which is a schematic cross-sectional view of a part of the brush structure.

Referring to FIG. 4, the microcurrent generating brush structure (B) according to the second embodiment of the present invention includes a brush base (1) having a brush formation surface, and a plurality of brushes (2) protruded and formed on the brush base (1). ), a current generating conductive part 3 selectively formed on the brush base 1 and the brush 2 and containing a conductive material to generate a microcurrent when in contact with moisture, but the brush base 1 While formed in a structure having flexibility, the brush 2 is formed of a pressure protrusion 2b having flexibility.

The pressure protrusion 2b protrudes in a wedge shape with a relatively pointed end, and is formed of a material having flexibility such as silicone or rubber to have flexibility.

Preferably, an antibacterial pressure portion 22 is formed over a part or the entire outer surface of the pressing protrusion 2b. The antibacterial pressing unit 22 performs antibacterial and sterilizing action in the process of piercing and pressurizing the skin.

In addition, since the antibacterial pressure portion 22 has a greater hardness than the portion forming the pressure protrusion 2b and thus performs the function of a pressure needle to stimulate the skin, the skin can be stimulated more effectively.

The antibacterial pressing unit 22 is formed of a metal layer in which gold or silver having antibacterial properties is laminated on the upper outer surface of the pressing protrusion 2b by a method such as plating, but in addition to this plating method, a wedge-shaped metal plated with gold or silver It can also be constructed by inserting and fixing a cap.

5 is a diagram for explaining a microcurrent generating brush structure according to a third embodiment of the present invention, which is a schematic cross-sectional view of a part of the brush structure.

Referring to FIG. 5, the microcurrent generating brush structure (B) according to the third embodiment of the present invention includes a brush base (1) having a brush formation surface, and a plurality of brushes (2) protruded and formed on the brush base (1). , a current generating conductive part 3 selectively formed on the brush base 1 and the brush 2 and containing a conductive material to generate a microcurrent when in contact with moisture, but the brush stimulates the human body part In addition to basic functions, it is characterized in that it is configured to perform various functions such as irradiation of light, supply of drugs such as dyes, and application of ultrasonic waves and vibrations.

Referring to FIG. 5 , the brush 2 may be composed of a hollow protrusion 25 having a hollow portion 251 formed therein.

The microcurrent generating brush structure in which the hollow protrusion 25 is disposed on the brush base 1 can be used for skin care to supply cosmetics for the skin when it is made into a mask that can be worn on the face of the human body. .

In addition, when a hair cap for hair care is manufactured using the microcurrent generating brush structure in which the hollow protrusion 25 is disposed on the brush base 1, it is possible to effectively supply functional liquid such as dye solution as well as cosmetics for hair and moisture. can

Meanwhile, the brush 2 may be composed of an optical fiber thread 26. Gwangseong-like 26 is composed of a brush base 1 with a conventional optical fiber thread having an outer skin layer 262 (clad) formed on the outside of a core 261 formed of a material through which light passes. At this time, it is preferable that a light source (not shown) such as a light emitting diode is installed on the brush base 1 corresponding to one end of the optical fiber thread to irradiate light with the optical fiber thread.

When a mask for skin care is manufactured using the microcurrent generating brush structure in which the optical fiber thread 26 and the light source (not shown) are disposed on the brush base 1, light is irradiated to the skin through the optical fiber thread to stimulate the skin. It can have a wrinkle-reducing effect that reduces wrinkles and a whitening effect that whitens the skin. At this time, the light emitting diode uses an LED of a wavelength band having a wrinkle improvement or whitening effect. For example, it is preferable to mix and arrange LEDs of 600 to 650 nm wavelength band and 800 to 850 nm wavelength band LEDs.

In addition, when a hair cap for hair care is manufactured using a microcurrent generating brush structure in which an optical fiber thread 26 and a light source (not shown) are disposed on the brush base 1, the optical fiber thread 26 protrudes long, so It is possible to promote hair growth by stimulating the scalp by transmitting light to the scalp. At this time, it is preferable to apply an LED having a wavelength band suitable for promoting hair growth as the light emitting diode.

In addition, the brush 2 may include a shape memory wire (not shown). The shape memory wire can be applied to a wire made of shape memory alloy or a wire made of shape gear resin. In this way, when the shape memory wire is additionally disposed on the brush 2, various functions can be performed. For example, when a shape-memory wire is arranged to stretch while transforming into a specific memorized shape when heated to a specific temperature in contact with the human body, the shape-memory wire stretches when heated to the corresponding temperature to stimulate or acupressure the human skin. can do.

On the other hand, as shown in FIG. 5, the pressing protrusion 2b may have a shape-retaining piece 24 built into the protruding body to secure rigidity and prevent deformation during pressing. Here, the shape-retaining piece 24 is formed of a conical metal piece or a ceramic sintered body, and may be inserted by an insert injection method to be positioned inside the pressing protrusion 2b during a molding operation.

On the other hand, the microcurrent generating brush structure according to the third embodiment of the present invention can be configured to perform various functions by a separately supplied external power source together with a sterilization action by a microcurrent generated by itself.

For example, in the microcurrent generating brush structure according to the second embodiment of the present invention, a low frequency generator may be configured in the brush base 1.

The low-frequency generator (not shown) is a low-frequency generator body (not shown) that generates low-frequency current, and a stimulation member connected to the low-frequency generator body and a power supply line as a medium and disposed on the brush base 1 to apply low-frequency stimulation to the human body. (not shown). In addition, the low-frequency generator body is installed in a form in which a module applied in a general low-frequency generator or low-frequency stimulator is embedded in the edge of the brush base (1), by operating an on-off switch, a voltage control switch, a time setting switch, etc. When the voltage and time are set to desired conditions, a low-frequency stimulation is applied to the human body to perform a treatment function.

A vibration module (not shown) for applying a vibration force to the human body may be further configured in the brush base 1. For example, the vibration module (not shown) is composed of a vibrating protrusion installed on the brush base 1 to be vibrated, and a vibrator (not shown) for applying a vibrating force to the vibrating protrusion. Here, the vibrator may be a small vibration motor installed for a vibration mode of a mobile phone, and since it is a known module, a detailed description thereof will be omitted.

In addition, the brush base 1 may be provided with a bio-signal measuring module (not shown) connected to a power supply line (not shown) to detect a bio-signal. Since the bio-signal measurement module is installed on the brush base as a normal bio-signal measurement module that senses the pulse and blood pressure of the human body, a detailed description thereof will be omitted.

A moisture sensor (not shown) capable of detecting moisture, a negative ion generator (not shown) capable of generating negative ions, and a temperature sensor (not shown) capable of detecting human body temperature are optionally installed on the brush base (1). It can be.

In addition, the brush base 1 may be configured with a light source that emits light when power is supplied and applies beneficial rays to the human body such as the scalp. Here, as the light source, a light emitting diode that emits light in an infrared wavelength band can be typically applied, but an optical fiber, an EL lamp, and the like can also be applied.

In the brush base 1, a fragrance dispersing device (not shown) for dissipating fragrance, a wireless communication module (not shown) for communication with an external terminal, a display unit (not shown) for displaying information, and a CCD for performing an imaging operation A camera (not shown) such as a camera, a small speaker (not shown) installed in a smartphone or the like to output a voice signal, a fan (not shown) forcibly performing a blowing action, and a heating wire (not shown) installed to perform a heating action not shown) may be installed.

Since the above moisture sensor, negative ion generator, temperature sensor, wireless communication module, etc. are installed as normal modules or sensing elements, a detailed description thereof will be omitted.

In addition, the current generating conductive part 3 includes an anode electrode part (not shown) formed on the brush base to be electrically connected to some of the brushes, and a cathode to the brush base to be electrically connected to the rest of the brushes. An electrode unit (not shown) may be provided.

In addition, the microcurrent generating brush structure according to the second embodiment of the present invention includes a power supply line electrically connected to the above-described anode electrode unit and cathode electrode unit, a low frequency generator, a vibrator, and a light source, and a power supply line connected to the power supply line. A power supply may be provided.

The power supply unit (not shown) may be composed of a secondary battery or a commercial power supply connected to a power supply line.

6 is a diagram for explaining a microcurrent generating brush structure according to a fourth embodiment of the present invention, which is a schematic cross-sectional view of a part of the brush structure. The permanent magnet 4 for protrusion and the permanent magnet 6 for applying repulsive force in FIG. 6 are formed of a small disk-shaped body, but the N-pole and S-pole portions are arbitrarily partitioned and displayed for better understanding.

Referring to FIG. 6, the microcurrent generating brush structure (B) according to the fourth embodiment of the present invention includes a brush base (1) having a brush formation surface, and a plurality of brushes (2) protruded and formed on the brush base (1). , A current generating conductive part 3 selectively formed on the brush base 1 and the brush 2 and containing a conductive material to generate a microcurrent when in contact with moisture, but the brush 2 is flexible It is formed of a pressure protrusion (2b) having a characteristic, and the pressure protrusion (2b) is characterized in that it is configured to quickly restore itself when deformed.

To this end, the microcurrent generating brush structure according to the fourth embodiment of the present invention applies a repulsive force to the permanent magnets 4 for projections installed on the pressing projections 2b and the permanent magnets 4 for projections so that the pressing projections stand up. A permanent magnet 5 for applying a repulsive force is installed on the brush base 1 so as to be configured. At this time, as shown in the enlarged portion of FIG. 6, the permanent magnet 4 for protrusions stimulates (N pole-N pole) to act repulsively with the permanent magnet 5 for applying repulsive force in a state where the pressing protrusion 2b is bent, as shown in the enlarged portion of FIG. And S pole - S pole) is installed in the form of being disposed.

The permanent magnet 4 for protrusion is a component for applying magnetic force to the human body, and as shown in FIG. During injection molding of the brush base 1, it may be embedded in an insert injection method.

In addition, the permanent magnet 4 for protrusion and the permanent magnet 5 for applying repulsive force may be formed as a permanent magnet formed in a ball shape, but in this embodiment, a permanent magnet formed in a small diameter disc shape is installed. are showing

When the microcurrent generating brush structure according to the fourth embodiment of the present invention is applied as a hair cap to be described later, if the pressing protrusion 2b is bent in the process of being used as a scalp stimulation protrusion for pressing the scalp, the protrusion is permanent. Since the magnetic poles (N-N, S-S) are arranged so that the magnet 4 and the permanent magnet 5 for applying repulsive force act on each other with repulsive force, the scalp can be effectively stimulated through continuous bending and upright motion while quickly restored. In addition, when the permanent magnet 4 for protrusion is restored, repetitive fluctuations occur due to the interaction with the permanent magnet 5 for applying repulsive force, which naturally induces a change in the magnetic field, thereby improving blood flow in the human body. .

In addition, since the action of improving blood flow by the magnetic field applied to the human body can be confirmed through research papers such as 'Consideration of blood flow improvement effect of pulsed magnetic field stimulator through body heat diagnosis', detailed explanation on this will be omitted. (<Research thesis > Journal of the Korean Magnetics Society, Volume 21, Number 5, October 2011)

In addition, since the action of improving blood flow by vibration applied to the human body can be confirmed through research papers such as 'Analysis of the Scientific Effect of Vibration Exercise Shoes for Health Promotion', a detailed explanation thereof will be omitted. (<Research Papers) > Korean Journal of Wellness, Vol. 7, No. 3)

7 is a schematic perspective view for explaining a hair cap having a microcurrent generating brush structure according to an embodiment of the present invention.

Referring to FIG. 7 , a hair cap (c) having a microcurrent generating brush structure according to an embodiment of the present invention is configured using the above-described microcurrent generating brush structure so as to be seated on the human head.

The microcurrent generating brush structure (B) may be configured by applying the microcurrent generating brush structure according to the first embodiment described above, but the microcurrent generating brush structure (B) according to the second to fourth embodiments It is preferable to apply and configure.

The hair cap (c) is composed of only a microcurrent generating brush structure (B) having a brush base (1), a plurality of brushes (2), and a current generating conductive part (3), but the microcurrent generating brush structure is separately manufactured. It can be configured in a form coupled to a cap base (not shown).

For example, the cap base (not shown) is composed of an injection-molded plastic product substantially similar to a safety helmet so as to be seated on the head of the human body, and a microcurrent generating brush structure may be detachably coupled therein. To this end, a first binding member (not shown) may be coupled to the microcurrent generating brush structure, and a second binding member (not shown) may be formed on a cap base (not shown) to which the first binding member is bound and separated.

Here, the first binding member and the second binding member may be configured by typically applying female and male Velcro fasteners, but may be configured by selecting a zipper, a one-touch button, etc. without limitation.

On the other hand, the microcurrent generating brush structure (B) according to the present invention may be configured as a skin care mask in addition to the above-described toothbrush or hair cap.

For example, a mask (not shown) having a microcurrent generating brush structure according to the present invention is composed of a mask body (not shown) that can be worn on the face and a binding string bound to the mask body, although separate drawings are not attached thereto. It can be. Here, it is preferable to configure the mask body by applying the microcurrent generating brush structure according to the second to fourth embodiments described above.

What has been described above is only one embodiment for implementing the microcurrent generating brush structure according to the present invention, a toothbrush equipped with the same, a hair cap, and a mask, and the present invention is not limited to the above-described embodiment, and the following patents As claimed in the claims, anyone with ordinary knowledge in the field to which the invention pertains without departing from the gist of the present invention will say that the technical spirit of the present invention exists to the extent that various changes can be made.

Terms used in the above embodiments are only used to describe specific embodiments, and are not intended to limit the present invention. Singular expressions include plural expressions unless the context clearly dictates otherwise. In this application, terms such as "comprise" or "having" are intended to designate that there is a feature, number, step, operation, component, part, or combination thereof described in the specification, but one or more other features It should be understood that it does not preclude the possibility of the presence or addition of numbers, steps, operations, components, parts, or combinations thereof.

B: microcurrent generating brush structure
C: hair cap
1: brush base
2: Brush
2b: pressure protrusion
22: antibacterial pressure unit
24: shape-retaining piece
26: optical fiber yarn
28: hollow protrusion
3: electric current generating part
4: permanent magnet for protrusion
5: Permanent magnet for applying repulsive force

Claims (14)

In the microcurrent generating brush structure,
a brush base having a brush forming surface;
A plurality of brushes protruding and formed on the brush base; and
A microcurrent generating brush structure comprising: a current generating conductive part selectively formed on the brush base and the brush and containing a conductive material to generate a microcurrent upon contact with moisture. According to claim 1,
The brush base has a hair transplant hole formed on the brush formation surface for hair transplant of the brush,
The current generating conductive part includes a surface layered conductive part laminated on the brush formation surface, a hole laminated conductive part laminated on the inner surface of the tufted hole, a brush conductive part formed on the brush, and the tufted hole formed on the bottom surface of the brush base. A microcurrent generating brush structure, characterized in that at least one of a bottom layered conductive part formed to contact and a detachable conductive part attached to and detached from the brush base. According to claim 2,
The brush base includes a drainage hole communicating for drainage of moisture inside the tufting hole and having a smaller inner diameter than the tufting hole; Alternatively, a microcurrent generating brush structure characterized in that a concave-convex portion formed on the brush formation surface is provided for the flow of moisture. According to claim 2,
The brush includes a plurality of filament yarns,
The brush conductive portion is composed of at least one conductive filament yarn containing a conductive material among the plurality of filament yarns, or a microcurrent generating brush structure, characterized in that the conductive material is laminated and formed on the lower part of the plurality of filament yarns. According to claim 2,
The brush is a microcurrent generating brush structure, characterized in that it comprises a hollow protrusion formed with a hollow portion therein. According to claim 2,
The brush includes a shape memory alloy yarn or an optical fiber yarn,
The brush base is a microcurrent generating brush structure, characterized in that provided with a light source for transmitting light to the optical fiber thread. According to claim 1,
The brush is formed of a pressure protrusion having flexibility,
The pressing protrusion is a microcurrent generating brush structure, characterized in that the antibacterial pressing portion is formed on the outer surface. According to claim 7,
Permanent magnets for projections installed on the pressing projections; and
Further comprising a permanent magnet for applying a repulsive force installed on the brush base so that the pressing protrusion stands up by applying a repulsive force to the permanent magnet for the protrusion,
The microcurrent generating brush structure, characterized in that the antibacterial pressure portion is composed of a metal coating layer stacked on top of the pressing protrusion or a metal cap coupled to the top of the protrusion. According to claim 1,
The current generating conductive part includes a positive electrode portion formed on the brush base to be electrically connected to some of the plurality of brushes, and a negative electrode portion formed on the brush base to be electrically connected to the remaining portion of the plurality of brushes. Microcurrent generating brush structure, characterized in that. According to claim 1,
A low-frequency generator that generates and applies low-frequency current, a bio-signal measurement module that can measure bio-signals of the human body, a temperature sensor that can detect the temperature of the human body, and a vibrator built-in to generate and apply vibration force. A module, a moisture sensor installed to detect moisture, an anion generator that generates negative ions, a wireless communication module for communication with an external terminal, a display unit that displays information, a camera that performs an imaging operation, and an audio signal output Microcurrent generating brush structure, characterized in that at least one of a speaker, a blowing fan forcibly performing a blowing action, a heating wire installed to perform a heating action, and a light source for generating light for human body stimulation are configured on the brush base . For toothbrushes,
A toothbrush body provided with a handle that a user can hold on one side; and
Including; toothbrush head formed on the other side of the toothbrush body,
The toothbrush head has a microcurrent generating brush structure, characterized in that it comprises the microcurrent generating brush structure of any one of claims 1 to 10. In the hair cap seated on the head of the human body and having a brush structure,
The brush structure is a hair cap with a microcurrent generating brush structure, characterized in that composed of the microcurrent generating brush structure of any one of claims 1 to 10. According to claim 12,
The hair cap includes a cap base to which the microcurrent generating brush structure is detached, a first binding member formed on the microcurrent generating brush structure, and a second binding member formed on the cap base to bind and separate the first binding member. A hair cap having a microcurrent generating brush structure comprising a binding member. In the mask seated on the head of the human body and having a brush structure,
The brush structure is a mask having a microcurrent generating brush structure, characterized in that composed of the microcurrent generating brush structure of any one of claims 1 to 10.

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