JP2011078524A - Body worn implement - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To prevent the breakage of a permanent magnet and the damage of a skin surface by the permanent magnet by preventing the permanent magnet configuring a fastener from being exposed to the outside. <P>SOLUTION: A bracelet 1 includes a worn implement body 2 comprising a belt material having a length corresponding to the circumference of a wrist and two permanent magnets 3A and 3B equipped in the state of being confined respectively inside both end parts of the worn implement body 2. For the respective permanent magnets 3A and 3B, the directions of respective magnetic poles N and S are arranged in the same direction orthogonal to the length direction of the worn implement body 2 to be magnetically attracted to each other when both end parts of the worn implement body 2 are piled up in an abutted state. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

  The present invention relates to a body wearing device that is worn by being wound around an appropriate body such as a wrist, an arm, an ankle, a leg, a head, a neck, and a torso, such as a bracelet, a belt, a headband, and a supporter.

  For example, a bracelet is configured such that a linear body or a belt-like body is wound around a wrist and both ends are connected by a fastener. In the conventional connection structure using fasteners, there is a problem that the ring size (diameter) is fixed and lacks flexibility. To solve this problem, a so-called free size bracelet has been proposed recently (for example, Patent Documents). 1).

Utility Model Registration No. 3042173

  The bracelet described in Patent Document 1 is formed by alternately inserting a plurality of adsorbers made of permanent magnets and a plurality of spacers made of non-magnetic material over an entire length of an elastic wire held in a coil shape. It is. Each adsorber functions as a fastener, and when the bracelet is wrapped around the wrist, the adsorbents lined up along the axial direction of the wire are adsorbed by magnetic force to form a spiral ring with a desired diameter. .

However, in the bracelet having the above-described configuration, the adsorbent and the spacer are exposed to the outside, and when they collide with each other or rub against each other, the appearance or the surface plating is peeled off and the appearance is deteriorated. In addition, the surface of the skin may be damaged by the adsorbent or the spacer.
In addition, since a large number of adsorbents and spacers are arranged at equal intervals and over the entire length, there is a problem that the number of parts increases, resulting in an increase in cost and an increase in overall weight. In addition, the ring size (diameter) can only be adjusted stepwise in length units corresponding to the array spacing of the adsorbents, making fine adjustment difficult and wearing in close contact with the wrist surface. Is difficult.

It is an object of the present invention to provide a body wearing tool that prevents damage to the permanent magnet and damage to the skin surface due to the permanent magnet by making the permanent magnet that constitutes the fastener not exposed to the outside.
Another object of the present invention is to provide a lightweight and inexpensive body wearing device that allows continuous size adjustment with a small number of permanent magnets.

  The body wearing device according to the present invention is in a state where it is confined inside the wearing device main body made of a band material or a string material having a length corresponding to the circumferential length of the wearing portion of the body, and the both ends of the wearing device main body. It consists of two permanent magnets that are deployed. Each permanent magnet has the same direction in which the orientations of the N and S magnetic poles are perpendicular to the length direction of the mounting tool body so that they are magnetically attracted to each other when both ends of the mounting tool body are overlapped in a butted state. Or are configured so that they can be aligned.

  In order to wear the above-mentioned body wearing tool, the body part is wound around the body wearing part, and then both ends of the body part are overlapped in a butted state. In this case, in the case where the directions of the N and S magnetic poles of the permanent magnets at both ends are aligned in the same direction orthogonal to the length direction of the mounting tool body, the both ends of the mounting tool body are butted. As a result, the permanent magnets are attracted to each other and the ring shape is maintained. On the other hand, in the configuration in which the directions of the N and S magnetic poles of the permanent magnets at both ends can be aligned in the same direction orthogonal to the length direction of the mounting tool body, the N of the permanent magnets at both ends is arranged. , S are aligned in the same direction orthogonal to the length direction of the mounting tool body and are overlapped in a butted state, whereby the permanent magnets are magnetically attracted to each other and the ring shape is maintained. In any embodiment, each permanent magnet is confined inside the both ends of the mounting tool body and is not exposed to the outside, so that the permanent magnet may be damaged or worn by collision or rubbing between the permanent magnets. There is no risk of damaging the person's skin.

  In the above configuration of the present invention, the “body wearing part” is, for example, a wrist for a bracelet, a torso for a belt, a head for a headband, a wrist, an arm, an ankle, a leg for a supporter, etc. . The form of the “two permanent magnets” is not limited. For example, in the case of a plate-like permanent magnet, the two permanent magnets are magnetized so that the N and S magnetic poles appear on the front and back sides. It can be incorporated into the interior of the mounting tool body in a state where the orientation is aligned in the same direction perpendicular to the length direction of the body mounting body. For example, in the case of a short-axis permanent magnet, the N and S magnetic poles are magnetized so as to appear on one side and the other side, and the direction of the two magnetic poles is the length of the body wearer body. It can be incorporated into the mounting tool body so that it can be aligned in the same direction perpendicular to the direction.

In a preferred embodiment of the present invention, at least one of the permanent magnets is confined inside the end portion of the mounting tool main body so as to be movable in the length direction.
According to this embodiment, the ring size (diameter) can be adjusted by moving the permanent magnet in the length direction at one or both ends of the mounting tool main body.

  In a preferred embodiment of the present invention, the mounting tool body is formed of fibers to which a powder of a material selected from a semiconductor material such as germanium and silicon, a permanent magnet, and a negative ion generating material is attached.

According to this embodiment, a semiconductor material such as germanium and silicon, a permanent magnet, and a negative ion generating material exert a predetermined physical action on the body and effectively function to promote health. Neodymium and ferrite are used as the permanent magnet powder, and tourmaline called tourmaline is generally used as the negative ion generating material powder.
In order to attach these material powders to the fibers, various methods can be employed, for example, kneading the material powders into fiber raw materials such as synthetic fibers and spinning them. Polyester, nylon, acrylic, vinylon, or the like can be used as the synthetic fiber, but in addition to synthetic fibers, regenerated fibers such as rayon, and semi-synthetic fibers such as acetate can also be used.

In a preferred embodiment of the present invention, the mounting tool main body is formed of a fabric that can be expanded and contracted in the length direction.
According to this embodiment, since the mounting tool main body expands and contracts in the length direction, an appropriate tightening force is applied to the mounting portion of the body, the holding force is increased, and positional displacement is prevented. In particular, when the present invention is applied to a supporter, skeletal muscles and tendons can be tightened.

  In another body wearing device according to the present invention, two second permanent magnets are confined in the middle of the longitudinal direction of the wearing device body in a state in which each of the second permanent magnets can move in the length direction. The permanent magnets 2 are configured such that the orientation of the magnetic poles is orthogonal to the length direction of the mounting tool body and is aligned with the orientation of the magnetic poles of the permanent magnets at both end positions. It is made up of.

  When the above-mentioned body wearing tool is attached to a body attachment site, one permanent magnet at one end is formed into a ring shape by magnetically adsorbing different magnetic poles, and the permanent magnet at the other end is also permanently attached. The magnet is made spiral or spiral by magnetically attracting different magnetic poles to the other second permanent magnet. In this case, the second permanent magnet to be magnetically attracted to the permanent magnet at one end is moved along the mounting tool body to adjust to a desired ring size (diameter), and then the permanent magnet at the other end is magnetically attracted. The second permanent magnet is moved along the mounting tool main body to generate a spiral or spiral that matches the ring size (diameter).

  In a preferred embodiment of the present invention, a chip of a material selected from a semiconductor material such as germanium and silicon, a permanent magnet, and a negative ion generating material or heat generation is provided in an intermediate portion in the longitudinal direction of the mounting tool body. The member is confined in a state where it can be inserted or removed, or in a state where it cannot be removed.

  According to this embodiment, a chip of a material selected from a semiconductor material such as germanium and silicon, a permanent magnet, and a negative ion generating material exerts a predetermined physical action on the body, or the heat generating member heats the body. It works to effectively improve health.

According to the present invention, since the permanent magnet constituting the fastener is not exposed to the outside in a state of being confined inside the mounting tool body, the permanent magnet can be prevented from being damaged or the skin surface being damaged by the permanent magnet.
Further, in a preferred embodiment, any permanent magnet is confined inside the mounting tool body in a state in which the permanent magnet can be moved in the length direction, so that the ring size is continuously adjusted by moving the permanent magnet. can do. In addition, since the size can be adjusted with a small number of permanent magnets, the number of parts can be reduced, the cost is reduced, and the overall weight is not increased. In addition, since the size can be continuously adjusted, it can be worn so as to fit the proper body position.

It is the top view which abbreviate | omitted the length central part and showed one Example of this invention. It is the front view which fractured | ruptured a part which shows the state with which the Example of FIG. 1 was mounted | worn to the wrist. It is the front view which fractured | ruptured a part which shows the state which clamp | tightened the Example of FIG. It is the top view which abbreviate | omitted and showed the length center part of the other Example. It is sectional drawing which follows the AA line of FIG. It is the front view which abbreviate | omitted the length center part and showed the modification of the Example of FIG. It is the top view which abbreviate | omitted and showed the length center part of the other Example. It is the top view which abbreviate | omitted and shown the other Example abbreviate | omitting the length center part. It is the top view which abbreviate | omitted and showed the length center part of the other Example. It is a front view which shows the state with which the Example of FIG. 9 was mounted | worn to the wrist. It is sectional drawing which abbreviate | omitted and showed the length center part of the other Example. It is a perspective view which shows the state with which the Example of FIG. 11 was mounted | worn to the wrist. It is sectional drawing which follows the BB line of FIG.

  1 and 2 show the appearance and configuration of a bracelet 1 that is one embodiment of the present invention. The bracelet 1 in the illustrated example has a belt-like mounting tool body 2 wound around the wrist 9 and two pieces for holding the mounting tool body 2 wound around the wrist 9 that are respectively disposed at both ends of the mounting tool body 2. Disk-shaped permanent magnets 3A and 3B. The length of the mounting tool body 2 is set so that both ends overlap each other in a butted state while being wound around the outer periphery of the wrist 9 with a margin.

  The mounting tool body 2 of this embodiment is formed by using a soft cloth having flexibility and stretchability made of synthetic fibers to which germanium powder is attached. One long fabric with a constant width over the entire length is folded back at the center of the length and overlapped, and both the top and bottom edges of the upper and lower fabrics are braided with thread so that a sealed gap 4 is formed inside ing. In FIG. 1, reference numerals 21 to 23 denote sewing parts sewn with a thread, and reference numeral 26 denotes a cloth folding part. This synthetic fiber fabric can be obtained by kneading and spinning germanium powder in a synthetic fiber material such as polyester. In addition, as a material for promoting health to be attached to the fiber, silicon or other semiconductor substance powder, permanent magnet, negative ion generating substance powder, or the like can be used instead of germanium powder.

The permanent magnets 3A and 3B are confined inside the both ends of the mounting tool main body 2 so as to be movable in the gap 4 by a certain distance La and Lb in the length direction. The distance that each permanent magnet 3A, 3B can move in the length direction, that is, the passage length, is set by sewing portions 24, 25 in which upper and lower fabrics are sewn with threads.
The internal gap 4 constitutes the movement paths 4a and 4b of the permanent magnets 3A and 3B, and the path width D is set to a value slightly larger than the diameter of the permanent magnets 3A and 3B. The permanent magnets 3A and 3B move in the movement passages 4a and 4b, but cannot easily be turned upside down in the passages, so the directions of the N and S magnetic poles 31 and 32 described later do not change.

  Each permanent magnet 3 </ b> A, 3 </ b> B is a thin plate-like disk, and is magnetized such that the front and back surfaces are N and S magnetic poles 31, 32. The orientations of the N and S magnetic poles 31 and 32 of the permanent magnets 3A and 3B are in the length direction of the mounting tool body 2 so that the both ends of the mounting tool body 2 are overlapped in a butted state. Are aligned in the same direction perpendicular to. When the permanent magnets 3A and 3B are magnetically attracted, the upper permanent magnets 3A are held when they are pulled in the direction of the arrow shown in FIG. The magnetic strengths of the magnetic poles 31 and 32 are set so as to move in the movement path 4a while being magnetically attracted to the lower permanent magnet 3B. In the state shown in FIG. 3, the ring size is reduced, and the bracelet 1 is in close contact with the outer peripheral surface of the wrist 9 and tightens the wrist 9 appropriately.

4 and 5 show another embodiment of the bracelet 1. In the example shown in the figure, both ends of a single long cloth with a constant width are folded back and overlapped, and both ends and tip edges of each folded portion are sewn with a thread, and the gap sealed inside 4 is formed. In the figure, reference numerals 21, 22, 24, and 25 denote sewing parts obtained by sewing upper and lower fabrics with a thread.
The permanent magnets 3A and 3B are confined inside the both ends of the mounting tool body 2 in a state in which the permanent magnets 3A and 3B can move in the gap 4 by a certain distance La and Lb in the length direction. The internal gap 4 constitutes the movement paths 4a and 4b of the permanent magnets 3A and 3B, and the path lengths of the movement paths 4a and 4b, that is, the movable distances of the permanent magnets 3A and 3B are turned back. The portions 26 and 27 and the sewing portions 24 and 25 are set.

  FIG. 6 shows a structure in which a plurality of disk-shaped chips 5 are attached to the inner surface of the central portion of the length of the mounting tool body 2 in the above-described embodiment of FIGS. Each chip 5 is obtained by baking and hardening germanium powder, but a chip made of another semiconductor material such as silicon, a permanent magnet, or a negative ion generating material may be used.

  In addition, although each above-mentioned Example and each Example shown below are examples comprised by applying this invention to a bracelet, by selecting the width | variety and length of the mounting tool main body 2 suitably, a belt, Headbands, supporters, etc. can be configured.

  In the embodiment shown in FIG. 7, as in the embodiment of FIG. 1, a single long cloth having a constant width over the entire length is folded back at the center of the length, and a gap 4 sealed inside is formed. In this way, both the side edges and the leading edge of the upper and lower fabrics are braided with yarns to form the sewing parts 21, 22, and 23, respectively. The permanent magnet 3 </ b> A is confined in the gap 4 inside one end of the mounting tool body 2 so as not to move. A permanent magnet 3B is confined inside the other end of the mounting tool body 2 in a state in which the permanent magnet 3B can move in the gap 4 by a certain distance Lb in the length direction. A space 40 a at one end confined in a state where the permanent magnet 3 </ b> A is constrained is formed between the folded-back portion 26 and the sewing portion 24. The gap 4 inside the other end constitutes a moving passage 4b of the permanent magnet 3B, and the passage length is set by the sewing portions 23 and 25.

  In the embodiment shown in FIG. 8, the permanent magnets 3A and 3B are confined at both ends of the mounting tool body 2 in a state where they can move by a predetermined distance La and Lb in the length direction. The gap constitutes the moving passages 4a and 4b of the permanent magnets 3A and 3B, and the length of each passage is set between the folded portion 26 and the sewing portion 24 and between the sewing portions 23 and 25. At the center of the length of the mounting tool main body 2, there is a gap 4c that is partitioned from the movement paths 4a, 4b of the permanent magnets 3A, 3B by the sewing parts 24, 25. An opening 8 leading to 4c is formed. A disk-shaped chip 6 or a heat generating member made of a semiconductor material such as germanium or silicon, a permanent magnet, or a negative ion generating material can be taken in and out of the gap 4c from the opening 8. The chip 6 is not necessarily provided so as to be able to be taken in and out, and may be confined in the gap 4c.

  In the embodiment shown in FIGS. 9 and 10, the first permanent magnets 3 </ b> A and 3 </ b> B are confined so as not to move inside the both ends of the mounting tool body 2, and the permanent magnets 3 </ b> A and 3 </ b> B are confined. Next to the spaces 40a and 40b in which the second permanent magnets 7A and 7B are confined, moving passages 41a and 41b are formed in which the second permanent magnets 7A and 7B are confined in a state in which the second permanent magnets 7A and 7B can move by a predetermined distance Lc and Ld. is there. Spaces 40a and 40b for confining the first permanent magnets 3A and 3B in a constrained state are formed between the folded portion 26 and the sewing portion 24 and between the sewing portions 23 and 25, and the second permanent magnets 7A and 7B. The movement passages 41a and 41b which are movable in the length direction are formed between the sewing parts 24 and 28 and in the sewing parts 25 and 29.

  Each of the first permanent magnets 3A, 3B and the second permanent magnets 7A, 7B is a thin plate-like disk, and the front and back surfaces are N, S magnetic poles 31, 32, 71, 72. Magnetized. In the first permanent magnets 3 </ b> A and 3 </ b> B, the directions of the N and S magnetic poles 31 and 32 are aligned in the same direction orthogonal to the length direction of the mounting tool body 2. In the second permanent magnets 7A and 7B, the directions of the N and S magnetic poles 71 and 72 are orthogonal to the length direction of the mounting tool body 2 and are aligned with the magnetic poles of the first permanent magnets 3A and 3B. It has been.

  In each of the above embodiments, the mounting tool main body 2 has a band shape, and each permanent magnet 3A, 3B, 7A, 7B has a disk shape, but is not limited to this, and FIGS. As in the embodiment shown, the mounting tool main body 2 may have a string shape, and each permanent magnet 3A, 3B, 7A, 7B may have a short shaft shape or a cylindrical shape. The mounting tool body 2 is configured using a tube made of synthetic resin or the like with both ends sealed.

  In this embodiment, the first permanent magnets 3A and 3B are confined so as not to move in the gap 4 inside the both ends of the mounting tool body 2, and the permanent magnets 3A and 3B are confined. Adjacent to the spaces 40a and 40b, moving passages 41a and 41b are formed in which the second permanent magnets 7A and 7B are confined in a state in which the second permanent magnets 7A and 7B can move in the gap 4 by a certain distance Lc and Ld. Spaces 40a and 40b in which the first permanent magnets 3A and 3B are confined are formed between the sealed portions at both ends and the sewn portions 24 and 25, respectively, and extend in the length direction of the second permanent magnets 7A and 7B. The movable movement paths 41a and 41b are formed between the sewing parts 24 and 28 and between the sewing parts 25 and 29, respectively. Each permanent magnet 3A, 3B, 7A, 7B is a short shaft body having the same shape and the same size, and is magnetized such that one side faces N magnetic poles 31 and 71 and the other side faces S magnetic poles 32 and 72, respectively. Has been.

  One second permanent magnet 7B is provided in the first permanent magnet 3A at one end, and the other second permanent magnet 7A is provided in the first permanent magnet 3B at the other end. Different magnetic poles are magnetically attracted with the magnetic poles aligned in the same direction. The gap 4 inside the mounting tool body 2 has a circular cross-sectional shape along the radial direction, and the first and second permanent magnets 3A, 3B, 7A, and 7B can rotate in the gap 4. Therefore, it is possible to align the directions of the N and S magnetic poles 71 and 72 of the second permanent magnets 7A and 7B with the directions of the N and S magnetic poles 31 and 32 of the first permanent magnets 3A and 3B. is there.

  In order to wear the bracelet 1 shown in FIGS. 1 to 8 described above, after the mounting tool body 2 is wound around the wrist 9, both ends of the mounting tool body 2 are overlapped in a butted state. In this case, since the directions of the N and S magnetic poles 31 and 32 of the permanent magnets 3A and 3B at both ends are aligned in the same direction perpendicular to the length direction of the mounting tool body 2, the mounting tool body By overlapping the two end portions in a butted state, the permanent magnets 3A and 3B are magnetically attracted to each other and the ring shape is maintained.

In any of the embodiments, at least one of the permanent magnets 3A and 3B is confined inside the end portion of the wearing tool body 2 in a state of being movable in the length direction. The ring size (diameter) can be adjusted by moving the magnets in the length direction of the moving passages 4a and 4b.
Since the permanent magnets 3A and 3B are confined inside the both ends of the mounting tool body 2 and are not exposed to the outside, the permanent magnets 3A and 3B are damaged when the permanent magnets 3A and 3B collide or rub against each other. Or damaging the wearer's skin.

In order to wear the bracelet 1 shown in FIGS. 9 to 12, one second permanent magnet 7B is formed into a ring shape by magnetically attracting different magnetic poles to the first permanent magnet 3A at one end, The first permanent magnet 3B at the other end is spirally or spirally formed by magnetically attracting different magnetic poles to the other second permanent magnet 7A. In this case, after adjusting the second permanent magnet 7B magnetically attracted to the first permanent magnet 3A at one end to the desired ring size (diameter) by moving the moving passage 41b along the mounting tool body 2, The second permanent magnet 7A that is magnetically attracted to the first permanent magnet 3B at the other end is moved along the mounting tool body 2 along the moving path 41a to generate a spiral or spiral that matches the ring size (diameter). To do.
Since the first and second permanent magnets 3A, 3B, 7A, 7B are confined inside the mounting tool body 2 and are not exposed to the outside, the permanent magnets 3A, 3B, 7A, 7B collide or rub against each other. By doing so, there is no possibility that the permanent magnets 3A, 3B, 7A, 7B are damaged or the wearer's skin is damaged.

DESCRIPTION OF SYMBOLS 1 Bracelet 2 Mounting tool main body 3A, 3B Permanent magnet 7A, 7B Second permanent magnet 31, 71 N magnetic pole 32, 72 S magnetic pole

Claims (6)

  A wearing tool body made of a band or string material having a length corresponding to the circumferential length of the wearing part of the body, and two permanent magnets arranged in a state of being confined inside both ends of the wearing tool body Each permanent magnet is oriented with respect to the length direction of the mounting tool body so that the magnetic poles of N and S are magnetically attracted to each other when both end portions of the mounting tool body are overlapped with each other. A body wearing device that is aligned in the same direction orthogonal to each other or configured so as to be aligned.   The body wearing device according to claim 1, wherein at least one of the permanent magnets is confined inside the end portion of the wearing device main body in a state of being movable in the length direction.   The body wearing device according to claim 1 or 2, wherein the wearing device body is formed of a fiber to which a powder of a material selected from a semiconductor material such as germanium and silicon, a permanent magnet, and a negative ion generating material is attached. Ingredients.   The body wearing tool according to any one of claims 1 to 3, wherein the wearing tool main body is formed of a cloth that can expand and contract in a length direction.   It is a body wearing tool described in any one of Claims 1-4, Comprising: The state in which two 2nd permanent magnets can move to a length direction inside the intermediate part of the length direction of a mounting tool main body, respectively. The second permanent magnet is or is aligned such that the direction of the magnetic pole is orthogonal to the length direction of the mounting tool body and aligned with the direction of the magnetic pole of the permanent magnet at the both end positions. A body wearing device that can be configured.   The body wearing device according to any one of claims 1 to 4, wherein a semiconductor material such as germanium and silicon, a permanent magnet, and a negative ion generating material are disposed inside an intermediate portion in a longitudinal direction of the wearing device body. A body wearing device in which a chip or a heat generating member of a material selected from the above is confined in a state where it can be inserted or removed, or in a state where it cannot be inserted or removed.

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