KR200320851Y1 - Electric heating plate having nephrite - Google Patents

Abstract

The present invention relates to an jade plate heat transfer plate, a plate layer having a predetermined area in which a plurality of jade plate plate is disposed in a plane, and the non-combustible resin and jade stone powder to stir each other to bind the jade plate plate, the clearance between the jade plate A plate-like heat transfer in which an adhesive layer that can be filled in a space, a heating member for heating the plate layer to a predetermined temperature, and a finishing layer for finishing the heating member by stirring the non-flammable resin and the jade raw stone powder are sequentially stacked. A sheet; The heating member may include: a heating wire electrically connected to a power source to dissipate heat of a predetermined temperature and disposed between the adhesive layer and the finishing layer; An electromagnetic wave shielding layer disposed between the adhesive layer and the heating wire to block electromagnetic waves generated from the heating wire from being transferred to the plate layer; And an insulating layer disposed between the heating wire and the finishing layer to insulate the heat emitted from the heating wire.

Description

Jade heating plate {Electric heating plate having nephrite}

The present invention relates to an jade heat transfer plate, and more particularly, to a jade heat transfer plate having a structure in which a plurality of thin octane plates are disposed on a plane and can be heated to a predetermined temperature by a heating wire. .

In recent years, the development of industry, the increase of income, and the improvement of living standards have resulted in a significant change in housing culture. In particular, as the interest in health increases day by day, various health-related products including exercise equipments are being developed.

As one of these health-related products, sleep apparatuses for developing a comfortable sleep while maintaining health are being developed, and among these sleep apparatuses, stone beds having a traditional ondol effect have been devised. In recent years, a product that can provide a more beneficial effect on the human body by attaching the jade stone of the disc to the stone bed, and at the same time, has gained great popularity. As is well known, the jade component emits a large amount of far-infrared rays, and the amount of radiation is greatly increased when heated, enabling a good night's sleep, and promoting blood circulation to prevent skin aging and smoothing metabolism. It is known.

By the way, the conventional heat transfer type oak bed is generally formed of a single sheet of the oak sheet, so it is difficult to obtain such an jade material, and there is a problem that it may be damaged during processing, and thus there is a problem of handling with care. In addition, due to the disadvantages of handling the above-mentioned oxsheet, the conventional electric heated bed is increased in manufacturing cost and cost as the jade sheet is replaced with a thick disc, which increases the economic burden on the consumer and is heavy. There is a problem in that transportation and movement is inconvenient. In addition, the conventional heat transfer type oak bed has a problem that the heating / heating time of the heat source becomes long due to the thick thickness of the ox sheet, thereby increasing the power consumption.

The present invention has been conceived to improve the above problems, it is easy to purchase jade plate, can reduce the manufacturing cost and cost, can reduce the overall weight, as well as the heating / heating time of the jade plate It is an object of the present invention to provide an jade heat transfer plate having a structure in which a plurality of thin jade plates are combined in a planar manner so as to greatly reduce power consumption.

Figure 1 is a perspective view showing the configuration of the jade stone heat transfer plate according to the first embodiment of the present invention.

2 is a cross-sectional configuration of FIG.

3a to 3f is a cross-sectional view for explaining the manufacturing procedure of the jade heating plate according to the first embodiment of the present invention.

Figure 4 is a cross-sectional view showing the configuration of the jade stone heat transfer plate according to a second embodiment of the present invention.

Figure 5 is a cross-sectional view showing the configuration of the jade stone heat transfer plate according to a third embodiment of the present invention.

Figure 6 is a perspective view showing the configuration of the jade stone heat transfer plate according to a fourth embodiment of the present invention.

7 is a cross-sectional view of FIG. 6.

<Explanation of symbols for the main parts of the drawings>

10,20,30 ... heat transfer sheet 11 ... plate layer

12 ... jade plate 13 ... adhesive layer

14 ... heating element 15 ... electric wave blocking layer

16 ... heat wire 17 ... power wire

18 ... insulating layer 19 ... finishing layer

21 ... coating layer 31 ... heat sink

32 ... Vein blocking plate 50 ... Base member

51.Mating groove 52.Waterproof nonwoven fabric

F ... frame member

The present invention for achieving the above object is a plate layer of a predetermined area in which a plurality of jade plate is disposed in a plane, and the non-combustible resin and jade stone powder is stirred to bind each jade plate is a gap between the jade plate A plate-like heat transfer in which an adhesive layer that can be filled in a space, a heating member for heating the plate layer to a predetermined temperature, and a finishing layer for finishing the heating member by stirring the non-flammable resin and the jade raw stone powder are sequentially stacked. A sheet; The heating member may include: a heating wire electrically connected to a power source to dissipate heat of a predetermined temperature and disposed between the adhesive layer and the finishing layer; An electromagnetic wave shielding layer disposed between the adhesive layer and the heating wire to block electromagnetic waves generated from the heating wire from being transferred to the plate layer; And an insulating layer disposed between the heating wire and the finishing layer to insulate the heat emitted from the heating wire.

In the jade heating plate according to the present invention, the plate layer is preferably polished surface exposed to the outside.

In the jade heating plate according to the present invention, the plate layer is preferably coated with a coating layer made of non-combustible transparent resin on the surface exposed to the outside.

In the jade heating plate according to the present invention, the electromagnetic wave shielding layer is provided with an aluminum thin plate.

In the jade heating plate according to the present invention, the insulating layer is provided with a nonwoven fabric or glass fiber.

In the jade stone heat transfer plate according to the present invention, the heat transfer sheet: a heat dissipation plate of wood material for blocking the heat radiated from the heat generating member to be transmitted to the outside through the finishing layer; And a vein blocking plate of the same material which is in contact with the bottom surface and can substantially block the veins in the basement.

The jade heating plate according to the present invention, the heat transfer sheet further comprises a plate-shaped base member that can be molded on the upper surface.

In the jade heating plate according to the present invention, the base member is formed on the upper surface is formed a joining groove for the heat-transfer sheet is bonded, it is preferable that the waterproof non-woven fabric is attached to the remaining portion except the matching groove.

Since the jade heating plate according to the present invention has a structure in which a plurality of thin jade plates are combined in a planar shape, it is easy to purchase jade material, and the overall weight and thickness can be greatly reduced, so that transportation and movement can be performed. Not only is it convenient, but manufacturing cost and cost can be reduced. In addition, the jade stone heat transfer plate according to the present invention can reduce the heating / heating time of the heating wire to the plate layer as the thickness of the plate layer is thin, it can significantly reduce the power consumption.

Hereinafter, with reference to the accompanying drawings the jade stone heat transfer plate according to a first embodiment of the present invention will be described in detail.

1 is a perspective view showing the configuration of an jade heating plate according to a first embodiment of the present invention, Figure 2 is a cross-sectional configuration of FIG.

1 and 2, the jade heating plate 100 according to the first embodiment of the present invention is a heat transfer sheet in the form of a flooring material which is installed on the floor surface of a room, such as a residential space, jjimjilbang or bathroom, The jade stone plate is disposed on a plane and exposed to the outside, and has a structure capable of heating the jade plate plate to a predetermined temperature by a heated electric wire.

The jade heat transfer plate 100 for this purpose is a clearance gap between the plate layer 11 having a plurality of jade plate 12 is disposed in a plane and the jade plate 12 to bind each jade plate 12 (12). The adhesive layer 13 that can be filled in, the heating member 14 for heating the plate layer 11 to a predetermined temperature, and the finishing layer 19 for finishing the heating member 14 are sequentially stacked The plate-shaped heat transfer sheet 10 is provided. In the jade-heat transfer plate 100 according to the present invention, the plate layer 11, the adhesive layer 13, the heat generating member 14 and the finishing layer 19 are sequentially stacked from the upper surface as shown in the figure. However, hereinafter, an example in which the plate material layer 11, the adhesive layer 13, the heat generating member 14, and the finishing layer 19 are sequentially stacked from the bottom surface will be described for better understanding by those skilled in the art. That is, an example in which the surface of the plate layer 11 exposed to the outside is in contact with the bottom surface, and the adhesive layer 13, the heat generating member 14, and the finishing layer 19 are sequentially stacked from the top surface of the plate layer 11. Explain.

The plate layer 11 has a substantially rectangular jade plate 12 having a predetermined width and length are continuously arranged in a plane. Each jade plate 12 is relatively thinner than a conventional jade plate made of one disc, and has an jade stone plate having a smooth edge portion. The jade plate 12 forming the plate layer 11 has a thickness of 3 to 10 mm, and preferably has a thickness of 5 mm. The plate layer 11 is surface-treated by a general grinder so that the surface of the jade plate 12 exposed to the outside, that is, the upper surface in the figure can be polished. For reference, jade stones are divided into semi-precious stones in strength, hardness and mass, and can be classified into white jade, nephrite, calcium jade, topaz, ruby, black jade, jade, original jade and quail. Such jade can emit a heat wave or cold wave according to the external temperature, and far infrared rays are radiated together with the heat wave. The jade is constantly generating a group of wavelengths that are very suitable for the human body, and when in close proximity to the human body is known to have the effect of activating the latent groups in the human body as well as to promote sterilization and odor removal and blood circulation by far infrared rays.

The adhesive layer 13 is for substantially binding each jade plate 12. The adhesive layer 13 is applied to the lower surface of the plate layer 11, that is, the opposite surface of the gloss surface in a drawing with a predetermined thickness, and the space between the non-combustible resin and the jade raw stone powder is stirred at a predetermined ratio and the jade plate 12 Is filled in. Here, the adhesive layer 13 is applied to the lower surface of the plate layer 11 as shown in the figure, the plate layer 11, the adhesive layer 13, the heat generating member 14 and the finishing layer 19 are sequentially laminated from the lower surface In the illustrated example, the upper surface of the plate layer 11 is applied. That is, the adhesive layer 13 is apply | coated on the upper surface of the board | plate material layer 11, and the lower surface is surface-treated.

The adhesive layer 13 is partially filled in the clearance space between the jade plate 12 in a state unfolded to have a predetermined thickness on the upper surface of the plate layer (11). Therefore, each jade plate 12 is firmly bound to each other as the non-flammable resin of the adhesive layer 13 is cured after a predetermined time. Here, the non-combustible resin as the main material of the adhesive layer 13 is a general thermosetting resin which does not burn within a certain temperature range, and the jade stone powder is a finer mesh than crushed or fine sand like jade stone having a predetermined size. It is ground to have. The adhesive layer 13 refers to a mortar in which approximately 5 to 15% by weight, preferably 8% by weight of non-combustible resin, and 85 to 95% by weight, and preferably 92% by weight of octane gemstone powder are stirred.

The heat generating member 14 is disposed on the upper surface of the adhesive layer 13, and has a structure capable of transferring power of a predetermined temperature to the plate layer 11 by receiving power. More specifically, the heat generating member 14 includes an electromagnetic wave shielding layer 15, a heating wire 16, and a thermal insulation layer 18 that are sequentially stacked from an upper surface of the adhesive layer 13.

The electromagnetic wave shielding layer 15 is used to shield the electromagnetic wave generated from the heating wire 16 from being transmitted to the plate layer 11 when power is applied to the heating wire 16. Is attached to the top of the

The hot wire 16 is capable of dissipating heat at a predetermined temperature by receiving power, and is disposed in a zigzag shape on the upper surface of the electromagnetic wave shielding layer 15, and the temperature of heat dissipated is varied according to the intensity of the power. The heating wire 16 is connected to a power line 17 electrically connected to a power source.

The thermal insulation layer 18 functions to spread the heat emitted from the hot wire 16 widely and evenly transfer the heat to the plate layer 11. Preferably, the thermal insulation layer 18 is provided with conventional thermal nonwoven or glass fibers.

The finishing layer 19 is for finishing the heating member 14 laminated on the upper surface of the adhesive layer 13, the non-combustible resin and jade stone powder is stirred at a predetermined ratio to a predetermined thickness on the upper surface of the insulating layer 18 Is applied. The finishing layer 19 refers to a bottom layer that is substantially in contact with the bottom surface of the indoor space. As an alternative, the finishing layer 19 is not limited to being applied only to the upper surface of the heat generating member 14, each applied to each side of the jade stone plate 100 according to the present invention is exposed to the outside as shown in the figure You can also close the sides.

When described in detail with reference to the accompanying drawings the manufacturing order of the jade stone heat transfer plate according to a first embodiment of the present invention configured as described above are as follows.

3A to 3F are cross-sectional views illustrating a manufacturing procedure of an jade heat transfer plate material according to a first embodiment of the present invention.

As shown in FIG. 3A, first, a frame member F having a predetermined internal space having an upper end opened and a lower end closed is manufactured. The frame member F has a rectangular shape in overall shape, and has a structure in which four sides are bent upright so that an internal space of a predetermined width is formed. The frame member F is preferably made of an aluminum material having no property of absorbing moisture, and may be made of glass, a silicon material, and melamine MDF.

Subsequently, a plurality of jade plate 12 having a predetermined width, length and a thickness of approximately 3 to 10 mm are processed into square shapes, and one surface of the jade plate 12 is polished to give gloss.

Next, after washing the inner surface of the frame member F cleanly, the plate layer 11 is formed by densely placing a plurality of jade plate 12 on the bottom surface of the frame member (F). At this time, the polished surface of the jade plate 12 is arranged to contact the bottom surface of the frame member (F).

Subsequently, as shown in FIG. 3B, about 5 to 15 wt% of the nonflammable resin and about 85 to 95 wt% of the octane gemstone powder are stirred in a separate vessel, and the mixture is then top surface of the plate layer 11. The adhesive layer 13 is formed wide on the plane.

Next, the frame member (F) is subjected to vibration. Then, the mixture of the non-combustible resin and the jade raw stone powder is filled in the clearance gap between the jade plate 12 from the upper surface of the plate layer 11.

Subsequently, as shown in FIG. 3C, the electromagnetic wave blocking layer 15 is attached to the upper surface of the adhesive layer 13, and as shown in FIG. 3D, the hot wire 16 is zigzag on the upper surface of the electromagnetic wave blocking layer 15. Then, as shown in FIG. 3E, the thermal insulation layer 18 is covered on the heating wire 16.

Next, as shown in FIG. 3F, a mixture of the non-combustible resin and the jade raw stone powder is widely spread on the top surface of the insulating layer 18 to form a finishing layer 19.

Finally, after curing the adhesive layer 13 and the finishing layer 19 in a predetermined temperature atmosphere, if the frame member (F) is turned upside down, the production of the jade plate heat transfer plate 100 as shown in FIG. Is done.

On the other hand, the jade heating plate 100 prepared as described above may be polished by surface-treating the finishing layer 19, each of the above by applying a mixture of the non-combustible resin and jade stone raw powder described above on each side It is also possible to finish the sides of the surface and to polish the sides.

Therefore, unlike the conventional jade heat transfer sheet consisting of one disc, the jade stone heat transfer plate 100 manufactured by such a sequence has a structure in which a plurality of thin jade plate 12 is combined, so that approximately 120 kg Unlike the prior art with a high weight of, the overall weight can be reduced to approximately 45 kg. In addition, the jade heating plate 100 according to the present invention can reduce the overall thickness to 4 cm, unlike the prior art having a thickness of approximately 10 cm. Due to this, the jade stone heat transfer sheet according to the present invention is easy to transport and move the product, it can significantly reduce the manufacturing cost and cost. In addition, the jade heating plate 100 according to the present invention has a structure that the thickness of the plate layer 11 is thinner than the conventional, the heating / heating time of the heating wire 16 to the plate layer 11 is shortened. For this reason, unlike the conventional method in which approximately 500W of power is consumed, the power consumption can be reduced to 150 to 250W, which is economical.

Figure 4 is a cross-sectional view showing the configuration of the jade stone heat transfer plate according to a second embodiment of the present invention.

Referring to FIG. 4, in contrast to the first embodiment, the jade stone heat transfer plate 200 according to the second embodiment of the present invention is a heat transfer sheet provided with a coating layer 21 of non-combustible resin on the top surface of the plate layer 11. 20 is provided.

The coating layer 21 is applied to the upper surface of the plate layer 11 exposed to the outside in order to suppress the absorption of moisture through the upper surface of the plate layer 11.

According to the present invention, after spraying a non-flammable resin for forming the coating layer 21 on the bottom surface of the frame member as in the first embodiment by a strong spray method, a plurality of jade plate 12 on the coating layer 21 ). Since the rest of the manufacturing procedure is the same as in the first embodiment, detailed description is omitted.

Figure 5 is a cross-sectional view showing the configuration of the jade stone heat transfer plate according to a third embodiment of the present invention.

Referring to FIG. 5, the jade heating plate 300 according to the third embodiment of the present invention, unlike the first and second embodiments of the present invention, is heated indoors through the heat finishing layer 19 emitted from the heating wire 16. As well as blocking heat radiation to the bottom surface of the space, it has a structure that can block the water vein of the basement to be transmitted to the plate layer 11 through the bottom surface of the room.

The jade stone heat transfer plate 300 for this purpose is a heat transfer sheet in which the heat sink 31 and the water vein blocking plate 32 are sequentially stacked on the bottom surface of the finishing layer 19 based on the plate layer 11 disposed on the top surface ( 10) is provided.

The heat dissipation plate 31 is for preventing heat radiated from the heating wire 16 from being radiated to the outside through the finishing layer 19 in a state in which the heat is radiated to the insulating layer 18. Preferably, the heat sink 31 is made of a paulownia tree with a relatively light weight.

The vein blocking plate 32 is a heat sink 31 in order to substantially block the transfer of the underground vein to the user's body through the plate layer 11 when the heat transfer sheet 10 is installed on a predetermined bottom surface. The plate of the same material is attached to the bottom of the.

According to the present invention, as in the first embodiment, in the state in which the finishing layer 19 is applied, the heat sink 31 is attached to the top surface of the finish layer 19, and then the water vein blocking on the top surface of the heat sink 31 The plate 32 is attached.

Figure 6 is a perspective view showing the configuration of the jade plate heat transfer plate according to a fourth embodiment of the present invention, Figure 7 is a cross-sectional configuration of FIG.

6 and 7, the jade heating plate 400 according to the fourth embodiment of the present invention has a structure of a conventional heat transfer mat type that can be moved freely in a residential space or jjimjilbang.

The jade heating plate 400 for this is provided with a base member 50 to which the heat-transfer sheet manufactured by the first, second, third embodiments can be molded. In the jade heating plate 400 according to the present invention, all the heat transfer sheets according to the first, second, and third embodiments may be molded to the base member 50. However, hereinafter, an example in which the heat transfer sheet 10 manufactured according to the first embodiment is joined to the base member 50 will be described.

The base member 50 is a plate having a substantially square shape having a predetermined width and length, and a mating groove 51 to which the heat transfer sheet 10 is substantially joined is formed on the upper surface. The base member 50 is relatively light in weight, and is preferably made of a wood material, for example paulownia, in which heat emitted from the heat transfer sheet 10 is not discharged to the outside. In addition, the base member 50 is a waterproof nonwoven fabric 52 is attached to the outer surface of the remaining portion other than the mating groove (51). The waterproof nonwoven fabric 52 not only makes a beautiful appearance of the jade heating plate 400, but also functions to block moisture in the base member 50 made of wood. Therefore, since the heat transfer sheet 10 itself is installed in a separate base member 50, the jade stone heat transfer plate 400 according to the present embodiment can be freely moved like a conventional heat transfer mat.

According to the present invention, after manufacturing the plate-shaped heat transfer sheet 10 as in the first embodiment, the heat transfer sheet 10 is bonded to the fitting groove 51 of the base member 50.

As described above, the jade heat transfer plate according to the present invention has the following effects.

First, since the thin jade plate has a structure in which a plurality of jade sheets are combined in a plane, it is easy to purchase jade material, and the overall weight and thickness can be greatly reduced, which is convenient for transportation and movement, as well as manufacturing cost and cost. Can reduce the cost. That is, the jade heating plate according to the present invention can reduce the overall weight to 45kg, unlike the conventional having a weight of about 120kg, and can reduce the overall thickness to 4cm unlike the conventional having a thickness of about 10cm.

Second, as the thickness of the plate layer becomes thinner, the heating / heating time of the heating wire to the plate layer can be shortened, so that the power consumption can be reduced to 150 to 250 W, unlike conventional ox sheets that consume about 500 W of power. It is economical.

Claims (8)

A plate layer having a predetermined area in which a plurality of jade plate materials are arranged in a plane, an adhesive layer in which a non-combustible resin and an jade stone powder may be stirred and filled in the gap space between the jade plate materials to bind the respective jade plate materials, and A heat generating member for heating the plate layer to a predetermined temperature, and a plate-shaped heat transfer sheet in which a non-flammable resin and an jade raw stone powder are agitated and a finishing layer capable of finishing the heat generating member is sequentially stacked; The heating member is: A heating wire electrically connected to a power source to dissipate a predetermined temperature and disposed between the adhesive layer and the finishing layer; An electromagnetic wave shielding layer disposed between the adhesive layer and the heating wire to block electromagnetic waves generated from the heating wire from being transferred to the plate layer; And And an insulating layer disposed between the heating wire and the finishing layer to insulate the heat emitted from the heating wire. The method of claim 1, The plate material layer is jade heat transfer plate, characterized in that the surface exposed to the outside is polished. The method of claim 1, The plate layer is an jade heat transfer plate, characterized in that the coating layer made of a non-flammable transparent resin is applied to the surface exposed to the outside. The method of claim 1, The electromagnetic wave shielding layer is an jade heat transfer plate, characterized in that the thin aluminum plate. The method of claim 1, The insulating layer is an jade heat transfer plate, characterized in that the non-woven fabric or glass fiber. The method of claim 1, The heat transfer sheet is: A heat dissipation plate made of wood material for blocking heat radiated from the heat generating member from being transmitted to the outside through the finishing layer; And An jade heat transfer plate, characterized in that it further comprises a vein blocking plate of the same material that is in contact with the bottom surface can substantially block the water vein underground. The method according to claim 1 or 6, The heat transfer sheet is an jade heating plate, characterized in that it further comprises a plate-shaped base member that can be molded on the upper surface. The method of claim 7, wherein The base member is formed on the top surface of the heat insulating sheet is formed with a groove, the jade heat transfer plate, characterized in that the waterproof non-woven fabric is attached to the remaining portion except the groove.