JP2016171982A - Warmer - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a warmer that is fit to all regions of a human body by adopting a simple configuration and structure and can effectively transmit warmth, and also is used as a moxa unit being convenient and combining portability.SOLUTION: A warmer of the present invention is characterized by comprising: an outer tubular body using a moxa material such as the moxa burnt as a heat source; an inner support stored inside of the outer tubular body and for supporting the moxa material, or an inner tubular body with the moxa material inserted and fitted therein; a cylindrical support member inserted and fitted to the tip part of the outer tubular body or a step portion of the outer wall near to the tip part of the outer tubular body through a first coil spring; and a pressing part projectingly provided with a perforated heat radiator having multiple heat radiation small holes in the tip part of the cylindrical support member. The pressing part is integrated in the cylindrical support member, and multiple holes for performing heat dispersion or intake and exhaust of air are formed around the cylindrical support member.SELECTED DRAWING: Figure 1

Description

  The present invention relates to a heater used for burning a firewood material such as prickly grass as a heat source, and performing treatment using the thermal effect of the heat of combustion of the firewood material.

  2. Description of the Related Art Conventionally, as an acupuncture therapy, acupuncture points are heated and stimulated by putting a firewood material such as mogusa in a metal container or the like and burning it. In addition, instead of using a cage material such as mogusa, the acupuncture point is also thermally stimulated by a method using an electric heater. The method using an electric heater has the advantage that it is easy to handle because it does not require the use or filling of mogusa or the like, and it is possible to obtain a constant heat generation temperature and there is no fear of heating. However, for the need to obtain a relaxing effect by the scent of mogusa and an effect of adjusting the autonomic nerves and hormones by the components contained in the moss, a method of burning firewood such as moss is used.

  Various methods have been proposed as a warmer by burning firewood such as mogusa (see, for example, Patent Documents 1 to 3).

  In Patent Document 1, as a first conventional example, a heat radiating body having a large number of small heat radiating holes is fitted to the front end side of a metal outer cylinder in FIG. 5, and an air hole is provided at the rear end of the cylinder. A warmer having a structure for fitting a cylindrical plug having the same is disclosed. In the above-mentioned Patent Document 1, the first conventional example of the warm water heater “has a sudden contact with the heated radiator when the part of the human body is changed. In order to solve the problem that `` there is a problem '', the bowl-shaped radiator that protrudes forward from the front end of the gripping part, the rear end portion is fitted to the outer surface of the rear end of the radiator, and the front end is forward of the radiator. There has been proposed a warming apparatus having a heat radiating portion including a stretchy helical spring and a cloth body attached to the front end of the helical spring.

  In Patent Document 2, a coil spring (container) supported by an inner cylindrical body via a support screw, a wire mesh (tip support member) having a vent, and a distal end side opening of the outer cylindrical body are projected. A thermal coil spring (transmission member), a pressing member attached to the tip of the coil spring and having a round hole as a vent in the center of the bottom, and a vent attached to the rear end opening of the outer cylinder state There has been proposed a hot water heater having a lid. In the warming device disclosed in Patent Document 2, a pressing member applied to the skin of a human body is attached to the tip of the coil spring via a coil spring (heat transfer member) disposed at a position surrounding the saddle material from the wire mesh (tip support member). It has a structure to be attached, and heat generated from the brazing material can be sufficiently transmitted to the pressing member, and the pressing portion is warmed in a short time.

  Further, in Patent Document 3, an outer cylinder, an inner cylinder that rotates freely inside the outer cylinder, and an elastic clamping mover that moves freely while sandwiching one of the bar cords inside the inner cylinder. A warming tool comprising a larger number has been proposed. In the warming tool described in Patent Document 3, when the knob on the outer end of the inner cylinder is turned, the two protrusions of the moving element turn along the spiral groove groove on the inner periphery of the outer cylinder, and strike the inner cylinder. It has a function of moving the extracted two guide grooves straight forward or backward, and the position of the ignition heat generating part of the hot rod sticker relative to the pot of the human body can be freely adjusted.

JP 2000-308668 A JP 2006-333881 A Japanese Utility Model Publication No. 62-152738

  As a heating device (or heating device) that uses burnt firewood as a heat source, it can be used safely without the risk of burns or fire, and it can be used with any part of the human body and efficiently uses heat. What can be communicated appropriately is required. In addition, it is desirable to have a simple configuration and structure so that it is easy to use and has portability.

  Although the first conventional example described in Patent Document 1 has a heat radiator that is formed with a convex end and can be contacted in an oblique direction, the heat radiator is fixed from the heating portion of the moxa. Due to the structure, it is difficult to control the heat generation temperature and heat loss increases, and there is a risk of burns and the like when the radiator is heated excessively. For this reason, Patent Document 1 proposes a warming device including a cloth body attached to the front end of a helical spring. However, this hot water heater is used to radiate heat generated by the burning of stick moxa to a human body part, impregnate the cloth body with a desired chemical solution, and evaporate the chemical solution by heating. Therefore, the configuration and the structure are different from those of a warmer that can obtain a desired thermal effect only by burning firewood such as mogusa. In addition, the heating device proposed in Patent Document 1 requires not only an extra member such as a metal net and a cloth body, but also the cloth body is attached to the tip between the heat radiating body and the protective cylinder. Since it is the structure which mounts a helical spring, it cannot be said that a structure and structure are simple, and there existed a problem that it was inferior to usability and portability. In addition, it is necessary to perform complicated processes such as mounting and fixing the helical spring and the cloth body in order to manufacture this warming device.

  Although the heating device described in Patent Document 2 can sufficiently transmit heat generated from the brazing material to the pressing member by utilizing elastic deformation of the coil spring, etc., not only the attachment of the wire mesh, It is necessary to stick a contact member between the coil spring and the pressing member, and arrange each member so that the coil spring, the contact member, and the pressing member are in contact with each other. Further, a coil spring (accommodating body) provided with a gap between the inner peripheral surface of the inner cylindrical body accommodated in the outer cylindrical body is also supported by the inner cylindrical body via a support screw. . Therefore, this hot water heater has a lot of components and a slightly complicated structure. Furthermore, in the manufacture of a hot water heater, it is necessary to carry out complicated steps such as attachment of the container and bonding of the contact member with high accuracy, requiring skill in the work, and obtaining an inexpensive product. It was difficult.

  In addition, the warming device described in Patent Document 3 has means that can freely adjust the position of the stick moxa, while the skin contact portion has a coil-shaped gap in order to obtain effects as heat insulation and an air inlet. Only the structure in which is formed is disclosed. However, this structure of the skin contact portion has a problem that it is difficult to efficiently and sufficiently transfer the heat generated from the stick moxa material to the skin contact portion. In addition, since the means for moving the rod moxa back and forth steplessly includes an elastic clamping mover and an inner cylinder into which a pair of guide grooves are cut, the configuration and structure are complicated.

  The present invention has been made to solve such a problem, and for a hot water heater that uses heat generated from the burning of moxa as a heat source of warm heat, the distance between the pressing portion and the burning portion of the firewood is freely adjusted. By fundamentally reviewing the method and means that can be used, and the structure and shape of the pressing part and its support member, by adopting a new configuration, structure and shape that is simpler than conventional hot water heaters, An object of the present invention is to provide a warmer that can be used as a warmer that is suitable for any part of the human body and not only can efficiently transmit heat, but also is easy to use and has portability.

  The inventor has a cylindrical support member integrated with the pressing portion, a means for inserting the cylindrical support member into an outer cylindrical body corresponding to the grip portion via a coil spring, and the pressing portion and the cylindrical support member, respectively. It has been found that the above-mentioned problems can be solved by adopting a structure and shape provided with a plurality of small heat dissipation holes for heat transfer and a plurality of holes for heat dissipation or air ventilation.

That is, the configuration of the present invention is as follows.
[1] The present invention is a heater using the burnt firewood as a heat source, and is housed inside the outer tubular body and the outer tubular body, and is supported inside for supporting the firewood. The inner cylindrical body for inserting the body or the saddle member, and the stepped portion provided on the outer wall or the inner wall near the distal end portion of the outer cylindrical body and the distal end portion of the outer cylindrical body. A cylindrical support member inserted through a coil spring, and a pressing portion provided with a perforated heat radiator having a plurality of heat dissipation small holes at the front end portion of the front cylindrical support member. The portion is integrated with the cylindrical support member, and a plurality of holes are formed around the cylindrical support member to dissipate heat or to suck and discharge air. Provide a bowl.
[2] In the present invention, the cylindrical support member may be configured such that the first end portion of the outer cylindrical body and the stepped portion provided on the outer wall or the inner wall near the distal end portion of the outer cylindrical body are the first portion. The heater according to the above [1], comprising one or more stopper means for fixing the outer cylindrical body at a desired position after being inserted through a coil spring.
[3] In the present invention, a step portion is provided on a peripheral outer wall of a portion near the tip of the outer cylindrical body, and a part of the stopper means is brought into contact with the step portion so that the cylindrical support member is moved to the outer side. The heater according to [2], wherein the heater is securely fixed to a cylindrical body.
[4] The present invention according to any one of [1] to [3], wherein the inner support includes a protrusion having a needle-like body formed on a cross-section of a tip of the inner support that supports the saddle member. A heater according to any one of the above is provided.
[5] The present invention provides a groove or hole in which a bundling member is fitted to all or part of the outer peripheral surface of the boundary between the cylindrical support member and the pressing portion or the vicinity of the tip of the cylindrical support member. Is provided, The heater according to any one of the above [1] to [4] is provided.
[6] The present invention includes a movement operation means for moving the inner support body or the inner cylindrical body to a desired position inside the outer cylindrical body, and the moving distance of the inner support body or the inner cylindrical body is increased. The heater according to any one of [1] to [5], wherein adjustment is performed from the outside of the outer cylindrical body by the moving operation means.
[7] In the present invention, the moving step includes a pair of guide grooves cut into the outer cylindrical body, a second coil spring disposed so as to tie the inner support body or the inner cylindrical body, A pair of protrusions provided outside the inner support body or the inner cylindrical body, the pair of protrusions inside the pair of guide grooves cut into the outer cylindrical body, and the second The gap between the springs forming the helical pitch of the coil spring is disposed so as to contact at least one of the springs, and the bottom connected to or joined to the second coil spring is turned as a knob portion to rotate the second coil spring. By rotating, the pair of protrusions are moved back and forth steplessly along a pair of guide grooves cut into the outer tubular body, and the inner support body or the inner tubular body is moved in the longitudinal direction of the outer tubular body. Adjust the position to the desired position with Above, wherein the door to provide a thermal device as claimed in [6].
[8] In the present invention, the moving operation means may be arranged such that a coil spring disposed at a lower portion of the inner support body or the inner cylindrical body, and the inner support body or the inner cylindrical body are placed on the outer cylindrical body at a desired position. The heater according to [6] is provided, comprising stopper means for fixing.
[9] In the present invention, the moving operation means includes a pair of spiral grooves provided on the inner support body or the inner cylindrical body, and the pair of protrusions are formed on the inner wall of the outer cylindrical body. The inner support body or the inner cylindrical body is moved back and forth stepwise in the axial direction by turning a knob connected to or joined to the inner cylindrical body. The heater according to [6] is provided.
[10] In the present invention, a tubular rotating body is accommodated between the outer tubular body and the inner support body or the inner tubular body, and the moving operation means is paired with the inner support body or the inner tubular body. Protrusions are provided, and the pair of protrusions are screwed into a pair of spiral grooves provided on the inner wall of the outer cylindrical body through a pair of guide grooves cut into the tubular rotating body, and the inner support body Alternatively, it has a structure in which the inner cylindrical body, the tubular rotating body, and the outer cylindrical body are combined, and the slider is moved in the longitudinal direction by turning a knob connected to or joined to the tubular rotating body. The heater according to [6], wherein the heater is moved back and forth steplessly, is provided.

  The heater of the present invention can not only be able to freely adjust the distance between the pressing portion and the burning portion of the firewood material such as moss using elastic deformation by a coil spring, but also protrudes from the tip of the cylindrical support member. The pressing part made of a perforated heat radiator having a plurality of heat dissipation small holes and the plurality of holes formed in the cylindrical support member, the hot heat obtained by burning firewood material such as mogusa is used for the pressing part. Can be transmitted uniformly and sufficiently to the skin of the human body. In addition, temperature control by heat is easy, and safety is also excellent. In particular, the plurality of holes formed in the cylindrical support member has an effect of assisting inhalation or discharge of air to the burning portion of the firewood material such as moss even when the pressing portion is in contact with the human skin. Yes, it is possible to keep the thermal effect due to the burning of the firewood even during use.

  In addition, the heater of the present invention is provided with a stopper means for stopping the movement of the outer cylindrical body due to the repulsive force of the coil spring, so that the burning portion of the firewood is fixed at a predetermined position even during use. can do. Therefore, the thermal effect is stably obtained for any part of the human body, and at the same time, sufficient safety can be ensured. At this time, a part of the stopper means is brought into contact with a stepped portion provided on a peripheral outer wall of a portion close to the tip of the outer cylindrical body, so that the cylindrical support member can be fixed easily and reliably. Can be done. Furthermore, the protrusion part in which the needle-like body was formed in the front-end | tip part cross section of an inner side support body, and all or one part of the outer peripheral surface of the boundary outer peripheral surface of a cylindrical support member and a press part, or the front-end | tip vicinity part of a cylindrical support member Furthermore, by forming a groove or a hole into which the bundling member is fitted, a user-friendly and highly convenient heater can be obtained.

  In addition, the heater of the present invention is provided with a moving operation means for moving the inner support body or the inner cylindrical body to a desired position inside the outer cylindrical body, so that the pressing portion and the scissors such as moss. It is possible to adjust the distance from the combustion portion of the wide range. In this case, even when the brazing material such as the moss is shortened by combustion, it can be used as it is by adjusting the position of the brazing material, so that the amount of the brazing material used and the number of replacements can be reduced. In addition, since the movement distance of the inner cylindrical body can be adjusted from the outside of the outer cylindrical body by the movement operation means, it is excellent in usability.

  As described above, the heater of the present invention has a simple configuration and structure for efficiently transmitting the heat generated by the firewood material such as mogusa compared to the conventional hot water heater. Can also be used as a warmer that is easy to use and has portability.

It is a front view which shows an example of the heater of this invention, A-A 'sectional drawing, a left view, and a right view. It is a front view which shows an example of the usage pattern when using a brazing material using the heater which has an inner side support body of this invention. It is a front view which shows another example of the usage pattern when using a brazing material using the heater which has an inner side cylindrical body of this invention. It is the front view and sectional drawing which show the modification of the heater of this invention. It is the front view and sectional drawing which show another modification of the heater of this invention. It is a figure which shows the example of the heater of this invention which has the projection part in which the acicular body was formed in the front-end | tip part cross section of an inner side support body. The heater according to the present invention, wherein a groove or a hole into which the bundling member is fitted is formed on all or part of the outer peripheral surface of the boundary between the cylindrical support member and the pressing portion or the vicinity of the tip of the cylindrical support member. It is a figure which shows the example of. It is a figure which shows 6th Embodiment in the heater of this invention which has a movement operation means for moving an inner cylindrical body to a desired position. It is a figure which shows 7th Embodiment in the heater of this invention which has a movement operation means for moving an inner cylindrical body to a desired position. It is a figure which shows 8th Embodiment in the heater of this invention which has a movement operation means for moving an inner cylindrical body to a desired position. It is a figure which shows 9th Embodiment in the heater of this invention which has a movement operation means for moving an inner cylindrical body to a desired position.

  The present invention is a heater that burns firewood such as prickly grass as a heat source and uses the thermal effect of the combustion heat, and uses the pressing portion provided in the heater in contact with the skin of the human body. Embodiments of a heater according to the present invention will be described with reference to the drawings, but the present invention is not limited to the embodiments shown below.

<First Embodiment>
FIG. 1 is a view showing an example of a heater according to the present invention. (A), (b), (c) and (d) are respectively a front view, a cross-sectional view along AA ′, a left side view and a right side view. FIG. FIG. 1B is a cross-sectional view taken along the line AA ′ in the left side view shown in FIG. FIG. 2 is a front view showing an example of a usage pattern when using a firewood such as mogusa using the heater shown in FIG.

  As shown in FIG. 1, the heater 1 of the present embodiment includes an outer cylindrical body 2, an inner support body 3 housed inside the outer cylindrical body 2, an outer cylindrical body 2 and a first coil spring. (Or a helical spring) 4 and a cylindrical support member 5, and a pressing portion 6 made of a perforated radiator provided protruding from the tip of the cylindrical support member 5. FIG. 1 is an example of a heater in which the inner support 3 has an internal cavity, and the first coil spring 4 is disposed on the stepped portion 7 provided on the outer wall near the tip of the outer cylindrical body 2. . Here, the inner support 3 may be a solid one having no cavity. The first coil spring 4 may be detachable, or one end thereof may be fixed to the stepped portion 7 provided on the outer peripheral wall of the outer cylindrical body 2 by adhesion or alignment. The pressing part 6 is crimped to the tip part of the cylindrical support body 5, and both are integrated. The cylindrical support 5 and the pressing part 6 may be integrated by connection or bonding. Moreover, the cylindrical support member 5 and the pressing part 6 can also be made into the integrated structure shape | molded using one material, and when the said material is a metal, it is press molding, and when it is a plastic, it is injection molding. Or it produces by transfer molding.

  The pressing portion 6 shown in FIG. 1 has a structure that protrudes from the distal end portion of the cylindrical support member 5 as a perforated heat radiator having a plurality of small heat radiation holes 8. In addition, a plurality of holes 9 are formed in two steps in the vicinity of the cylindrical support member 5 in a portion close to the pressing portion 6 toward the tip portion. The small heat radiation holes 8 and 9 are indispensable components for efficiently and sufficiently transmitting the heat obtained by burning a firewood material such as mogusa as a heat source to a desired pressing place of the human body. Moreover, after the cylindrical support member 5 is inserted and fitted through the outer cylindrical body 2 and the first coil spring 4, the cylindrical support member 5 is fixed to the outer cylindrical body 2 at a desired position, and thereby the repulsive force of the coil spring 4 is used. It has stopper means 10 for stopping the movement that occurs. Further, the outer cylindrical body 2 has an opening at the tip, and a step portion 11 is provided on the outer wall around the tip. The functions and operations of the small heat radiation holes 8, the holes 9, the stopper means 10, and the step portion 11 shown in FIG. 1 will be described with reference to FIG.

  Further, in the heater 1 shown in FIG. 1, a guide groove 12 is provided in the outer cylindrical body 2, and a knob 13 provided at the bottom of the inner cylindrical body 3 is arranged along the groove of the guide groove 12. 2 has a structure movable in the longitudinal direction. The outer cylindrical body 2 has a bottom portion 14, and a second coil spring 15 different from the first coil spring 4 is inserted into the inner cavity portion. The body 3 is supported from the bottom. Here, the second coil spring 15 functions as a cushioning material when the inner support 3 is stored in the outer cylindrical body 2. In addition, the inner support body 3 cannot be lengthened when the brazing material such as moss is prescribed in a predetermined length, and on the other hand, the outer cylindrical body 2 that functions as the gripping portion of the heater 1 is desired. When it is necessary to make the length, it can be used as a jig for adjusting the mounting position of the inner support 3 in the longitudinal direction of the outer cylindrical body 2. In addition, an increase in temperature caused by the combustion heat of the brazing material such as moss being transmitted to the portion corresponding to the grip portion of the outer cylindrical body 2 can be suppressed by the presence of the inner support 3. The heater 1 of this embodiment is not limited to the structure shown in FIG. When the length of at least one of the saddle member or the structure inner support 3 can be adjusted, a structure in which the second coil spring 15 is not used may be adopted.

  In the heater 1 of the present embodiment, as shown in FIG. 2, first, the inner support 3 and the brazing material 16 such as mogusa are inserted into the outer cylindrical body 2 in this order (see FIG. 2). (A)). As the brazing material 16, for example, a mog stick to which a paste such as starch is added can be used. Next, after one end portion of the brazing material 16 is ignited and burned to form the combustion portion 17, the cylindrical support member 5 integrated with the pressing portion 6 is inserted from the distal end portion of the outer cylindrical body 2. At this time, the cylindrical support member 5 integrated with the pressing portion 6 uses the elastic deformation of the coil spring 4 to press the pressing portion 6 against a desired location on the human skin (for example, an acupuncture point or the like). (→) is gradually inserted in the direction of (→). And the movement of the cylindrical support member 5 which tries to jump out to the front-end | tip part by the repulsive force of the coil spring 4 arrange | positioned in the level | step-difference part 7 provided in the outer wall of the outer side cylindrical body 2 is stopped with the pressing force by a user, and a cylindrical support The member 5 is arranged at a desired position in the longitudinal direction, that is, a position where the user feels moderate heat, and the heater 1 is used in this state ((c) of FIG. 2).

  Thus, the heater 1 of this embodiment can only freely adjust the distance from the burning portion 17 of the brazing material 16 to the human skin by the coil spring 4 according to the user's preference by the user's human power. In addition, damage such as burns caused by the burning portion 17 of the brazing material 16 approaching the human skin carelessly can be prevented. The repulsive force of the coil spring 4 produces an effect that the pressing portion 6 is reliably pressed against the skin of the human body, and a high thermal effect can be obtained. Furthermore, when the heater 1 is held in the position shown in FIG. 2C and is to be continuously used in other places of the human body, the cylinder integrated with the pressing portion 6 by the stopper means 10 is used. The cylindrical support member 5 is fastened and fixed to the outer cylindrical body 2. As the stopper means 10, for example, one having a knob and a screw as shown in FIG. 1 (b) can be used. In this case, as shown in FIG. 2 (c), a stepped portion 11 is provided on the outer wall near the tip of the outer cylindrical body 2, and the knob of the stopper means 10 is turned so that the tip of the screw is applied to the stepped portion 11. It is preferable that the outer cylindrical body 2 is more reliably fixed by contact. Here, the step portion 11 has a function of preventing unexpected movement and detachment of the cylindrical support member 5 caused by sliding of a screw that is a part of the stopper means 10.

  In the heater 1 of the present embodiment, the heat generated from the combustion portion 17 of the brazing material 16 such as moss flows toward the distal end portion of the cylindrical support member 5, and from a plurality of heat radiation small holes 8 provided in the pressing portion 6. Then, it reaches the pressed part of the skin of the human body that is in contact with the pressing part 6. The pressing portion 6 is provided with a perforated heat radiator having a plurality of heat radiating small holes 8 protruding from the tip of the cylindrical support member 5 with a circular or elliptical curved surface, so that it is evenly placed on a desired place on the skin of the human body. Can be pressed. Further, since a plurality of the small heat radiation holes 8 are equally provided on the circular or elliptical curved surface, the heat can be transmitted uniformly. In the present invention, it is practical to set the diameter of the heat dissipation small hole 8 in the range of 0.1 to 10 mm, but 0.5 to 5 mm is preferable from the viewpoint of ease of manufacture and heat dissipation efficiency. The shape of the heat dissipation small hole 8 may be any of a circle, an ellipse, a rectangle, and a polygon of a triangle or more, but a circle is preferable from the viewpoint of ease of manufacture and heat dissipation efficiency. In the present invention, the pressing portion 6 provided to project from the tip of the cylindrical support member 5 is not limited to a circular or elliptical curved surface, and may be a plane having a flat shape or a triangular shape. It is preferable to provide a circular or elliptical curved surface from the viewpoint of good properties. In the present embodiment, the portions of the plurality of heat radiation small holes 8 may have a net-like mesh structure.

  Further, as shown in FIG. 2C, the plurality of holes 9 provided in the cylindrical support member 5 are directed from the position corresponding to the combustion portion 17 of the brazing material 16 toward the distal end portion of the cylindrical support member 5. By arranging them, it is possible to efficiently perform heat dissipation or air suction and discharge. In the present invention, the position where the plurality of holes 9 are provided is preferably in the range of 2/3, preferably 1/2, from the tip of the cylindrical support member 5 that contacts the pressing portion. Even if the plurality of holes 9 are provided in a range exceeding the length of 2/3 from the front end portion, there is almost no influence on the effect of heat dissipation or air suction and discharge. The cylindrical support member 5 having a plurality of holes 9 is useful for uniformly transmitting the heat generated by burning the firewood to the outside. In addition, the intake and exhaust of air through the plurality of holes 9 is indispensable for uniformly maintaining the continuous burning of the firewood during use of the heater 1. In particular, when the pressing portion 6 is brought into contact with the skin of the human body, all or a part of the small heat radiation holes 8 provided in the pressing portion 6 are closed, so that the combustion of the brazing material 16 is reduced by the retention of air. There is. Therefore, by providing a plurality of holes 9 in the cylindrical support member 5, an effect of promoting the intake or discharge of air into the combustion portion of the brazing material 16 is obtained, and the thermal effect due to the burning of the brazing material 16 is constant even during use. Can be kept in. The diameter of the hole 9 is practically provided in the range of 0.5 to 20 mm, but is preferably 1 to 10 mm from the viewpoint of ease of production and heat dissipation efficiency. The shape of the hole 9 may be any of a circle, an ellipse, a rectangle, and a polygon that is a triangle or more, but a circle is preferable in terms of ease of manufacture and heat dissipation efficiency.

  In the present invention, it is necessary for the heat dissipation small holes 8 provided in the pressing portion 6 and the holes 9 formed in the cylindrical support member 5 to be plural in order to efficiently perform heat dissipation and air suction or discharge. If there is only one hole or hole for heat dissipation and air suction or discharge, heat and air are liable to stay even if it has a large diameter, and the object of the present invention is achieved. I can't. Furthermore, it is preferable that the small heat radiation holes 8 and the holes 9 are equally arranged on the surfaces of the pressing portion 6 and the tubular support member 5, respectively.

  As described above, the heater of the present invention is preferably provided with the step portion 11 on the outer peripheral wall near the tip. 1 and FIG. 2 show an example in which there is one step portion 11, but in the present invention, two or more step portions 11 may be provided on the outer peripheral wall of the outer cylindrical body 2 with point symmetry in cross section. . In that case, the stopper means is provided in the same number as the stepped portion 11. As a result, there are a plurality of locations where a part of the stopper means abuts against the step portion 11, and the outer cylindrical body 2 can be fixed more securely than in the case where there is only one step portion 11, while the heater is being used. Inadvertent movement or detachment of the outer cylindrical body 2 is prevented, which is preferable from the viewpoint of safety and security.

  The heater 1 shown in FIG. 1 and FIG. 2 has an inner support 3 that supports the bottom part of the brazing material 16 such as moss, but the heater of the present embodiment is replaced with the inner support 3, It is good also as a structure which has the inner side cylindrical body which can insert the brazing material 16 in an inside. A heater having this structure is shown in FIG. The heater 18 shown in FIG. 3 has basically the same configuration as that shown in FIGS. 1 and 2 except that it has an inner cylindrical body 19 instead of the inner support 3.

  In the heater 18 shown in FIG. 3, first, a brazing material 16 such as mogusa is inserted into the inner cylindrical body 19, and one end portion of the brazing material 16 is ignited and burned to form a combustion portion 17 (see FIG. 3). (A)). Next, the cylindrical support member 5 integrated with the pressing portion 6 is inserted from the distal end portion of the outer cylindrical body 2. At this time, the cylindrical support member 5 integrated with the pressing portion 6 uses the elastic deformation of the first coil spring 4 to press the pressing portion 6 against a predetermined desired place (for example, an acupuncture point) of the human skin. By this, it is gradually inserted in the direction of the arrow (→) ((b) of FIG. 3). And the movement of the cylindrical support member 5 which tries to jump out to the front-end | tip part by the repulsive force of the coil spring 4 arrange | positioned in the level | step-difference part 7 provided in the outer wall of the outer side cylindrical body 2 is stopped with the pressing force by a user, and a cylindrical support The member 5 is disposed at a desired position in the longitudinal direction, that is, a position where the user feels moderate heat, and the heater 18 is used in this state ((c) of FIG. 3). The steps (b) and (c) in FIG. 3 are the same as those shown in FIGS. 2 (b) and (c), and the heater 18 can obtain the same functions and effects as the heater 1.

  Unlike the heater 1 shown in FIG. 2, the heater 18 shown in FIG. 3 is used in a state in which the brazing material 16 is inserted into the inner cylindrical body 19, and thus the high heat generated by the combustion portion 17 of the brazing material 16. Is not transmitted directly to the outer cylindrical body 2 but is transmitted through the inner cylindrical body 19 and the gap between the inner cylindrical body 19 and the outer cylindrical body 2. Therefore, when using the heater 18, the effect of suppressing the temperature rise of the outer cylindrical body 2 is acquired. Since the temperature rise in the portion corresponding to the grip portion of the outer cylindrical body 2 changes according to the gap interval, the inner diameter of the outer cylindrical body 2 and the outer diameter of the inner cylindrical body 19 are optimized as necessary. By doing, the outer cylindrical body 2 can be made into the structure excellent in heat insulation.

  The outer cylindrical body 2, the inner support body 3 or the inner cylindrical body 19, the cylindrical support member 5, and the pressing portion 6 constituting the heaters 1 and 18 of the present embodiment utilize the thermal effect due to the burning of the brazing material 16. Therefore, it is practical to use heat-resistant metals such as aluminum, copper, iron, magnesium, etc., but other than that, heat-resistant plastic materials, fiber-reinforced plastic materials, ceramics, wood Any material may be applied. Among these components, the outer cylindrical body 2 is in direct contact with the user's hand, and in order to improve the usability of the heater 1, all or part of the outer cylindrical body 2 is heated relatively. A metal having a small conductivity may be selected and used. In addition, the outer cylindrical body 2, particularly the portion corresponding to the grip portion, may be covered with at least one of a heat insulating plastic material, a cloth material, and wood. On the other hand, since it is necessary to improve heat dissipation and heat conductivity about the press part 6, it is preferable to use the metal which is excellent in heat conductivity.

<Second Embodiment>
FIG. 4 is a view showing a modification of the heater of the present invention, and (a) and (b) show a front view and a cross-sectional view, respectively. The heater 20 shown in FIG. 4 is an example of a heater in which the first coil spring 4 is disposed on the step portion 21 provided on the inner wall near the distal end portion of the outer cylindrical body 2, and the other configuration is shown in FIG. This is basically the same as the heater 1 shown in FIG. Here, the coil spring 4 may be detachable, or one end thereof may be fixed to the stepped portion 21 provided on the inner peripheral wall of the outer cylindrical body 2 by adhesion or alignment.

  In the heater of this embodiment, in the same manner as the method shown in FIG. 2, first, the inner support 3 and the brazing material 16 such as mogusa are inserted in this order into the outer cylindrical body 2, respectively. One end of the material 16 is ignited and combusted to form a combustion portion 17. Next, the cylindrical support member 5 integrated with the pressing portion 6 is inserted from the distal end portion of the outer cylindrical body 2 and pressed against a desired place (for example, an acupuncture point) of the human body. The cylindrical support member 5 integrated with the pressing portion 6 is gradually inserted in the direction of the arrow (→) using the elastic deformation of the coil spring 4. At this time, the movement of the cylindrical support member 5 that is about to jump out to the tip end portion by the repulsive force of the first coil spring 4 disposed on the step portion 21 provided on the inner wall of the outer cylindrical body 2 is caused by the pressing force of the user. The tubular support member 5 is stopped and disposed at a desired position in the longitudinal direction, that is, at a position where the user feels moderate heat, and the heater 20 is used in this state. The first coil spring 4 used in the present embodiment has the same functions and effects as in the case of the first embodiment. Furthermore, when the heater 20 is held at a desired position and is desired to be continuously used in other places of the human body, the stopper unit 10 causes the pressing portion 6 and the cylindrical support member 5 to be connected to the outer cylindrical body 2. Tighten and fix. If necessary, a part of the stopper means 10 is brought into contact with the step portion 11 so that the outer cylindrical body 2 is securely fixed.

  The heater 20 shown in FIG. 4 can be used with the coil spring 4 housed inside the outer cylindrical body 2 when the first coil spring 4 is detachable. It is slightly superior in handleability as compared with the heater 1 shown. However, the dimensional accuracy of the outer diameter and inner diameter of the first coil spring 4 is required to be higher than that of the heater 1 from the viewpoint of storage property in the outer cylindrical body 2. Therefore, when the highest priority is given to reducing the manufacturing cost of the heater, it is preferable to use the heater 1 according to the first embodiment.

<Third Embodiment>
FIG. 5 is a view showing another modification of the heater of the present invention, and a front view and a cross-sectional view are shown in (a) and (b), respectively. Unlike the heater 1 shown in FIG. 1, the heater 22 shown in FIG. 5 is an example of a heater in which the coil spring 4 is arranged at the most distal end portion 23 of the outer cylindrical body 2. The rest of the configuration is the same as that of the heater 1 shown in FIG. 1, but the cylindrical support member 5 is slightly longer and the step portion 11 formed on the outer peripheral wall of the outer cylindrical body 2 is the tip of the pressing portion 6. It is provided at a position slightly distant from the part. This is because it is necessary to determine the length of the cylindrical support 5 and the position of the stepped portion 11 in the form of adding the length of the first coil spring 4 due to the structure. Here, the coil spring 4 may be detachable. In order to prevent the coil spring 4 from being detached from the outer cylindrical body 2, one end is fixed to the most distal end portion 21 of the outer cylindrical body 2 by adhesion or alignment. Is preferred.

  In the heater 22 of this embodiment, in the same manner as the method shown in FIGS. 2 and 4, first, the inner support 3 and the brazing material 16 such as moss are respectively placed in the outer cylindrical body 2 in this order. Inserted. Next, after one end portion of the brazing material 16 is ignited and burned to form the combustion portion 17, the cylindrical support member 5 integrated with the pressing portion 6 is inserted from the distal end portion of the outer cylindrical body 2. At this time, the cylindrical support member 5 integrated with the pressing portion 6 uses the elastic deformation of the first coil spring 4 to press the pressing portion 6 against a desired place (for example, an acupuncture point) of the human skin. Is gradually inserted in the direction of the arrow (→). And the movement of the cylindrical support member 5 that tries to jump out to the tip end portion by the repulsive force of the first coil spring 4 disposed on the step portion 23 provided on the outer wall of the outer cylindrical body 2 is stopped by the pressing force by the user, The cylindrical support member 5 is disposed at a desired position in the longitudinal direction, that is, at a position where the user feels moderate heat, and the heater 22 is used in this state. The first coil spring 4 used in the present embodiment has the same functions and effects as in the first and second embodiments. Further, when the heater 22 is held at a desired position and is desired to be continuously used in other parts of the human body, the stopper 6 and the cylindrical support member 5 are connected to the outer cylindrical body 2 by the stopper means 10. Tighten and fix. If necessary, a part of the stopper means 10 is brought into contact with the stepped portion 11 so that the outer cylindrical body 2 can be securely fastened.

  The heater 22 shown in FIG. 5 is preferably used by fixing one end portion of the first coil spring 4 to the most distal end portion 21 of the outer cylindrical body 2 by adhesion or alignment in order to improve handling and usability. . In that case, compared with the heater 1 and the heater 20 shown in FIG.1 and FIG.4, the manufacturing cost of a heater tends to become a little higher, and in addition, it is necessary to pay close attention to the fixing strength of the coil spring 4. is there. Considering these points, the present invention provides a step provided on the outer wall or the inner wall near the tip of the outer cylindrical body 2 rather than disposing the first coil spring 4 at the most distal end portion 23 of the outer cylindrical body 2. It is preferable to employ a configuration and structure in which the cylindrical support 5 is inserted through the coil spring 4 by being disposed in the portion.

<Fourth Embodiment>
The heater of the present invention shown in FIG. 1 to FIG. 5 has a structure in which the brazing material 16 such as mogusa is supported by the solid inner support 3 or the inner cylindrical body 19. When the difference from the inner diameter of the cylindrical body 2 is large, the brazing material 16 may be biased and located on the inner side of the outer cylindrical body 2. In that case, local deviation occurs in the temperature of the heat coming out of the pressing portion 6 due to the burning of the brazing material 16, and the user may feel uncomfortable. In addition, in a state where the brazing material 16 is simply mounted on the front end section of the solid inner support 3 or the inner bottom surface of the inner cylindrical body 19, the brazing material 16 is attached to the outer cylindrical body before the cylindrical support 5 is attached. It may drop out of 2, and the usability will be slightly worse. In addition, when the heater is tilted or mistakenly laid down, the brazing material 16 moves freely in the long axis direction inside the outer cylindrical body 2, and the burning portion of the brazing material 16 suddenly approaches the pressing portion 6. Sometimes. In this case, the thermal effect cannot be stably obtained, and in the worst case, there is a problem in terms of safety in that the user burns the affected area. In order to solve these problems, it is preferable to employ the configuration and structure of the heater shown in FIG.

  FIG. 6 is an example of a heater having a protrusion having a needle-like body formed on the tip section of the inner support, and FIGS. 6A and 6B are a front view and a front view showing the state of the heater 39, respectively. Sectional drawing of the BB 'position shown to (a) is shown. FIG. 6 (c) shows the support by inserting a lump which is one kind of the bridging material 16 into the outer cylindrical body 2 and piercing the bridging material 16 into the protrusion 40 on which the needle-like body is formed. And it is a front view which shows the aspect of the heater 39 after fixing and performing the attachment and position adjustment of a press part. FIG. 6 shows an example in which three protrusions 40 each having a needle-like body are formed on the cross-section of the distal end portion of the inner cylindrical body 3 (see FIG. 6B). The configuration of the heater is basically the same as that of the heater shown in FIG. 1 except for the protrusion 40 on which the needle-like body is formed. The protrusion 40 on which the needle-like body is formed needs to be a needle-like body in which the tip portion can pierce the bridging material 19. As the needle-like body, a conical needle, a pyramid needle, and a sword mountain needle are used, and the needle-like body is formed singly or in combination on the tip section of the inner support 3. Further, the protrusions can be formed in a number of 1 or 2 or more depending on the area of the cross-section of the tip of the inner support 3 and the outer diameter of the protrusion 40 having a needle-like body. The protrusion 40 formed with the needle-like body forms a screw-like or spiral groove in the body portion excluding the portion corresponding to the needle so that the bridging material 19 after piercing is not easily detached during use. It is preferable. In addition to this, the protrusion 40 on which the needle-like body is formed may be provided obliquely with a slight inclination from the vertical direction with respect to the tip end section of the inner cylindrical body 3. Furthermore, by combining both configurations, the brazing material 19 can be supported and fixed more reliably.

  As shown in FIG. 6, the saddle member 19 is held and fixed so that the attachment position does not fluctuate due to the piercing of the protrusion 40 on which the needle-like body is formed. 19 has the advantage that it can prevent or suppress the displacement of 19 and the deviation of the mounting position, and the position variation of the brazing material 19 that easily occurs when the heater 39 is used. In addition, the heater 39 can fix the brazing material 19 that is shortened with the frequency of use as the combustion progresses, by the protrusion 40 on which the needle-like body is formed. Therefore, even if the brazing material 19 is shortened, it is easy to adjust the distance between the distal end portion of the pressing portion 6 and the combustion portion 17 of the brazing material 19. As described above, by providing the protrusion 40 formed with the needle-like body, not only the convenience of the heater 39 can be improved, but also a uniform heating effect can be maintained for a long time.

  Although the present embodiment has been described with reference to the basic configuration of the heater shown in FIG. 1, the protrusion 40 in which the needle-like body is also formed on the inner cylindrical body 19 of the heater 18 shown in FIG. 3. Can be provided. In that case, the protrusion 40 formed with the needle-like body may be formed on the inner bottom surface of the inner cylindrical body 19. Further, the protrusion 40 formed with the needle-like body is made the same as the inner support 3 by increasing the distance from the inner bottom surface to the tip of the inner cylindrical body 19 and raising the installation position of the saddle member 16. Can be used. Further, the protrusion 40 on which the needle-like body of the present embodiment is formed can be formed and applied in the same manner as that shown in FIG. 6 in the heaters 20 and 22 shown in FIGS. 4 and 5. .

<Fifth Embodiment>
FIG. 7 is a front view of the heater according to the present embodiment. FIG. 7 shows an example of the heater of the present invention having a groove or a hole into which a bundling member is fitted on the entire outer peripheral surface of the boundary between the cylindrical support member and the pressing portion or the vicinity of the tip of the cylindrical support member. FIG. In FIG. 7, (a), (b), and (c) illustrate each operation method when using the heater 41, and the padding material 19 such as mogusa is placed inside the outer cylindrical body 2. Respectively, an operation of inserting the cylindrical support member 5, and an operation of moving the cylindrical support member 5 to a desired position of the user. FIG. 7A shows a cylindrical support member 5 in which grooves or holes 42 are formed in the entire outer peripheral surface of the boundary with the pressing portion 6 as a representative example of the present embodiment. 7A shows another example of the cylindrical support member 5, that is, the cylindrical support member 5 in which a groove or a hole 42 is formed on the outer peripheral surface in the vicinity of the tip. Yes.

  As shown in FIG. 7C, the heater 41 of the present embodiment is in a state where the pressing portion 6 is covered with a pressing portion cover 43 having flexibility such as cloth, woven fabric, non-woven fabric, lace, and felt at the time of use. It is suitable when used. The pressing portion cover 43 is generally used when the user does not want to feel the heat directly, or when he does not want the tip of the pressing portion 6 to come into direct contact with the affected area. Moreover, it may be used in order to avoid the worst case in which the heat generated from the tip of the pressing portion 6 burns the affected area of the user. However, the hot part cover 43 is often easily detached from the cylindrical support member 5 during use, and the pressing part 6 must be covered with the hot part cover 43 each time. Then, the usability of the heater is very poor, and the above-mentioned effect obtained when using the pressing portion cover 43 is not fully utilized. Therefore, normally, after the pressing part 6 is covered with the heating part cover 43, the binding part 44 is used to prevent the heating part cover 43 from being detached from the tip of the pressing part 6. There is a problem that the member 44 is easily detached due to slipping or slipping.

  The groove or hole 42 shown in FIG. 7 functions as a recess into which the binding member 44 is fitted, and has an effect of preventing the binding member 44 from slipping or coming off. The binding member 44 may be any member as long as it can be constrained so that the heating portion cover 43 does not move. For example, a soft plastic binding band, a binding rubber band, a rubber band, a metal wire, a metal clamp, or the like may be used. it can.

  In FIG. 7, the groove or hole 42 is formed over the entire outer peripheral surface of the boundary outer peripheral surface of the cylindrical support member 5 and the pressing portion 6 or the vicinity of the tip of the cylindrical support member 5, that is, the entire outer peripheral surface region. Although an example is shown, in this embodiment, it is not limited to this form, You may form the groove | channel or the hole 42 in a part of outer peripheral surface of each said part. For example, a plurality of grooves or holes 42 are formed at a point-symmetrical position on the outer peripheral surface of each part with a width and depth that allow the binding member 44 to be fitted. Further, as long as the binding member 44 can be prevented from slipping or coming off, the groove or the hole 42 may be formed at one place on the outer peripheral surface of each of the parts. In this way, it is possible to suppress or prevent the heating portion cover 43 from being detached from the tip of the pressing portion 6.

  Although the groove | channel or the hole 42 which the heater 41 of this embodiment has quoted and demonstrated what was shown in FIG. 2 as a basic composition of a heater, in the heaters 18, 20, 22, and 39 shown to FIGS. Alternatively, it can be formed on the whole or a part of the outer peripheral surface of the boundary between the cylindrical support member 5 and the pressing portion 6 or the vicinity of the tip of the cylindrical support member 5. Thereby, if the binding member 44 is fitted in the groove or the hole 42, the same effect as in the case of the heater 41 shown in FIG. 7 can be obtained.

<Sixth Embodiment>
In the heater of the present invention, the inner support body 3 or the inner cylindrical body 19 is placed inside the outer cylindrical body 2 in order to adjust the distance between the pressing portion 6 and the burning portion of the firewood such as mogusa over a wide range. It is preferable to provide a moving operation means for moving to a desired position. FIG. 8 is a diagram showing an example of the heater of the present invention having a moving operation means for moving the inner cylindrical body 3 to a desired position. In FIG. 8, (a) is a figure which shows the aspect of the heater 24 before moving the inner cylindrical body 3, and the upper stage and the lower stage have each shown the front view and sectional drawing of AA 'position. . FIG. 8B is a view showing the state of the heater 24 after the inner cylindrical body 3 is moved by the moving operation means. The upper stage and the lower stage are a front view and a cross-section at the position AA ′, respectively. The figure is shown. Here, the position AA ′ shown in FIG. 8 is the same as the position AA ′ shown in FIG.

  8 includes a pair of guide grooves 12 cut into the outer cylindrical body 2, a second coil spring 15 disposed so as to tie the inner support 3, and an inner support. A pair of protrusions 25 provided on the outside of the body 3, the inside of the pair of guide grooves 12 in which the pair of protrusions 25 are cut into the outer cylindrical body 2, and the helical pitch of the second coil spring 15. It has a configuration and a structure arranged so as to contact at least one of the springs in the gap between the formed springs.

  In FIG. 8A showing the state before the movement of the inner cylindrical body 3, the cylindrical support member 5 integrated with the pressing portion 6 is disposed on the stepped portion 7 provided on the outer wall of the outer cylindrical body 2. Using the stopper means 10 at any position in the longitudinal direction of the outer cylindrical body 2 while being fitted into the outer cylindrical body 2 via the first coil spring 4 and utilizing the elastic deformation of the first coil spring 4. Fix it. If necessary, a part of the stopper means 10 is brought into contact with the step portion 11 so that the outer cylindrical body 2 is securely fixed. At that time, the combustion portion 17 at the tip of the brazing material 16 is disposed at a position slightly protruding from the tip of the outer cylindrical body 2.

  Next, as shown in FIG. 8B, the bottom portion 14 connected or joined to the second coil spring 15 is turned as a knob portion, and the second coil spring 15 is rotated to form the pair of protrusions 25 in the outer cylindrical shape. The inner support 3 can be moved toward the distal end in the longitudinal direction of the outer tubular body 2 by moving back and forth steplessly along the pair of guide grooves 12 cut into the body 2. In this way, the combustion portion 17 of the brazing material 16 can be adjusted and arranged at a desired position. After the movement of the inner cylindrical body 3, as shown in FIG. 8B, the burning portion 17 of the brazing material 16 is arranged closer to the pressing portion 6, that is, closer to the human skin of the user. become.

  Next, the operation mechanism of the moving operation means of the heater 24 shown in FIG. 8 will be described. In the heater 24 shown in FIG. 8, the second coil spring 15 and the bottom portion 14 are not only connected or joined by any one of caulking, connecting, and joining means, but also the front most of the second coil spring 15 is connected. The tip portion is fixed without moving forward by a step portion 26 formed on the inner wall of the outer cylindrical body 2. Here, the front of the second coil spring 15 means the side of the pressing portion 6 in the heater 24. Therefore, when the bottom portion 14 is turned and the coil spring 15 is simultaneously rotated, the position of the coil spring 15 itself remains unchanged, and the helical pitch of the coil spring 15 only moves in the front-rear direction. The pair of protrusions 25 provided outside the inner support 3 are arranged so as to contact at least one of the springs in the gap between the springs forming the helical pitch of the second coil spring 15. As the pitch moves in the front-rear direction, it moves in the front-rear direction inside the pair of guide grooves 12 cut into the outer cylindrical body 2. Here, the pair of protrusions 25 is surely placed at least between the springs forming the helical pitch so that the protrusions 25 can move in the front-rear direction within the pair of guide grooves 12 according to the movement of the spring along the helical pitch. It is necessary to abut. Therefore, the pair of protrusions 25 are arranged between the springs forming the helical pitch so as not to easily move and detach between the springs forming the helical pitch while rotating with the bottom portion 14 as the knob portion. It is preferable to fix to at least either. The fixing method can be performed, for example, by any method of caulking, joining such as brazing or soldering or welding, and adhesion using an adhesive or the like. Although FIG. 8 shows an example of the heater 24 having the inner support 3, in the present embodiment, instead of the inner support 3, even in the case of a heater having the inner cylindrical body 19 shown in FIG. 3. The same movement operation means as in this embodiment can be applied.

  As described above, in the heater of the present embodiment, the adjustment of the distance between the pressing portion 6 and the combustion portion 17 of the brazing material 16 such as the moss is supported outside using the elastic deformation of the first coil spring 4. Not only when the member 5 is inserted into the outer cylindrical body 2, but also by the movement of the inner support 3 or the inner cylindrical body 19 by the rotation of the second coil spring 15. Therefore, the position adjustment of the saddle member 16 can be performed over a wide range when the user likes. Further, even when the burning of the brazing material 16 progresses and becomes shorter due to long-term use, the bottom portion 14 which is a part of the moving operation means is rotated as a knob portion, and the inner support 3 or the inner cylindrical body 19 is moved in the front-rear direction. By moving in the (longitudinal direction of the outside normal body), the position of the brazing material 16 can be changed to the optimum position and can be used as it is. As a result, the amount of brazing material used and the number of replacements can be reduced. In addition, since the moving distance of the inner cylindrical body 3 can be adjusted from the outside of the outer cylindrical body 2 by the moving operation means, the usability of the heater 24 is excellent.

  Furthermore, the heater 24 of the present embodiment has not only various advantages as described above, but also a spiral concave groove or the like on the inner wall of the outer cylindrical body as a movement operation means of the inner support body or the inner cylindrical body. Since it does not need to be formed, the structure is simple, the portability is excellent, and the manufacturing cost can be reduced at the same time.

<Seventh Embodiment>
FIG. 9 is a view showing a modification of the heater of the present invention having a moving operation means for moving the inner cylindrical body to a desired position. In FIG. 9, (a) is a figure which shows the aspect of the heater 27 before moving the inner side support body 3, The front view and sectional drawing of AA 'position are shown in the upper stage and the lower stage, respectively. FIG. 9B is a view showing the state of the heater 27 after the inner support 3 is moved by the moving operation means. The upper stage and the lower stage are a front view and a sectional view at the position AA ′, respectively. Is shown. Here, the AA ′ position shown in FIG. 9 is the same as the AA ′ position shown in FIG.

  As shown in FIG. 9 (a), the cylindrical support member 5 integrated with the pressing portion 6 is placed on the stepped portion 7 provided on the outer wall of the outer cylindrical body 2 before the inner support 3 is moved. The outer cylindrical body 2 is inserted through the coil spring 4 to be arranged, and is fixed using the stopper means 10 at an arbitrary position in the longitudinal direction of the outer cylindrical body 2 while utilizing the elastic deformation of the coil spring 4. If necessary, a part of the stopper means 10 is brought into contact with the step portion 11 to securely fix and fix the outer cylindrical body 2. At that time, the combustion portion 17 at the tip of the brazing material 16 is arranged in a state of protruding to a position far away from the tip of the outer cylindrical body 2, that is, a position close to the pressing portion 6.

  Next, as shown in FIG. 9B, the inner hollow portion of the outer cylindrical body 2 is formed along the guide groove 12 provided in the outer cylindrical body 2 by the knob 13 provided in the bottom of the inner support 3. The inner support 3 is moved downward to a position where the combustion portion 17 of the brazing material 16 slightly protrudes from the distal end portion of the outer cylindrical body 2 while pressing and elastically compressing the second coil spring 15 inserted into. After the inner support 3 is moved, the inner support 3 is fixed to the outer cylindrical body 2 by stopper means 28 provided at the position attached to the knob 13. Here, the stopper means 28 is slightly different in configuration and structure from the stopper means 10 shown in FIG. 1, and includes, for example, a screw 29 and a washer 30 connected to the knob 13 via the screw 29. As shown in [AA ′ cross-sectional view] in FIG. 9B, the washer 30 is brought into contact with the outer cylindrical body 2 by turning the stopper means 28 and screwing it in the direction of the arrow (↓). The inner support 3 is fixed by pressing firmly. In this embodiment, a washer fixing groove having a step slightly wider than the diameter of the wash 30 may be formed around the outer periphery of the guide groove 12 of the outer cylindrical body 2. As described above, the moving operation means of the present embodiment includes the guide groove 12 provided in the outer cylindrical body 2, the knob 13, and the stopper means 28 including the screw 29 and the wash 30, and the moving distance of the inner support body 3 is increased. It has a function that can be adjusted from the outside of the outer cylindrical body 2.

  After the inner support 3 is fixed to the outer cylindrical body 2 by the method shown in FIG. 9 (b), the distance between the pressing portion 6 and the burning portion 17 of the brazing material 16 is further increased to a position where an appropriate temperature is felt. When fine adjustment is desired in the upward direction (the direction of the pressing portion 6), the fixing by the stopper means 10 is released, and the cylindrical support member 5 integrated with the pressing portion 6 is moved downward (in the direction of the bottom portion 14). . After moving to a desired position, the cylindrical support member 5 is again fixed to the outer cylindrical body 2 using the stopper means 10. FIG. 9B shows a state in which the lower end of the cylindrical support member 5 is fixed to the outer cylindrical body 2 at a position slightly away from the stepped portion 7 provided on the outer wall of the outer cylindrical body 2. However, as described above, the position where the cylindrical support member 5 is fixed can be arbitrarily selected up to the position where the user feels moderate heat. At that time, the cylindrical support member 5 may deform and compress the first coil spring 4 to the extent that it reaches the stepped portion 7 provided on the outer wall of the outer cylindrical body 2. Furthermore, when it is desired to securely fix the distance between the pressing portion 6 and the combustion portion 17 of the brazing material 16 in either the upper or lower direction, the stopper means 10 or the stopper means 10 and the stepped portion 11 are used.

  As described above, the heater 27 shown in FIG. 9 can adjust the distance between the pressing portion 6 and the combustion portion 17 of the brazing material 16 such as mogosa over a wide range, as in the sixth embodiment. it can. Further, even when the burning of the brazing material 16 progresses and becomes short due to long-term use, the position of the burning portion 17 of the brazing material 16 is changed to the optimum position by the moving operation means by the stopper means 28, and it continues to be used as it is. Therefore, the amount of brazing material used and the number of replacements can be reduced. In addition, since the moving distance of the inner cylindrical body 3 can be adjusted from the outside of the outer cylindrical body 2 by the moving operation means, it is excellent in usability. Further, the heater of the present embodiment does not require a spiral concave groove or the like to be formed on the inner wall of the outer cylindrical body as a moving operation means for the inner support body or the inner cylindrical body. In addition, the manufacturing cost can be reduced.

<Eighth Embodiment>
In this embodiment, another modified example of the heater of the present invention having a moving operation means for moving the inner cylindrical body to a desired position will be described. FIG. 10 shows a heater having a structure in which a pair of protrusions are provided on the inner cylindrical body, and the protrusions are screwed into a pair of spiral grooves formed on the inner wall of the outer cylindrical body, as movement operation means. Show.

  As shown in FIG. 10, the heater 31 includes the outer cylindrical body 2, the inner cylindrical body 19 housed inside the outer cylindrical body 2, the outer cylindrical body 2 and the first coil spring 4. A cylindrical support member 5 that is inserted and fitted, and a pressing portion 6 that protrudes from the tip of the cylindrical support member 5 and is integrated with the cylindrical support member. Here, the brazing material 16 such as mogusa is inserted into the inner cylindrical body 19. Further, a stepped portion 11 for contacting a part of the stopper means 10 is provided on the outer wall near the tip of the outer cylindrical body 2 in order to fix the outer support member 5 more reliably.

  In the heater 31, a pair of protrusions 32 are provided on the inner tubular body 19, and a pair of spiral grooves 33 are formed on the inner wall of the outer tubular body 2. A pair of protrusions 32 provided on the inner cylindrical body 19 are screwed into a pair of spiral grooves 33 formed on the inner wall of the outer cylindrical body 2, and a knob 34 connected to the bottom of the outer cylindrical body 2 is provided. By rotating, the inner cylindrical body 19 moves back and forth steplessly along the spiral groove 33. At the same time, the inner cylindrical body 19 into which the brazing material 16 is inserted is moved back and forth to a desired position inside the outer cylindrical body 2, and the distance between the pressing portion 6 and the combustion portion 17 of the brazing material 16 can be freely set. Can be controlled and adjusted. Here, the back-and-forth movement of the inner cylindrical body 19 means that the inner cylindrical body 19 moves in the longitudinal direction of the outer cylindrical body 2. The moving operation means of this embodiment is connected to a pair of protrusions 32 provided on the inner cylindrical body 19, a pair of spiral grooves 33 formed on the inner wall of the outer cylindrical body 2, and the bottom of the outer cylindrical body 2. The knob 34 is included and has a function of adjusting the moving distance of the inner cylindrical body 19 from the outside of the outer cylindrical body 2.

  The heater 31 shown in FIG. 10 has a relatively simple configuration including the outer cylindrical body 2, the inner cylindrical body 19, and the knob 34, so that the distance between the pressing portion 6 and the combustion portion 17 of the brazing material 16 such as moss. Adjustment can be easily performed from the outside of the outer cylindrical body 2. Further, as in the case of the heaters 24 and 27 described in the sixth and seventh embodiments, it is possible to reduce the usage amount and the number of replacements of the brazing material 16. However, if the stroke length of the pair of spiral grooves 33 is increased in the longitudinal direction of the outer cylindrical body 2, the portion where the knob 34 protrudes from the bottom of the outer cylindrical body 2 becomes longer, and the usability of the heater 31 is poor. Sometimes it becomes. As described above, in the configuration shown in FIG. 10, the stroke length that can be formed as the pair of spiral grooves 33 is limited, so that the adjustment width of the distance between the pressing portion 6 and the combustion portion 17 of the brazing material 16 such as mogosa is not limited. Limited. However, when there is no problem in using even if the distance adjustment width is small, the heater 31 of this embodiment can be used because the structure and structure of the heater are simple.

<Ninth Embodiment>
The heater 31 according to the eighth embodiment has a limited range of adjustment of the distance between the pressing portion 6 and the combustion portion 17 of the brazing material 16 such as moss. This will be described with reference to FIG. FIG. 11 is a view showing still another modified example of the heater of the present invention having the moving operation means for moving the inner cylindrical body to a desired position.

  As shown in FIG. 11, the heater 35 includes the outer cylindrical body 2, the inner cylindrical body 19 housed inside the outer cylindrical body 2, the outer cylindrical body 2, and the first coil spring 4. A cylindrical support member 5 that is inserted and fitted, and a pressing portion 6 that is provided protruding from the distal end portion of the cylindrical support member 5 and integrated with the cylindrical support member. A tubular rotating body 36 is accommodated between the inner cylindrical body 3. Here, the brazing material 16 such as mogusa is inserted into the inner cylindrical body 19. Further, a stepped portion 11 for contacting a part of the stopper means 10 is provided on the outer wall near the tip of the outer cylindrical body 2 in order to fix the outer support member 5 more reliably.

  In the heater 35, a pair of protrusions 32 are provided on the inner tubular body 19, a pair of spiral grooves 33 are formed on the inner wall of the outer tubular body 2, and a pair of guide grooves are formed on the tubular rotating body 36. 37 is cut. The protrusion 32 is screwed into a pair of spiral grooves 33 provided on the inner wall of the outer cylindrical body 2 via a pair of guide grooves 37 cut into the tubular rotating body 36, and the inner cylindrical body 19, The three members of the tubular rotating body 36 and the outer cylindrical body 2 form a combined structure. Then, the tubular moving body 36 is rotated by turning the knob 38 which is crimped and connected or joined to the bottom of the tubular rotating body 36. By the rotation, the projection 32 screwed into the spiral groove 33 is moved back and forth steplessly along the guide groove 37 in the longitudinal direction of the outer cylindrical body 2. At the same time, the inner cylindrical body 19 with the collar 16 inserted therein also moves back and forth within the tubular moving body 36. Thereby, the distance between the pressing part 6 and the combustion part 17 of the brazing material 16 such as mog can be freely controlled, and the movement can be adjusted to a desired position. Here, the back-and-forth movement of the inner cylindrical body 19 means that the inner cylindrical body 19 moves in the longitudinal direction of the outer cylindrical body 2. The moving operation means of the present embodiment includes a pair of protrusions 32 provided on the inner cylindrical body 19, a pair of spiral grooves 33 formed on the inner wall of the outer cylindrical body 2, a tubular rotating body 36, and a tubular rotating body 36. It includes a knob 38 that is caulked, connected or joined to the bottom, and has a function of adjusting the moving distance of the inner cylindrical body 19 from the outside of the outer cylindrical body 2.

  The heater 35 shown in FIG. 11 has a slightly more complicated configuration and structure than the heater 31 shown in FIG. 10 in that it has a tubular rotating body 36, but a stroke that can be formed as a pair of spiral grooves 33. There is an advantage that the length can be increased. Therefore, it is possible to easily adjust the distance between the pressing portion 6 and the combustion portion 17 of the brazing material 16 such as mogosa over a wide range from the outside of the outer cylindrical body 2. As a result, as in the case of the heaters 24, 27, and 31 shown in FIGS. Therefore, when it is desired to adjust the distance between the pressing portion 6 and the combustion portion 17 of the brazing material 16 such as mogosa over a wide range, it is preferable to use the heater 35 of the present embodiment.

  As described above, the heater of the present invention can not only transmit the heat obtained by burning firewood such as mogusa uniformly and sufficiently to the human skin through the pressing part, but also by the heat. It is easy to control the temperature and is excellent in safety. Further, by using a stopper means for stopping the movement of the outer cylindrical body or a step portion for contacting a part of the stopper means with a part of the stopper means, the burning portion of the brazing material is fixed at a predetermined position even during use. Since it can be used, the thermal effect can be stably obtained for any part of the human body, and at the same time, sufficient safety can be ensured.

  Furthermore, since the heater of the present invention includes moving operation means for moving the inner cylindrical body from the outside of the outer cylindrical body to a desired position, adjustment of the distance between the pressing portion and the burning portion of the firewood material such as moss Can be performed over a wide range, and the amount of brazing material used and the number of replacements can be reduced. The heater of the present invention has a simple structure and structure for efficiently transmitting the heat generated by the firewood such as mogusa compared to the conventional heater, and is suitable for any part of the human body, and It is easy to use and can be used as a warming device with portability. Therefore, the heater of the present invention is extremely useful.

DESCRIPTION OF SYMBOLS 1 ... Heater, 2 ... Outer cylindrical body, 3 ... Inner support body, 4 ... 1st coil spring, 5 ... Cylindrical support member, 6 ... Pressing part, 7 ... Stepped portion provided on the outer wall near the tip of the outer cylindrical body, 8 ... radiating small holes, 9 ... holes, 10 ... stopper means, 11 ... openings, 12. Guide groove, 13 ... knob, 14 ... bottom of the outer cylindrical body, 15 ... second coil spring, 16 ... firewood, 17 ... burning portion of firewood, 18 ... -Heater, 19 ... inner cylindrical body, 20 ... heater, 21 ... stepped portion provided on the inner wall near the tip of the outer cylindrical body, 22 ... heater, 23 ... The most advanced part of the outer cylindrical body, 24 ... heater, 25 ... protrusion, 26 ... step portion formed on the inner wall of the outer cylindrical body, 27 ... heater, 28 ... Stopper hand 29 ... Screws, 30 ... Washers, 31 ... Heaters, 32 ... Projections, 33 ... Spiral concave grooves, 34 ... Knobs, 35 ... Heaters, 36 ... Tubular rotating body, 37 ... guide groove, 38 ... knob, 39 ... heater, 40 ... projection formed with needle-like body, 41 ... heater, 42 ... Groove or hole, 43... Pressing part cover, 44.

Claims (10)

A heater that uses fired firewood as a heat source,
An outer cylindrical body,
An inner cylindrical body that is housed inside the outer cylindrical body, and that supports the ribbed material or an inner cylindrical body that fits the ribbed material;
A cylindrical support member that is inserted via a first coil spring into either the outermost portion of the outer cylindrical body and the stepped portion provided on the outer wall or the inner wall near the tip of the outer cylindrical body;
A pressing portion provided by projecting a perforated heat radiator having a plurality of heat radiation small holes at the front end portion of the front cylindrical support member;
The pressing portion is integrated with the cylindrical support member, and a plurality of holes are formed around the cylindrical support member for performing heat dissipation or air suction and discharge. Heater to be used.   The tubular support member is inserted through the first coil spring into either the foremost portion of the outer tubular body and the stepped portion provided on the outer wall or the inner wall near the distal end portion of the outer tubular body. The heater according to claim 1, further comprising one or more stopper means for fixing the outer cylindrical body at a desired position.   A stepped portion is provided on the outer peripheral wall of the portion near the tip of the outer cylindrical body, and the cylindrical support member is securely fixed to the outer cylindrical body by contacting a part of the stopper means to the stepped portion. The heater according to claim 2, wherein:   The said inner side support body has a projection part in which the acicular body was formed in the front-end | tip part cross section on the side which supports the said brazing material, The heater of Claim 1 characterized by the above-mentioned.   Grooves or holes into which the bundling member is fitted are formed in all or part of the outer peripheral surface of the boundary between the cylindrical support member and the pressing portion or the outer peripheral surface in the vicinity of the tip of the cylindrical support member. The heater according to any one of claims 1 to 4, which is characterized by the following.   A moving operation means for moving the inner support body or the inner cylindrical body to a desired position inside the outer cylindrical body; and a movement distance of the inner support body or the inner cylindrical body by the movement operation means. It adjusts from the exterior of a cylindrical body, The heater in any one of Claims 1-5 characterized by the above-mentioned.   The moving operation step is a pair of guide grooves cut into the outer cylindrical body, a second coil spring disposed so as to tie the inner support body or the inner cylindrical body, the inner support body or A pair of protrusions provided outside the inner cylindrical body, the pair of protrusions inside the pair of guide grooves cut into the outer cylindrical body, and the helical pitch of the second coil spring Are arranged so as to contact at least one of the springs, and the bottom part connected to or joined to the second coil spring is turned as a knob part to rotate the coil springs, thereby The protrusion is moved back and forth steplessly along a pair of guide grooves cut into the outer cylindrical body, and the inner support body or inner cylindrical body is adjusted to a desired position in the longitudinal direction of the outer tubular body. It is characterized by placing Thermal device of claim 6.   A second coil spring disposed at a lower portion of the inner support body or the inner cylindrical body, and the moving operation means for fixing the inner support body or the inner cylindrical body to the outer cylindrical body at a desired position; The heater according to claim 6, further comprising stopper means.   The moving operation means has a structure in which a pair of protrusions are provided on the inner support body or the inner cylindrical body, and the pair of protrusions are screwed into a pair of spiral grooves formed on the inner wall of the outer cylindrical body. The heating according to claim 6, wherein the inner cylindrical body is moved back and forth in an axial direction steplessly by turning a knob connected to or joined to the inner support body or the inner cylindrical body. vessel.   A tubular rotating body is accommodated between the outer tubular body and the inner support body or the inner tubular body, and the moving operation means provides a pair of protrusions on the inner support body or the inner tubular body, The inner support body or the inner cylindrical body, wherein the protrusion is screwed into a pair of spiral groove grooves provided on the inner wall of the outer cylindrical body via a pair of guide grooves cut into the tubular rotating body, It has a structure in which a tubular rotating body and the outer cylindrical body are combined, and the slider is moved back and forth stepwise in the longitudinal direction by turning a knob connected or joined to the tubular rotating body. The heater according to claim 6.

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