KR102610297B1 - Body contact apparatus provided with magnetic filed and microcurrent - Google Patents

Abstract

The disclosed content not only improves the wearer's blood circulation and relieves pain as a magnetic field is formed by a magnet inserted and coupled to the coupling hole of the main body, but also between the metal body and the metal layer laminated on the magnet and on the main body. Pain is further relieved as a microcurrent generated by the difference in ionization tendency between the first metal layer and the second metal layer laminated on the magnet or between the third metal layer laminated on the magnet and the third metal layer laminated on another magnet is provided. We present a body contact device that simultaneously provides magnetic fields and microcurrents to increase cell regeneration and activation.

Description

Body contact device that provides both magnetic field and microcurrent {BODY CONTACT APPARATUS PROVIDED WITH MAGNETIC FILED AND MICROCURRENT}

The disclosed content relates to a body contact device that can be worn, attached, or fixed to contact various body parts such as fingers, hands, toes, feet, neck, shoulders, etc.

Unless otherwise indicated herein, the material described in this section is not prior art to the claims of this application, and is not admitted to be prior art by inclusion in this section.

In general, a ring is an accessory worn on a finger. Conventional rings have been used only as simple accessories, but recently, as interest in health has increased, rings that use the magnetic field of a magnet or far-infrared rays emitted from jade, germanium, ceramics, etc. to improve blood circulation and promote health have come into the spotlight. is receiving.

In particular, in the case of rings using magnets, they are manufactured by assembling a magnet into a ring body processed into a ring shape using a material such as metal or jade.

As an example of such a magnetic ring, in Republic of Korea Patent Publication No. 10-2015-0007470 (published on January 21, 2015), an installation groove into which a magnet is inserted and installed is formed continuously on the inner periphery of the ring, and the inside of the installation groove is formed continuously. A magnetic ring is disclosed, wherein a plurality of magnets are arranged at equal intervals, and epoxy is injected into the installation groove and fixedly coupled with magnets.

In addition, in Korean Utility Model Publication No. 20-2010-0008449 (published on August 26, 2010), a ring-shaped ring body inserted into the finger is formed as one piece by injection molding, and a plurality of rings are formed along the circumference in front of the ring body. A magnet-embedded health ring is disclosed, wherein an assembly hole is formed at an equal angle position, and bar-shaped magnets forming N and S poles in the front and rear directions are inserted into the assembly hole in a certain direction to be assembled.

Additionally, Republic of Korea Utility Model Publication No. 20-1995-0016394 (published on July 20, 1995) discloses a magnetic ring with two built-in magnets, with each magnet placed on a blood vessel of the finger.

However, in the case of conventional magnetic rings, they only provide the effect of improving blood circulation and relieving pain through the magnetic field generated by the magnet, so there is a problem that there is a limit to relieving pain and improving the health of the wearer.

1. Republic of Korea Patent Publication No. 10-2015-0007470 (published on January 21, 2015) 2. Republic of Korea Utility Model Publication No. 20-2010-0008449 (published on August 26, 2010) 3. Republic of Korea Utility Model Publication No. 20-1995-0016394 (published on July 20, 1995)

The magnetic field generated by the magnet can improve the wearer's blood circulation and relieve pain, and the microcurrent generated by the difference in the ionization tendency of metal not only further relieves pain, but also increases cell regeneration and activation. We aim to provide a body contact device that simultaneously provides a magnetic field and microcurrent.

Additionally, it is not limited to the technical challenges described above, and it is obvious that other technical challenges may be derived from the description below.

The disclosed content includes a main body that is in contact with a body part, is made of metal, and has a coupling hole formed on a surface that contacts the body part, a magnet that is inserted and coupled to the coupling hole of the main body, and is laminated on the magnet and has an ionization tendency with the main body. A body contact device in which a magnetic field including a metal layer formed of a different metal and a microcurrent are simultaneously provided is presented as an example.

Additionally, the disclosed content includes a main body in contact with a body part and a coupling hole formed on a surface that contacts the body part, a magnet inserted into and coupled to the coupling hole of the main body, a first metal layer laminated on the main body, and the magnet. A body contact device including a second metal layer that is laminated and formed of a metal with a different ionization tendency from the first metal layer is presented as another embodiment.

Additionally, the disclosed content includes a main body in contact with a body part and a plurality of coupling holes formed on a surface in contact with the body part, a plurality of magnets each inserted and coupled to the coupling holes of the main body, and a body stacked on one or more of the magnets. Another embodiment presents a body contact device in which a magnetic field and a microcurrent are simultaneously provided, including a third metal layer and a fourth metal layer laminated on one or more of the magnets and formed of a metal with an ionization tendency different from that of the third metal layer. do.

According to the body contact device that simultaneously provides a magnetic field and a microcurrent according to an embodiment of the disclosed content, the wearer's blood circulation can be improved and pain relieved as the magnetic field is formed by a magnet inserted and coupled to the coupling hole of the main body. In addition, between a metal body and a metal layer laminated on a magnet, between a first metal layer laminated on the body and a second metal layer laminated on a magnet, or between a third metal layer laminated on a magnet and a third metal layer laminated on another magnet. There is an advantage in that pain can be further alleviated and cell regeneration and activation can be increased as microcurrents generated by differences in ionization tendency are provided.

The effects of the present invention are not limited to the effects mentioned above, and other effects not mentioned will be clearly understood by those skilled in the art from the description of the claims.

1 is a diagram illustrating a state of use of a body contact device in which a magnetic field and a microcurrent are simultaneously provided according to an embodiment of the disclosed content.
Figure 2 is a cross-sectional view of a body contact device in use that simultaneously provides a magnetic field and a microcurrent according to an embodiment of the disclosed content.
Figure 3 is a cross-sectional view of a body contact device in use that simultaneously provides a magnetic field and a microcurrent according to another embodiment of the disclosed content.
Figure 4 is a cross-sectional view of a body contact device in use that simultaneously provides a magnetic field and a microcurrent according to another embodiment of the disclosed content.

Hereinafter, the configuration and effects of the preferred embodiment will be examined with reference to the attached drawings. For reference, in the drawings below, each component is omitted or schematically shown for convenience and clarity, and the size of each component does not reflect the actual size. In addition, the same reference numerals refer to the same components throughout the specification, and reference numerals for the same components in individual drawings will be omitted.

Figure 1 is a state diagram of the use of a body contact device that simultaneously provides a magnetic field and a microcurrent according to an embodiment of the disclosure, and Figure 2 shows the use of a body contact device that provides a magnetic field and a microcurrent simultaneously according to an embodiment of the disclosure. This is a cross-sectional view of the state.

The body contact device 100, which simultaneously provides a magnetic field and a microcurrent according to an embodiment of the disclosed content, is in contact with a body part, is made of metal, and has a surface in contact with the body part, as shown in FIGS. 1 and 2. A main body 110 in which a coupling hole 111 is formed, a magnet 120 inserted into and coupled to the coupling hole 111 of the main body 110, and a magnet 120 stacked on the magnet 120 and having a different ionization tendency from the main body 110. It includes a metal layer 130 formed of metal.

Here, the main body 110 is worn, attached, or fixed in contact with various body parts such as fingers, hands, toes, feet, neck, shoulders, etc., and is made of metal.

The main body 110 is shown as a ring worn on the finger, but is not limited to this and may be formed as an accessory such as a bracelet worn on the wrist, a toe ring worn on the toe, an anklet worn on the ankle, or a necklace worn around the neck. For example, similar to a patch or band, it may be formed in the form of a pad that is attached or fixed to various body parts such as hands, feet, neck, shoulders, etc.

This main body 110 may be formed as a ring that can be worn on a body part, or as shown, it may be formed in the form of a ring where both ends are separated and spaced apart from each other. Additionally, the main body 110 may be formed so that the cross extension portion 113 is integrally connected to it. As shown in Figure 1, when the main body 110 is formed as a ring worn on a finger, for example, the cross extension portion 113 can extend to both sides of the joint area at the edge of the palm side.

In this main body 110, a coupling hole 111 is formed on the surface that contacts the body part. This coupling hole 111 is a part where the magnet 120, which will be described later, is inserted and fixed, and may be formed in the form of a through hole with both ends open, or, depending on the embodiment, in the form of a groove with one end open and the other end closed. It can also be formed as

The coupling holes 111 may be formed in a single number, but it is preferable that a plurality of coupling holes 111 be formed spaced apart at regular intervals along the surface in contact with the body part.

A magnet 120 is inserted and coupled to the coupling hole 111 of the aforementioned main body 110. The magnet 120 plays a role in improving the wearer's blood circulation and relieving pain through the generation of a magnetic field, and is preferably formed of a neodymium magnet with relatively strong magnetic force.

This magnet 120 may be press-fitted or adhesively fixed in the coupling hole 111 of the main body 110, but it is preferable that the magnet 120 be replaceably screwed into the coupling hole 111 of the main body 110. At this time, the coupling hole 111 of the main body 110 is formed as a female thread hole, and a male thread is machined on the outer peripheral surface of the magnet 120.

A metal layer 130 is laminated on the magnet 120 described above. The metal layer 130 induces microcurrent to flow through the human body through a difference in ionization tendency with the metal forming the main body 110, thereby not only further alleviating pain in the area, but also increasing cell regeneration and activation. It plays a role and can be laminated by various known methods such as plating or coating.

Additionally, the metal layer 130 may be formed over the entire outer surface of the magnet 120, but may also be formed only on the surface in contact with the body part.

This metal layer 130 may be formed of a metal with a higher ionization tendency than the metal forming the main body 110, or, depending on the embodiment, may be formed of a metal with a lower ionization tendency than the metal forming the main body 110. there is.

In particular, the metal layer 130 laminated on the magnet 120 is made of nickel, and the body 110 is made of a metal with a different ionization tendency from nickel, that is, a metal with a higher ionization tendency than nickel, such as aluminum, or For example, it is preferably made of a metal with a lower ionization tendency than nickel, such as gold, silver, or platinum.

In the former case, a microcurrent flows from the main body 110 to the metal layer 130 laminated on the magnet 120, thereby applying microcurrent stimulation to the relevant area. Additionally, as the main body 110 gradually oxidizes, it must be replaced with a new main body 110 when necessary.

In the latter case, a microcurrent flows from the metal layer 130 laminated on the magnet 120 to the main body 110, thereby applying microcurrent stimulation to the relevant area. Additionally, as the metal layer 130 laminated on the magnet 120 gradually oxidizes, it must be replaced with a new magnet 120 on which the metal layer 130 is laminated, if necessary.

In the case of the body contact device 100 in which a magnetic field and a microcurrent are simultaneously provided according to an embodiment of the disclosed content, a magnet 120 is inserted and coupled to the coupling hole 111 of the main body 110, as shown in FIG. 2. ) As the magnetic field is formed, the wearer's blood circulation can be improved and pain can be alleviated, as well as the difference in ionization tendency between the metal body 110 and the metal layer 130 laminated on the magnet 120. As the microcurrent generated by the device is provided, pain is further alleviated and cell regeneration and activation can be increased.

Figure 3 is a cross-sectional view of a body contact device in use that simultaneously provides a magnetic field and a microcurrent according to another embodiment of the disclosed content.

The body contact device 200, which simultaneously provides a magnetic field and a microcurrent according to another embodiment of the disclosed content, is in contact with a body part and the coupling hole 211 is in contact with the body part, as shown in FIGS. 1 and 3. The main body 210 formed on the surface, the magnet 220 inserted and coupled to the coupling hole 211 of the main body 210, the first metal layer 230 laminated on the main body 210, and the magnet 220. It includes a second metal layer 240 that is stacked and formed of a metal with a different ionization tendency from the first metal layer 230.

Here, the main body 210 is worn, attached, or fixed in contact with various body parts such as fingers, hands, toes, feet, neck, and shoulders, for example, metal, synthetic resin, wood, ceramic, and fabric. It can be manufactured from various materials such as ash.

The main body 210 is shown as a ring worn on the finger, but is not limited to this and may be formed as an accessory such as a bracelet worn on the wrist, a toe ring worn on the toe, an anklet worn on the ankle, or a necklace worn around the neck. For example, similar to a patch or band, it may be formed in the form of a pad that is attached or fixed to various body parts such as hands, feet, neck, shoulders, etc.

This main body 210 may be formed as a ring that can be worn on a body part, or as shown, it may be formed in the form of a ring where both ends are separated and spaced apart from each other. Additionally, the cross extension portion 213 may be formed to be integrally connected to the main body 210. As shown in FIG. 1, when the main body 210 is formed as, for example, a ring worn on a finger, the cross extension portion 213 can extend to both sides of the joint area at the edge of the palm.

In this main body 210, a coupling hole 211 is formed on the surface that contacts the body part. This coupling hole 211 is a part into which the magnet 220, which will be described later, is inserted and fixed, and may be formed in the form of a through hole with both ends open, or, depending on the embodiment, in the form of a groove with one end open and the other end closed. It can also be formed as

The coupling holes 211 may be formed in a single number, but it is preferable that a plurality of coupling holes 211 be formed spaced apart at regular intervals along the surface in contact with the body part.

A magnet 220 is inserted and coupled to the coupling hole 211 of the aforementioned main body 210. The magnet 220 plays a role in improving the wearer's blood circulation and relieving pain through the generation of a magnetic field, and is preferably formed of a neodymium magnet with relatively strong magnetic force.

This magnet 220 may be press-fitted or adhesively fixed in the coupling hole 211 of the main body 210, but it is preferable that the magnet 220 be replaceably screwed into the coupling hole 211 of the main body 210. At this time, the coupling hole 211 of the main body 210 is formed as a female thread hole, and a male thread is machined on the outer peripheral surface of the magnet 220.

A first metal layer 230 is laminated on the above-described main body 210, and a second metal layer 240 formed of a metal with a different ionization tendency from that of the first metal layer 230 is laminated on the above-described magnet 220.

The first metal layer 230 and the second metal layer 240 induce microcurrent to flow through the human body through a difference in ionization tendency, which not only further relieves pain in the area but also increases cell regeneration and activation. It plays a role and can be laminated by various known methods such as plating or coating.

The first metal layer 230 may be formed over the entire outer surface of the main body 210, but may also be formed only on the surface in contact with the body part. The second metal layer 240 may be formed over the entire outer surface of the magnet 220, but may also be formed only on the surface in contact with the body part.

In particular, the second metal layer 240 laminated on the magnet 220 is made of nickel, and the first metal layer 230 laminated on the body 210 is made of a metal with a different ionization tendency from nickel, that is, nickel, such as aluminum. It is preferably formed of a metal with a higher ionization tendency, or a metal with a lower ionization tendency than nickel, such as gold, silver, platinum, etc.

In the former case, a microcurrent flows from the first metal layer 230 laminated on the main body 210 to the second metal layer 240 laminated on the magnet 220, thereby applying microcurrent stimulation to the corresponding area. Additionally, as the first metal layer 230 laminated on the main body 210 is gradually oxidized, it must be replaced with a new main body 210 on which the first metal layer 230 is laminated, if necessary.

In the latter case, a microcurrent flows from the second metal layer 240 laminated on the magnet 220 to the first metal layer 230 laminated on the main body 210, thereby applying microcurrent stimulation to the relevant area. Additionally, as the second metal layer 240 laminated on the magnet 220 gradually oxidizes, it must be replaced with a new magnet 220 on which the second metal layer 240 is laminated, if necessary.

In the case of a body contact device 200 in which a magnetic field and a microcurrent are simultaneously provided according to another embodiment of the disclosed content, a magnet 220 is inserted and coupled to the coupling hole 211 of the main body 210, as shown in FIG. 3. ) As the magnetic field is formed, the wearer's blood circulation can be improved and pain can be alleviated, as well as the second metal layer 240 laminated on the magnet 220 from the first metal layer 230 laminated on the main body 210. ), pain is further alleviated and cell regeneration and activation can be increased as microcurrent generated by the difference in ionization tendency between the two is provided.

Figure 4 is a cross-sectional view of a body contact device in use that simultaneously provides a magnetic field and a microcurrent according to another embodiment of the disclosed content.

As shown in Figures 1 and 4, the body contact device 300, which simultaneously provides a magnetic field and a microcurrent according to another embodiment of the disclosed content, is in contact with a body part and has a plurality of coupling holes 311 on the body part. A main body 310 formed on the contact surface, a plurality of magnets 320 each inserted and coupled to the coupling holes 311 of the main body 310, and a third metal layer 330 laminated on one or more of the magnets 320. ) and a fourth metal layer 340 laminated on one or more of the magnets 320 and formed of a metal with a different ionization tendency from the third metal layer 330.

Here, the main body 310 is worn, attached, or fixed in contact with various body parts such as fingers, hands, toes, feet, neck, and shoulders, for example, metal, synthetic resin, wood, ceramic, and fabric. It can be manufactured from various materials such as ash.

The main body 310 is shown as a ring worn on the finger, but is not limited to this and may be formed as an accessory such as a bracelet worn on the wrist, a toe ring worn on the toe, an anklet worn on the ankle, or a necklace worn around the neck. For example, similar to a patch or band, it may be formed in the form of a pad that is attached or fixed to various body parts such as hands, feet, neck, shoulders, etc.

This main body 310 may be formed as a ring that can be worn on a body part, or as shown, it may be formed in the form of a ring where both ends are separated and spaced apart from each other. Additionally, the main body 310 may be formed so that the cross extension portion 313 is integrally connected to it. As shown in FIG. 1, when the main body 310 is formed as a ring worn on a finger, for example, the cross extension portion 313 can extend to both sides of the joint area at the edge of the palm.

In this main body 310, a plurality of coupling holes 311 are formed on the surface that contacts the body part. These multiple coupling holes 311 are parts where the magnet 320, which will be described later, is inserted and fixed, and may be formed in the form of a through hole with both ends open, or, depending on the embodiment, a groove with one end open and the other end closed. It can also be formed in the form of .

A plurality of coupling holes 311 are formed at regular intervals along the surface where two or more magnets 320 are in contact with the body part for insertion and fixation.

Magnets 320 are respectively inserted and coupled to the plurality of coupling holes 311 described above. The magnet 320 plays a role in improving the wearer's blood circulation and relieving pain through the generation of a magnetic field, and is preferably formed of a neodymium magnet with relatively strong magnetic force.

This magnet 320 may be press-fitted or adhesively fixed in the coupling hole 311 of the main body 310, but it is preferable that the magnet 320 be replaceably screwed into the coupling hole 311 of the main body 310. At this time, the coupling hole 311 of the main body 310 is formed as a female thread hole, and a male thread is machined on the outer peripheral surface of the magnet 320.

A third metal layer 330 is laminated on at least one of the above-mentioned magnets 320, and a fourth metal layer formed of a metal with a different ionization tendency from the third metal layer 330 is on at least one of the above-mentioned magnets 320. (340) is stacked.

At this time, the third metal layer 330 and the fourth metal layer 340 may be formed over the entire outer surface of the magnet 320 or only on the surface in contact with the body part. Additionally, the third metal layer 330 and the fourth metal layer 340 are preferably stacked on a plurality of magnets 320 in alternating order.

The third metal layer 330 and the fourth metal layer 340 induce microcurrent to flow through the human body through differences in ionization tendency, which not only further relieves pain in the area but also increases cell regeneration and activation. It plays a role and can be laminated by various known methods such as plating or coating.

The fourth metal layer 340 is preferably formed of a metal with a higher ionization tendency than the metal forming the third metal layer 330. However, depending on the embodiment, on the contrary, the fourth metal layer 340 may have a higher ionization tendency than the metal forming the third metal layer 330. It may also be formed from low metals.

In particular, the third metal layer 330 is formed of nickel, and the fourth metal layer 340 is formed of a metal with a different ionization tendency from nickel, that is, a metal with a higher ionization tendency than nickel, such as aluminum, or, for example, It is preferably made of a metal with a lower ionization tendency than nickel, such as gold, silver, or platinum.

In the former case, as a microcurrent flows from the fourth metal layer 340 to the third metal layer 330, microcurrent stimulation is applied to the relevant area. Additionally, as the fourth metal layer 340 is gradually oxidized, it must be replaced with a new magnet 320 on which the fourth metal layer 340 is laminated, if necessary.

In the latter case, as a microcurrent flows from the third metal layer 330 to the fourth metal layer 340, microcurrent stimulation is applied to the relevant area. Additionally, as the third metal layer 330 is gradually oxidized, it must be replaced with a new magnet 320 on which the third metal layer 330 is laminated, if necessary.

In the case of the body contact device 300 in which a magnetic field and a microcurrent are simultaneously provided according to another embodiment of the disclosed content, a magnet inserted into and coupled to the coupling hole 311 of the main body 310 as shown in FIG. 4 ( As a magnetic field is formed by 320), the wearer's blood circulation can be improved and pain can be alleviated, and a plurality of magnets 320 can be formed from the third metal layer 330 laminated on one or more of the plurality of magnets 320. As a microcurrent generated by the difference in ionization tendency between the fourth metal layers 340 laminated on one or more of the metal layers 340 is provided, pain is further alleviated and cell regeneration and activation can be increased.

Although preferred embodiments of the present invention have been described above with reference to the accompanying drawings, the embodiments described in this specification and the configuration shown in the drawings are only one of the most preferred embodiments of the present invention and do not represent the entire technical idea of the present invention. Since this is not the case, it should be understood that there may be various equivalents and modifications that can replace them at the time of filing this application. Therefore, the embodiments described above should be understood in all respects as illustrative and not restrictive, and the scope of the present invention is indicated by the claims described later rather than the detailed description, and the meaning and scope of the claims and their All changes or modified forms derived from the equivalent concept should be construed as falling within the scope of the present invention.

100, 200, 300: Body contact device that provides magnetic field and microcurrent simultaneously
110, 210, 310: main body
111, 211, 311: coupling hole
113, 213, 313: Cross extension part
120, 220, 320: Magnet
130: metal layer
230: first metal layer
240: second metal layer
330: third metal layer
340: fourth metal layer

Claims (12)

A main body that is in contact with a body part, is made of metal, and has a coupling hole formed on a surface that contacts the body part;
A magnet inserted into and coupled to a coupling hole of the main body; and
It includes a metal layer laminated on the magnet and formed of a metal with an ionization tendency different from that of the main body,
The main body is formed as a ring that can be worn on a body part, or is formed as a ring with both ends separated and spaced apart from each other, and the main body is optionally provided with a cross extension part,
A body contact device in which a magnetic field and a microcurrent are provided simultaneously, wherein the metal layer laminated on the magnet is made of nickel and the body is made of a metal with an ionization tendency different from nickel. delete delete delete A main body that is in contact with a body part and a coupling hole is formed on a surface that is in contact with the body part;
A magnet inserted into and coupled to a coupling hole of the main body;
a first metal layer laminated on the main body; and
It includes a second metal layer laminated on the magnet and formed of a metal having an ionization tendency different from that of the first metal layer,
The main body is formed as a ring that can be worn on a body part, or is formed as a ring with both ends separated and spaced apart from each other, and the main body is optionally provided with a cross extension part,
A body contact device in which a magnetic field and a microcurrent are simultaneously provided, wherein the metal layer laminated on the magnet is formed of nickel, and the first metal layer laminated on the main body is formed of a metal with an ionization tendency different from nickel. delete delete delete a main body that is in contact with a body part and has a plurality of coupling holes formed on a surface that is in contact with the body part;
A plurality of magnets each inserted into the coupling hole of the main body;
a third metal layer laminated on one or more of the magnets; and
a fourth metal layer laminated on one or more of the magnets and formed of a metal with an ionization tendency different from that of the third metal layer;
The main body is formed as a ring that can be worn on a body part, or is formed as a ring with both ends separated and spaced apart from each other, and the main body is optionally provided with a cross extension part,
The third metal layer and the fourth metal layer are stacked on the plurality of magnets in alternating order, wherein the third metal layer is made of nickel and the fourth metal layer is made of a metal whose ionization tendency is different from nickel. A body contact device that simultaneously provides a magnetic field and microcurrent. delete delete delete

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