KR20180076668A - Floor heating plate for stable and Manufacturing method - Google Patents

Abstract

The present invention relates to a floor heating plate for a livestock pen, which comprises: an upper plate having a side wall extending downwards along the edge of an upper surface thereof and having a box shape with an open bottom; a heating wire wired inside the upper plate; loess filling the inside of the upper plate where the heating wire is wired; a heat transfer member stacked on the lower side of the loess; a heat insulation member stacked on the lower side of the heat transfer member; and a lower plate assembled to close the open bottom of the upper plate. The floor heating plate for a livestock pen can be selectively installed on the floor of a livestock pen easily for livestock animals to actively control the body temperature.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a floor heating plate,

The present invention relates to a floor heating plate for shaft use and a method of manufacturing the same, and more particularly, to a floor heating plate for shaft use, and more particularly to a floor heating plate capable of selectively installing on a floor requiring heat generation, And a method of manufacturing the same.

Generally, livestock farming houses are made of lightweight prefabricated structure, so they are very cold in winter and very hot in summer. The livestock is stressed and the growth rate is lowered or the reproductive capacity is lowered. There have been many studies to make.

For example, Korean Utility Model Registration No. 0215316 (Prior Art 1), a heater for housing heating, and an electric heater made of a sheathed heater are equipped with a screw cap screwed into the socket, And the central terminal and the screw cap are separately connected to the main surface of the screw cap.

Korean Patent Laid-Open Publication No. 10-2010-0131791 (Prior Art 2) discloses a heating system for a shaft, which has a floor, a wall formed on a side surface of the floor, and an inner space formed by a roof covering the top of the wall. And a plurality of carbon heating members spaced apart from the floor so as to uniformly heat the inner space by dividing the floor area into several equal parts and disposed inside the housing at predetermined intervals .

However, since Prior Art 1 needs to be installed upright on the same stall as the stand, it is a part of the space where the livestock should be kept, which not only reduces the activity range of the livestock, There is a risk of fire if the heater falls like this.

The prior art 2 has a structure in which a mat-shaped carbon heating member is installed vertically to the bottom of the housing, thereby reducing the activity range of the domestic livestock. In addition, the heat energy generated by the carbon heating member reduces the air inside the housing And the temperature is raised by heating. Therefore, in order to minimize the release of heat energy to the outside of the housing, the housing is closed by a heat insulating panel or the like, and thus the construction cost of the housing is considerably increased.

KR, B, 20-0215316 (Dec. 19, 2000) KR, A, 10-2010-0131791 (December 16, 2010)

SUMMARY OF THE INVENTION The present invention has been made to solve the above-mentioned problems, and it is an object of the present invention to provide a floor heating plate for a shaft which can be installed selectively on a floor requiring heat generation.

It is another object of the present invention to provide a floor heating plate for a shaft which is installed at the bottom of a barn and can be actively controlled by a livestock requiring warming, thereby requiring no additional management for controlling the temperature of the livestock.

It is also an object of the present invention to provide a bottom heating plate for a shaft, which is capable of flowing the manure of the livestock in a predetermined direction so that the fodder does not accumulate on the floor, thereby clearing the growth environment of the livestock.

Technical Solution According to an aspect of the present invention, there is provided a method of manufacturing a heat exchanger including a top plate having a side wall extending downward along an edge of an upper surface thereof and having a bottom opened, And a lower plate assembled to close an open lower portion of the upper plate and a heat transfer member to be stacked on a lower portion of the heat transfer member, Wherein the shaft-use floor heating plate is made of an elastic material.

Here, it is preferable that the upper surface of the upper plate has a gradient.

Further, it is preferable that the upper surface of the upper plate forms an arc.

Further, it is preferable that a non-slip is formed on the upper surface of the upper plate.

The upper plate may have a first reinforcing rib formed by a plurality of first ribs partitioning the inside of the upper plate in the longitudinal direction of the upper plate and a plurality of second ribs partitioning in the width direction, It is preferable that a slit is formed so as to pass through.

At this time, the slits are preferably formed in the first reinforcing rib so that the heat rays can be wired in a zigzag shape along the longitudinal direction of the upper plate.

Preferably, the upper plate includes a fastener having a bolt inserted therein and the bolt passing through the lower plate and fastened to the nut, and the bolt is inserted at a position where the first partition and the second partition intersect each other .

In addition, it is preferable that the upper plate has a step formed on the inner surface of the side wall thereof, and the lower plate is seated on the step.

The upper plate may further include a plurality of latch pieces formed along an outer surface of the side wall. The latch piece may include a horizontal portion extending horizontally from the outer surface of the side wall, and a bent portion bent toward the ground from the end of the horizontal portion. And the catching part is seated on a supporting frame constructed on the ground of the housing.

The support frame is preferably inserted into the top plate to form a height at which the free end of the bolt passing through the bottom plate can be spaced apart from the bottom surface of the housing.

Preferably, the latching piece further includes a second reinforcing rib that integrally connects the outer surface of the side wall and the horizontal portion to reinforce the second reinforcing rib.

The lower plate has a plurality of third ribs formed in the longitudinal direction of the lower plate and a plurality of fourth ribs formed in the width direction on the lower surface of the lower plate, and the third ribs and the fourth ribs It is preferable that a boss is formed at an intersecting position.

Preferably, the loess is mixed with a heat sink for absorbing and dissipating the heat radiated through the hot wire.

At this time, it is preferable that the heat sink is any one selected from the group consisting of rice husks, charcoal, waste glass pieces, aluminum oxide, magnesium oxide and heat pipes, or a combination thereof.

It is also preferable that the loess is a mixture of any one selected from the group consisting of ridges, meshes or webs, or a combination thereof.

According to another aspect of the present invention, there is provided a method of manufacturing a bottom heating plate for a shaft, comprising the steps of: A curing step of curing so as to harden the yellow clay charged in the upper plate, a curing step of curing the yellow clay filled in the upper plate, and a curing step of curing the yellow clay filled in the upper plate, And a lower plate assembling step for mounting the lower plate to the lower portion of the upper plate after the heat insulating member is installed. [0018] According to another aspect of the present invention, there is provided a method of manufacturing a heat exchanger, By using an axial bottom heating plate.

Here, the yellow clay manufacturing step may include a heat sink for absorbing and dissipating the heat radiated through the hot wire, and a surface reinforcing member for reinforcing the strength of the cured loess, or a combination thereof, .

In addition, it is preferable that the filling step is to overflow the ocher of the pudding with the slit formed through the first reinforcing rib of the upper plate so as to allow the heat ray to pass therethrough.

In addition, it is preferable that the curing step cures the upper plate filled with the loess for 4 to 6 days at room temperature.

The heat transfer member may further include a pressing step of laminating the heat transfer member on the loess before the completion of the curing step.

Preferably, the step of installing the heat insulating member further includes a sealing step of sealing the upper plate and the heat transfer member before the heat insulating member is laminated to the heat conducting member.

According to the bottom heating plate for axial use according to the present invention, it is possible to partially construct a bottom of a housing for housing a livestock, which is formed in a rectangular plate shape, and a latching piece is formed on the top plate, It is convenient to install and disassemble as well as it is possible to assemble several pieces according to the floor area of the house, so that it can be installed in a large area housing.

In addition, the livestock that are kept in the housing is actively placed on the upper plate, so that the contact between the skin of the livestock and the upper plate can raise the temperature of the livestock.

Further, since a slope is formed on the upper surface of the upper plate, the manure of the livestock flows down to the outside of the upper plate along the gradient, so that the manure is not accumulated on the upper plate and a gap is formed between the bottom of the housing and the heating plate, The growth environment of the livestock can be cleaned.

In addition, the inside of the top plate has a purification function and a loess soil which emits far infrared ray, so that it can suppress the propagation of harmful bacteria and viruses, and the far infrared rays are transmitted deeply to the skin of the livestock, which helps healthy growth of the livestock.

1 is a perspective view illustrating a bottom heating plate for axial use according to the present invention.
FIG. 2 is an exploded perspective view of the shaft-use floor heating plate according to the present invention.
FIG. 3 is an exploded perspective view of an axial floor heating plate according to the present invention, as viewed from below.
FIG. 4 is a cross-sectional view illustrating a shaft-use floor heating plate according to the present invention.
FIG. 5 is a state view showing the installation of the shaft-use floor heating plate according to the present invention.
6 is a flowchart showing a manufacturing method of a bottom heating plate for axial use according to the present invention.

The terms and words used in the present specification and claims should not be construed as limited to ordinary or dictionary meanings and the inventor may properly define the concept of the term to describe its invention in the best possible way And should be construed in accordance with the principles and meanings and concepts consistent with the technical idea of the present invention.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings.

FIG. 1 is a perspective view showing a shaft-use floor heating plate according to the present invention, and FIG. 2 is an exploded perspective view illustrating a shaft-use floor heating plate according to the present invention.

1 is a perspective view of a bottom heating plate according to an embodiment of the present invention; FIG. 2 is a side view of a bottom heating plate according to an embodiment of the present invention; A heat transfer member 400 stacked on the lower part of the yellow soil 300 and the yellow soil 300 to be filled in the top plate 100 in which the hot wire 200 and the hot wire 200 are wired inside the top plate 100, A heat insulating member 500 stacked on the lower portion of the heat transfer member 400 and a lower plate 600 assembled to close the opened lower portion of the upper plate 100.

In other words, the top plate 100 is in the form of a plate made of a material such as a synthetic resin, which is brought into contact with the skin to find the warmth of the livestock. The upper plate 100 has a side wall 120 extending downward along the edge of the upper surface 110. The side wall 120 forms a height of about 5 to 6 cm and a length of the upper surface 110 And a width of 40 cm.

Particularly, when the upper surface 110 of the upper plate 100 according to the present invention forms a gradient and foreign matter, that is, livestock manure, or the like is accumulated on the upper surface 110 of the upper plate 100, the upper surface 110 has a gradient So that foreign matter flows down to one side and prevents foreign matter from accumulating on the upper surface 110 of the upper plate 100.

In some cases, an arc may be formed on the upper surface 110 of the upper plate 100. That is, the top surface 110 of the upper plate 100 has the shape of an arc having lower height than that of the center of the upper surface 110, so that when foreign substances are accumulated on the upper surface 110 of the upper plate 100, The foreign matter flows down and prevents the foreign matter from accumulating on the upper surface.

The upper surface of the upper plate 100 having the gradient or arc as described above is formed such that a non-slip 112 is formed on its surface so that the upper surface of the upper plate 100 slides when the livestock is positioned on the upper surface of the upper plate 100 .

The non-slip 112 may be a protrusion protruding from the upper surface 110 of the upper plate 100 at a predetermined interval. At this time, the protrusions are formed on the upper surface 110 so that the cross-section has a shape of a dome, so that the foreign substances do not interfere with the flow of the foreign matter to one side or both sides of the upper surface 110 along the gradient or arc of the upper surface 110 do.

When the convex protruding protrusions are formed on the upper surface 110 of the upper plate 100 as described above, since the pigs such as pigs having a habit of rubbing the body rub against the upper surface 110 of the upper plate 100, Thereby preventing the breakage of the fence.

The upper plate 100 has a structure in which a side wall 120 extends downward along an edge of the upper plate 100 and a lower portion of the upper plate 100 opens to form an empty space in the upper plate 100, The open bottom of the upper plate 100 is closed by the lower plate 600 after the heat ray 200, the loess 300, the heat transfer member 400 and the heat insulating member 500 are installed inside.

That is, the heat ray 200 is wired in the upper plate 100 to convert the electric energy into heat energy to heat the upper plate 100. 1, the heating wire 200 is electrically connected to a control box C for controlling the temperature of the heating wire 200, so that the heating wire 200 is operated by the control box C. As shown in FIG.

The control box C is provided with a control unit for controlling the heating temperature of the heating wire 200 to prevent the surface temperature of the top plate 100 from rising sharply, Thereby preventing contact with the upper plate 100 and wearing of the image.

The heat ray 200 is wired along the slit 133 formed in the first reinforcing rib 130 formed in the upper plate 100. This will be described with reference to FIGS. 3 and 4. FIG.

FIG. 3 is an exploded perspective view of the shaft-use floor heating plate according to the present invention, and FIG. 4 is a cross-sectional view illustrating the shaft-use floor heating plate according to the present invention.

Referring to the drawings, a first reinforcing rib 130 is formed in the upper plate 100 to reinforce the strength of the upper plate 100 having an empty space formed therein. The first reinforcing rib 130 includes a plurality of first partition walls 131 and a plurality of second partition walls 132 that partition in the longitudinal direction of the upper plate 100 and a plurality of second partition walls 132 that partition in the width direction, When the cattle is positioned, the first reinforcing rib 130 supports the load, thereby preventing the top plate 100 from being damaged.

As shown in FIG. 3, the first rib 131 and the second rib 132 are formed in a lattice shape at regular intervals, so that the first reinforcing rib 130 interlocks the inside of the upper plate 100 with a plurality of portions .

When the inside of the upper plate 100 is partitioned by the first partition 131 and the second partition 132 as described above, when the upper partition 100 is filled with loess and the upper partition 100 is excessively impacted, And the second partition 132 protect the yellow clay 300 cured from the impact to prevent the yellow clay 300 cured inside the top plate 100 from cracking or breaking.

The first partition 131 and the second partition 132 are formed in a slit 133 through which the heat ray 200 passes so that the heat ray 200 can be wired in a zigzag shape along the longitudinal direction of the top plate 100 . The slits 133 are formed to have an interval larger than the outer diameter of the heat line 200 so that the heat rays 200 are staggered along the longitudinal direction of the upper plate 100 when the heat rays 200 are wired inside the upper plate 100. [ So that it can be wired in the form of a wire.

When the slit 133 is formed in the zigzag shape along the longitudinal direction of the upper plate 100 in the first reinforcing rib 130 as described above, the heat line 200 can be uniformly positioned according to the shape of the upper plate 100, The thermal energy generated by the operation of the heat exchanger 200 is uniformly transmitted to the entire upper plate 100.

When the slit 133 is formed in the first reinforcing rib 130 as described above, when the inside of the upper plate 100 is filled with the clay loess described below, the loess of the clay is deposited on the first reinforcing rib 130 Through the formed slit 133, overflows to adjacent adjacent compartments so that the filling of the yellow loess can be made uniform.

The upper plate 100 is provided with a fastener 140 so that the heat transfer member 400, the heat insulating member 500, and the lower plate 600 can be stably assembled. 3, the fastener 140 includes a bolt 141 inserted in the upper plate 100 and a lower plate 600 inserted in the upper plate 100 so as to be integrally formed with the upper plate 100, And a nut 142 fastened to the bolt 141 passing through the bolt 141. At this time, the bolt 141 is insert-molded at a position where the first partition 131 and the second partition 132 intersect with each other to stably support the bolt 141.

The top plate 100 is formed with a step 150 on the inner surface of the side wall 120 so that the step 150 is formed to form a step along the inner surface of the side wall 120. When the step 150 is formed on the inner surface of the side wall 120, the lower plate 600 is seated on the step 150, so that the lower plate 600 is positioned inside the upper plate 100 and the upper plate 100 and the lower plate 600 Can be prevented from being introduced into the gap between the upper plate 100 and the lower plate 600 because the interface between the upper plate 100 and the lower plate 600 is not exposed to the outside.

For example, when the lower plate 600 having the same area as the lower area of the upper plate 100 is assembled to the upper plate 100, the lower plate 600 is positioned at the lower end of the side wall 120 of the upper plate 100, The interface between the upper plate 100 and the lower plate 600 is exposed to the side surface of the upper plate 100 and the bottom of the barrel is exposed to the side surface of the upper plate 100 in such a state that the interface between the upper plate 100 and the lower plate 600 is exposed. The cleaning water may flow into the interface between the lower plate 600 exposed to the side surface of the upper plate 100 and the upper plate 100.

However, as described above, the step 150 is formed on the inner surface of the side wall 120 formed in the upper plate 100 and the lower plate 600 is placed on the step 150, so that the lower plate 600 is positioned inside the upper plate 100 The washing water is prevented from flowing into the inside of the upper plate 100 even if the bottom of the housing is cleaned with water.

The upper plate 100 has a plurality of engaging pieces 160 formed along the outer surface of the side wall 120. The latching piece 160 includes a horizontal portion 161 extending horizontally from the outer surface of the side wall 120 and a bent portion 162 bent toward the bottom of the housing from the end of the horizontal portion 161.

When the latching piece 160 is formed in the side wall 120 of the upper plate 100 as described above, the latching piece 160 is inserted into the support frame (shown by two-dot chain line) 700 . At this time, the end of the side wall 120 of the upper plate 100 may be spaced from the bottom of the housing depending on the height of the support frame 700.

For example, the support frame 700 may be inserted into the top plate 100 as shown in FIG. 4 and the free end of the bolt 141 passing through the bottom plate 600 may be spaced from the bottom of the housing A height can be formed.

When the end of the side wall 120 of the top plate 100 is separated from the bottom of the housing, the flow of washing water or air is smoothly performed when the bottom of the housing is cleaned. Thus, foreign matter such as manure of the domestic animal is prevented from accumulating on the bottom of the housing, And the cause of bacterial propagation is essentially blocked.

The engaging piece 160 formed on the side wall 120 of the upper plate 100 forms the second reinforcing rib 163 as described above. The second reinforcing rib 163 is formed on the side wall 120 formed on the upper plate 100, The outer surface of the upper plate 120 and the horizontal portion 161 formed on the engaging piece are integrally connected and reinforced so that the livestock is positioned on the upper plate 100 and the latching piece 160 is broken when a load is applied to the upper plate 100 . The second reinforcing ribs 163 may be formed on the engaging pieces 160 as shown in the original drawing of FIG.

Meanwhile, a third reinforcing rib 610 is formed in the lower plate 600, which is assembled to the lower portion of the upper plate 100 to close the opened lower portion of the upper plate 100, to reinforce the strength thereof. The third reinforcing rib 610 is formed on the lower surface of the lower plate 600. The third reinforcing rib 610 includes a plurality of third partition walls 611 formed in the longitudinal direction of the lower plate 600 and a plurality of fourth partition walls 612 ).

At this time, a bolt 141 passing through the bolt 141 of the fastener 140 is formed at a position where the third partition 611 and the fourth partition 612 intersect, and a bolt 141 passing through the lower plate 600 is formed. In a stable manner.

The loess 300 is filled between the upper plate 100 and the lower plate 600 assembled with the upper plate 100 by the upper plate 100 and the fastener 140 having the above structure. That is, when the inside of the upper plate 100 is filled with the yellow clay, the heat energy emitted from the heat ray 200 is transferred to the yellow clay soil 300 to function as a hearth, thereby transferring warmth to the upper surface of the upper plate 100 .

In addition, when the inside of the upper panel 100 is filled with the yellow clay (300), the propagation of bacteria and viruses harmful to the health of the livestock can be suppressed by the purifying action of the yellow clay. Heat will be transmitted to help the livestock health.

As described above, the yellow clay (300) filled in the upper plate (100) is mixed with the heat sink so that the heat energy radiated through the heat ray (200) can be quickly transferred to the entire area of the upper plate do.

The heat sink absorbs and radiates the heat radiated through the hot wire. The heat sink applied to the present invention may be any one selected from the group consisting of rice hull, charcoal, waste glass pieces, aluminum oxide, magnesium oxide, heat pipe, Or a combination thereof.

When the heat sink is mixed with the yellow clay so that the heat sink 200 is filled in the upper plate 100, the heat energy emitted from the heat ray 200 is transmitted to the heat sink, It is possible to rapidly raise the temperature of the upper surface of the substrate.

In addition, the loess is mixed with a surface reinforcing member having a shape of a ridge, a mesh, or a web to reinforce the strength of the loess (300). It has a shape of a ridge, a mesh, When the planar reinforcing member is mixed with the loess (300), the loess that has been cured inside the top plate (100) is prevented from cracking or breaking.

The heat transfer member 400 and the heat insulating member 500 are stacked between the yellow clay 300 and the lower plate 600 filled in the upper plate 100 as described above. The heat transfer member 400 is positioned below the yellow loess 300 and receives thermal energy emitted from the heat ray 200 to transmit heat energy to the yellow loess 300 located at a distance from the heat ray 200.

The heat transfer member 400 is made of a material having excellent thermal conductivity such as aluminum. The heat transfer member 400 is formed with a plurality of through holes through which the bolts 141 of the fastener 140 described above pass.

The heat insulating member 500 is positioned below the heat transfer member 400 to prevent the heat energy transferred to the heat transfer member 400 from being transmitted to the lower plate 600, I will keep it warm. The heat insulating member 500 may be a member made of a porous material such as styrofoam or glass fiber, and the surface of which is coated with an insulating coating.

The shaft-use floor heating plate according to the present invention having the above-described structure is formed in the shape of a rectangular plate and can be partially installed on the floor of the housing for raising the livestock. As shown in FIG. 5, the flute 160 can be selectively installed at a portion of the housing requiring heat generation, so that it is convenient to install and disassemble the flute, and a plurality of flutes can be assembled according to the floor area of the housing It can be applied to large-sized housing.

In addition, since the livestock that need to be kept in the housing is actively placed on the upper plate 100, the skin of the livestock and the upper plate 100 are brought into contact with each other to raise the temperature of the livestock, Is unnecessary.

In addition, since a slope is formed on the upper surface of the upper plate 100 so that the manure of the livestock flows down to the outside of the upper plate 100 along the gradient, manure is not accumulated on the upper plate 100, so that the growth environment of the livestock can be cleaned.

The production of the shaft bottom heat generating plate according to the present invention will be described with reference to FIG.

6 is a flowchart showing a manufacturing method of a bottom heating plate for axial use according to the present invention. The bottom heating plate according to the present invention may be manufactured in the same manner as the bottom heating plate according to the present invention except for the steps of producing the loess soil S100, the wiring step S200, the filling step S300, the curing step S400, the heat transfer member installing step S500, A member installing step (S600), and a lower plate mounting step (S700).

In further detail, the clay making step (S100) mixes an appropriate amount of water into the loess of the powder to make the loess into a clay-like state. At this time, the loess preparation step S100 includes a heat sink for absorbing and dissipating the heat energy emitted through the heat ray 200 installed in the inside of the upper plate 100 together with the loess, and a surface reinforcement member for reinforcing the strength of the cured native soil A mixing step of mixing the selected one or a combination thereof into the loess of the pudding can be further included.

At this time, the heat sink may be any one selected from the group consisting of rice hulls, charcoal, waste glass pieces, aluminum oxide, magnesium oxide, and heat pipes, or a combination thereof, And a stirring step may be further included so that such a heat sink is uniformly mixed with the loess with water.

Also, as described above, the surface reinforcing member may be any one selected from the group consisting of a ridge having a branch shape, a surface reinforcing member having a shape of a mesh or a web, or a combination thereof. So that the yellow loess that has been cured inside the top plate 100 is prevented from cracking or breaking.

In the wiring step S200, the heat ray 200 is wired inside the upper plate 100, and the heat ray 200 passes through the slit 133 formed in the first reinforcing rib 130 formed inside the upper plate 100 And is wired in a zigzag shape along the longitudinal direction of the upper plate 100. [

When the heat ray 200 is wired in the upper plate 100 as described above, a charging step (S300) of charging the inside of the upper plate 100 with the ocher of the puddle obtained in the slag producing step S100 is performed. At this time, in the charging step S300, the clay loess is filled with the first reinforcing rib 130 so as to have a uniform water level in the inside of the upper plate 100 partitioned into various parts.

Particularly, in the shaft using floor heating plate according to the present invention, the slit 133 through which the heat ray 200 passes is formed on the first reinforcing rib 130 formed in the inside of the upper plate 100, The ocher of the puddle is overflowed to the adjoining compartments through the slit 133 so that the puddle of the ocher 300 has a uniform level throughout the inside of the top plate, Do.

When the charging step S300 as described above is carried out, a curing step S400 is performed in which the air is drawn out from the ocher of the chestnut filled in the upper plate 100 and hardened. In the curing step (S400), the top board 100 filled with the loess is cured at room temperature for 4 to 6 days. When the upper panel 100 is cured at room temperature for 4 to 6 days as described above, the air contained in the yellow clay of the puddle is naturally exhausted, and at the same time, the water is evaporated to produce firmly hardened loess.

After the curing step S400 is performed, a heat transfer member installing step S500 for laminating the heat transfer member 400 to the yellow clay filled in the upper plate is performed. The step S500 of installing the heat transfer member may include a step of laminating the heat transfer member 400 on the ocher of the puddle before the curing step S400 is completed.

The pressurizing step is performed by laminating and pressing the heat transfer member 400 on the loess before a day before the curing step S400 is completed so that if the heat transfer member 400 is stacked on the loess before the loess of the pudding is completely hardened, The loess of the puddle is uniformly adhered to the surface of the thermally conductive member 400 by the load to increase the contact area between the loess and the heat transfer member 400 and the loess particles become dense due to the load of the heat transfer member 400, Thereby further facilitating the movement of the heat energy emitted from the heat source 200. In this pressing step, the weight applied to the loess can be further increased by raising the weight on the heat transfer member 400 stacked on the loess.

The step of installing the heat insulating member (S600) may include laminating the heat insulating member (500) on the heat transfer member (400). The step of installing the heat insulating member (S600) may further include a sealing step. The sealing step seals between the upper plate 100 and the heat transfer member 400 before the heat insulating member 500 is laminated on the heat transfer member 400 to prevent foreign matter from entering the inside of the upper plate 100, Is fixed so as not to move.

When the heat insulating member installation step S600 is performed as described above, the lower plate assembling step S700 is performed in which the lower plate 600 is installed on the lower portion of the upper plate 100. In the lower plate assembling step S700, Shaped bolt 141 penetrates through the lower plate 600 and is fastened by a nut 142. [

According to the method for manufacturing a floor heating plate for a shaft according to the present invention as described above, the contact area between the loess (300) and the heat transfer member (400) is increased and the cured loess has a dense structure, So that the temperature of the upper plate 100 can be increased in a short time.

While the present invention has been described with reference to exemplary embodiments, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, but, on the contrary, is intended to cover various modifications and equivalent arrangements included within the spirit and scope of the appended claims. .

100: upper plate 110: upper surface
112: non-slip 120: side wall
130: first reinforcing rib 131: first partition
132: second partition 133: slit
140: fastener 141: bolt
142: Nut 150: step
160: latching piece 161: horizontal part
162: bent portion 163: second reinforcing rib
200: Heat line 300: Yellow soil
400: heat transfer member 500: heat insulating member
600: lower plate 610: third reinforcing rib
611: third partition 612: fourth partition
613: Boss 700: Support frame
C: Control box

Claims (21)

An upper plate having a side wall extending downward along an edge of an upper surface thereof and having a bottom opened form;
A hot wire which is wired inside the upper plate;
A yellow soil to be filled in the top plate on which the hot wire is wired;
A heat transfer member laminated on the lower part of the loess;
A heat insulating member laminated on a lower portion of the heat transfer member; And
And a lower plate assembled to close the open lower portion of the upper plate.
The method according to claim 1,
Wherein the upper surface of the upper plate has a gradient.
The method according to claim 1,
Wherein the upper surface of the upper plate is circular arc.
The method according to claim 1,
Wherein the upper plate has a non-slip formed on an upper surface thereof.
The method according to claim 1,
The top plate
A first reinforcing rib formed by a plurality of first ribs partitioning the inside of the upper plate in the longitudinal direction and a plurality of second ribs partitioning in the width direction, Is formed on the bottom surface of the bottom plate.
The method of claim 5,
Wherein the slit is formed in the first reinforcing rib so that the hot wire is wired in a staggered shape along the longitudinal direction of the upper plate.
The method of claim 5,
Wherein the upper plate includes a fastener in which a bolt is inserted therein and the bolt penetrates the lower plate and is fastened to the nut,
The bolt
And the second partition is inserted at a position where the first partition and the second partition cross each other.
The method according to claim 1,
Wherein the upper plate has a step formed on the inner surface of the side wall and the lower plate is seated on the step.
The method according to claim 1,
The upper plate further includes a plurality of latching pieces formed along an outer surface of the side wall,
The retaining piece
A horizontal portion extending horizontally from an outer surface of the side wall; And
And a bent portion bent toward the ground from an end of the horizontal portion so that the holding piece is seated on a supporting frame constructed on the ground surface of the housing.
The method of claim 9,
The support frame
Wherein a height of the free end of the bolt inserted into the upper plate and passing through the lower plate forms a height at which the bolt can be spaced apart from the floor of the housing.
The method of claim 9,
The retaining piece
Further comprising a second reinforcing rib for integrally connecting and reinforcing the outer surface of the side wall and the horizontal portion.
The method according to claim 1,
Wherein the lower plate has a plurality of third ribs formed on the lower surface thereof in the longitudinal direction of the lower plate and a plurality of fourth ribs formed in the width direction,
And a boss is formed at a position where the third partition and the fourth partition intersect with each other.
The method according to claim 1,
The loess
And a heat sink for absorbing and dissipating the heat radiated through the heat ray is mixed.
14. The method of claim 13,
Wherein the heat sink is any one selected from the group consisting of rice husks, charcoal, waste glass pieces, aluminum oxide, magnesium oxide, and heat pipes, or a combination thereof.
The method according to claim 1,
Wherein the loess is a mixture of any one selected from the group consisting of ridges, meshes or webs, or a combination thereof.
A method of manufacturing an axial floor heat generating plate according to any one of claims 1 to 15,
A yellow clay manufacturing step for producing ocher stones;
A wiring step of wiring a hot wire inside an upper plate having a form of a box with an open bottom;
A filling step of filling the inside of the upper plate with yellow clay of the puddle after the wiring step;
A curing step of curing the yellow clay filled in the upper plate so as to harden;
A heat transfer member mounting step of laminating a heat transfer member on the loess charged in the upper plate;
A heat insulating member mounting step of stacking the heat insulating member after the heat transfer member laminating step; And
And a lower plate assembling step of mounting a lower plate to a lower portion of the upper plate after the step of installing the heat insulating member.
18. The method of claim 16,
The above-described loess
A heat sink for absorbing and dissipating the heat radiated through the hot wire, and a surface strengthening member for reinforcing the strength of the cured loess, or a combination thereof, into the loess of the puddle A method of manufacturing a floor heating plate for an axial use.
18. The method of claim 16,
The charging step
And the overhanging of the puddle of the puddle is performed by the slit formed through the first reinforcing rib of the upper plate so as to allow the heat ray to pass therethrough.
18. The method of claim 16,
The curing step
Wherein the top board filled with the loess is cured at room temperature for 4 to 6 days.
18. The method of claim 16,
The step of installing the heat transfer member
Further comprising a pressing step of laminating and pressing the heat transfer member on the loess before a day before the curing step is completed.
18. The method of claim 16,
The step of installing the heat insulating member
Further comprising a sealing step of sealing the upper plate and the heat transfer member before the heat insulating member is laminated on the heat transfer member.

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