WO2021040219A1 - Radiation-convection cooling and heating device having panel structure - Google Patents

Abstract

The present invention relates to a radiation-convection cooling and heating device, having a panel structure, comprising: cooling and heating panel parts which are provided in a plurality in a vertical array structure in a frame having a slim structure and a simple appearance and can selectively provide cold air for cooling and warm air for heating; and a heat pump which is formed inside a lower frame of the frame, supplies, to the cooling and heating panel parts, cold air and warm air generated during a heat exchange with convection heat flowing into the frame, generates power by utilizing a refrigerant of which the pressure is controlled by means of an electronic expansion valve connected to a refrigerant pipe, and supplies a power load and uses the power for a convection heater by means of the generated power, wherein the cooling and heating panel parts are formed by means of the coupling between heating panel coupling members.

Description

Radiant convection panel structure air conditioner

The present invention relates to a radiant convection type panel structure air conditioner, and more particularly, the interior of panels in which cooling and heating is directly performed while providing a simple aesthetic of an exterior such as a simple accessory use at the same time as implementing cooling and heating for indoor air. It relates to a radiant convection type panel structure air conditioner and heater that can be maintained comfortably.

As the earth's environment is destroyed, unlike in the past, rapid heat waves and extreme cold are occurring in each country, and energy consumption is continuously increasing due to such a rapid change in climate. In particular, in terms of climate, summer and winter are clearly distinguished, and countries with both summer and winter have relatively high energy and power consumption.

For this reason, the use of heating and cooling among the building energy consumption used in the building space is particularly high in buildings used as apartment houses and business facilities, so energy saving can also contribute to the reduction of greenhouse gas emissions.

For example, in the Republic of Korea in the process of using air conditioners, if the amount of electricity consumed by period exceeds a certain amount, the electricity usage fee is subject to a progressive tax. Unexpectedly, there are many cases where the air conditioner is not properly utilized in a timely manner.

In the past, such air conditioners are home appliances for cooling, and air conditioners have been in charge of their functions, and as home appliances for heating, electric heaters and heaters have been in charge of their functions. Since air conditioning and heating are not one home appliance, but two separate home appliances such as an independent air conditioner and an electric heater, consumers must purchase an air conditioner for cooling in the summer and an electric heater or heater for heating in the winter. There was a double consumption burden of home appliances that had to be purchased.

Existing heaters are used to provide heating to the room, and these existing heaters can be classified into a boiler method, a warmer method, and an infrared heater method.In the case of the boiler method, it is suitable for overall heating but requires construction and gas. It is difficult to apply where there is no supply.

The warmer method generates a temperature imbalance, has low efficiency, and can cause stress due to wind drying, noise, dust, etc., and unlike a promotional advertisement that an infrared heater is transmitted without heat loss even outdoors, it lacks heat.

These existing heaters and air conditioners are limited to heating or cooling indoor air, and they cannot purify the indoor air. They want to open a window to ventilate the indoor air, but even ventilation due to poor air quality. It is not possible.

In addition, above all, since heaters, air conditioners, and air purifiers are all sold separately, consumers purchase and use all of these heaters, air conditioners and air purifiers individually, increasing the double burden of purchase costs and maintenance costs. have.

Of course, due to this double consumption burden, recently, air conditioners are released as a single independent product that combines both cooling and heating, and consumers are actually purchasing and using such a single air conditioner.

However, the air conditioner of an independent product that can implement all of these cooling and heating uses a radiant heat heater method that has a higher energy heating saving effect than a hot fan, but the actual radiant heat heating effect remains at a level that is not so high.

Meanwhile, a conventional air conditioner is a type that implements cooling through a plurality of panels, and the panels 1 of such a horizontally arranged structure are cross-sectional views for grasping the internal structure, and as shown in FIG. 1, two coupling members 10 ) (20) is a structure in which one refrigerant pipe 30 is inserted into the central portion of the refrigerant pipe 30 as a structure in which each of the two coupling members 10 and 20 is It is a perforated structure in which a number of perforated spaces (a) (b) in the form of perforated holes blocked from the outside are formed.

These perforated spaces (a) (b) may be able to effectively transmit cold air to the outside, but due to the temperature difference between the inside and outside of the coupling members 10 and 20 coupled to each other, the coupling members 10 and 20 There is a problem that condensed water is generated both on the outside and inside.

Of course, the outer side of the coupling members 10 and 20 can be cleaned, so the external condensate water W1 generated outside the coupling members 10 and 20 may be easily removed, but the coupling member 10 ( The internal condensate generated inside of the 20), that is, the inside of the perforated spaces (a) and (b), is completely sealed off from the outside, so even cleaning is impossible, so the internal condensed water (W2) cannot be removed at all.

This internal condensed water (W2) is not only generated due to the difference between the external temperature and the internal temperature based on the coupling members 10 and 20, but also air unless the interior of the coupling members 10 and 20 is in a vacuum state. It inevitably occurs due to the inflow of air and the temperature difference between the inside and outside.

Moreover, due to the internal condensed water (W2) generated in the perforated spaces (a) (b) of the coupling member (10) (20), a large amount of mold is detected inside the coupling member (10) (20). And, the mold generated inside the coupling members 10 and 20 is acting as a factor that propagates the mold bacteria to the entire indoor space through the cold air supplied to the room.

As such, fungi that spread throughout the indoor space not only pollute the indoor air, but also cause the ultimate problem of acting as a harmful substance harmful to the respiratory tract and bronchi of people living indoors.

These coupling members 10 and 20 are designed in a structure that is easy to form a shape when aluminum of high temperature and high pressure passes in the extrusion process, so that a plurality of perforated spaces (a) (b) can be formed. It is an inevitable structure.

On the other hand, there is a patent document disclosed as an existing prior art document, Application No. 10-2015-0147396, which may be referred to as a technology related to a heater heater.

The present invention for solving the above-described problems is a radiation convection type panel structure that can be installed by moving it to a desired location in the room while providing cooling and heating effects for the room, and also providing a slim and clean external aesthetic function. Its purpose is to provide air conditioners of the company.

The present invention for achieving the above-described objects is a cooling and heating panel unit capable of selectively providing cold required for cooling and warmth required for heating by being installed in a number of vertical arrangements within a frame frame forming a simple aesthetic of a slim structure. And a heat pump configured inside a lower frame of the frame frame to supply cool and hot air generated in a process of performing heat exchange with convective heat flowing into the frame frame to the cooling and heating panel unit, wherein the cooling and heating panel unit is a heating panel coupling member It is made of a combination between, but the mutual coupling portion between the heating panel coupling member has one feature of the air conditioner of the radiation convection type panel structure that is open to each other and is a non-perforated structure.

The heating panel coupling member has an elliptical structure according to mutual coupling, and any one of the heating panel coupling members has a convex curved shape in an upper direction and a concave curved shape in a lower direction. The heater first holding part having a structure of a binding paper to the central part while holding in a structure surrounding a part of the heater rod at the center part of the concave curved part, the heater first holding integrated in the center part of the concave curved part It further includes first and second refrigerant holding units having a structure of binding papers for both ends while holding in a structure surrounding a part of each refrigerant pipe at both side ends based on the part, and any one of the heating panel coupling members and The other heating panel coupling member that is corresponding and coupled has a convex curved shape in the lower direction and a concave curved shape in the upper direction, but has a structure surrounding the remaining part of the heater rod at the central portion of the concave curved portion. Remaining of each refrigerant pipe at both ends based on the heater second holding unit having a structure that holds the heater first holding unit and is bonded to the heater first holding unit, and the heater second holding unit integrated at the center of the concave curved area. There is a feature of a radiant convection panel structure air conditioner that further includes third and fourth refrigerant holding units having a structure that is held in a structure surrounding a portion and is coupled to the first and second refrigerant holding units.

The heater first holding part is a structure for holding a part of the heater rod, a protruding tip protruding vertically downward from the center, a pressurizing bracket having a curved structure branching from the protruding tip in one direction and having an end engaging structure, and the protrusion It further includes a pressurized bonding table having a curved structure branching from the tip in the other direction and a structure in which an end can be locked, and the first refrigerant holding part is formed at one end as a structure to hold a part of the refrigerant pipe provided at one end. Further comprising a multi-fastening port, and a pressurized fastener formed at a predetermined distance from the multi-fastening port, wherein the multi-fastening port extends vertically to the bottom and protrudes vertically and has an end engaging structure. It consists of a multi-overlapping binding structure including a fitting groove, which is an insertion structure vertically recessed with, and a binding tip protruding downward from just one side of the fitting groove, and the second refrigerant holding part is of the refrigerant pipe provided at the other end. As a structure for holding a part, it further includes a multiple fastener formed at the other end, and a pressure fastener formed at a predetermined distance from the multiple fastener, wherein the multiple fastener protrudes curvedly downward and the end is latchable. One feature is a cooling and heating system having a radiation convection type panel structure including a tip, a locking groove recessed in a structure that can be locked upward from the other side of the locking tip, and a fitting protrusion vertically protruding downward from the other side of the locking groove. have.

The heater second holding part is a structure for holding the remaining part of the heater rod, a protruding tip protruding vertically downward from the center, a pressurizing bracket having a curved structure branching from the protruding tip in the other direction, and a structure in which the end can be latched, and the It further includes a pressurized binding table having a curved structure branching in one direction from the protruding tip and a structure in which an end can be latched, and the third refrigerant holding part is a structure that holds a part of the refrigerant pipe provided at one end. Further comprising a formed multiple fasteners, and a pressing fastener formed at a predetermined distance from the multiple fasteners, wherein the multiple fasteners protrude to an upper portion and have a locking tip having a structure capable of engaging an end thereof, from the other side of the locking tip It consists of a multi-overlapping binding structure including a locking groove recessed in a structure that can be locked downward and a fitting protruding vertically upward from the other side of the locking groove, and the fourth refrigerant holding part is provided at the other end. A structure for holding a part of the refrigerant pipe, further comprising a multiple fastener formed at the other end, and a pressurized fastener formed at a predetermined distance from the multiple fastener, wherein the multiple fastener protrudes vertically upward and has an end It works on a cooling and heating unit of a radiation convection type panel structure including a locking bar that is a catchable structure, a fitting groove that is an insertion structure that is vertically recessed from one side of the locking bar to the bottom, and a binding tip protruding upward from just one side of the fitting groove. There are features.

The upper frame of the frame slides in a one-touch method to hang and store types of clothes, and as a hanger device that can enter and exit, a hanger outlet is further installed, and clothes are stored through a transparent protective film lowered from the hanger outlet. There is a semi-annual work feature.

On the other hand, a cooling and heating panel unit that can selectively provide cold and heat required for heating by installing a number of vertically arranged structures within the frame frame forming a simple aesthetic with a slim structure, and inside the lower frame of the frame frame. And a heat pump configured to supply cool and hot air generated in the process of performing heat exchange with convective heat flowing into the frame frame to the cooling and heating panel unit, wherein the cooling and heating panel unit is formed by coupling between heating panel coupling members, and the heating panel Mutual coupling portions between the coupling members have a non-perforated structure that is open to each other, and a heat conduction barrier material and a condensation prevention material are sequentially applied along the inner surfaces of the heat generating panel coupling members.

The heating panel coupling member has an elliptical structure according to mutual coupling, and any one of the heating panel coupling members has a convex curved shape in an upper direction and a concave curved shape in a lower direction. The heater first holding part having a structure of a binding paper to the central part while holding in a structure surrounding a part of the heater rod at the center part of the concave curved part, the heater first holding integrated in the center part of the concave curved part It further includes first and second refrigerant holding units having a structure of binding papers for both ends while holding in a structure surrounding a part of each refrigerant pipe at both side ends based on the part, and any one of the heating panel coupling members and The other heating panel coupling member that is corresponding and coupled has a convex curved shape in the lower direction and a concave curved shape in the upper direction, but has a structure surrounding the remaining part of the heater rod at the central portion of the concave curved portion. Remaining of each refrigerant pipe at both ends based on the heater second holding unit having a structure that holds the heater first holding unit and is bonded to the heater first holding unit, and the heater second holding unit integrated at the center of the concave curved area. Further comprising a third and fourth refrigerant holding units having a structure that is held in a structure that surrounds a part and is bonded to the first and second refrigerant holding units, and tubing on the surfaces of the heater first and second holding units and the outer circumferential surface of the heater rod It has a characteristic feature of a radiant convection panel structure air conditioner in which a composite material is tubed.

The heater first holding part is a structure for holding a part of the heater rod, a protruding tip protruding vertically downward from the center, a pressurizing bracket having a curved structure branching from the protruding tip in one direction and having an end engaging structure, and the protrusion It further includes a pressurized bonding table having a curved structure branching from the tip in the other direction and a structure in which an end can be locked, and the first refrigerant holding part is formed at one end as a structure to hold a part of the refrigerant pipe provided at one end. Further comprising a multi-fastening port, and a pressurized fastener formed at a predetermined distance from the multi-fastening port, wherein the multi-fastening port extends vertically to the bottom and protrudes vertically and has an end engaging structure. It consists of a multi-overlapping binding structure including a fitting groove, which is an insertion structure vertically recessed with, and a binding tip protruding downward from just one side of the fitting groove, and the second refrigerant holding part is of the refrigerant pipe provided at the other end. As a structure for holding a part, it further includes a multiple fastener formed at the other end, and a pressure fastener formed at a predetermined distance from the multiple fastener, wherein the multiple fastener protrudes curvedly downward and the end is latchable. One feature is a cooling and heating system having a radiation convection type panel structure including a tip, a locking groove recessed in a structure that can be locked upward from the other side of the locking tip, and a fitting protrusion vertically protruding downward from the other side of the locking groove. have.

The heater second holding part is a structure for holding the remaining part of the heater rod, a protruding tip protruding vertically downward from the center, a pressurizing bracket having a curved structure branching from the protruding tip in the other direction, and a structure in which the end can be latched, and the It further includes a pressurized binding table having a curved structure branching in one direction from the protruding tip and a structure in which an end can be latched, and the third refrigerant holding part is a structure that holds a part of the refrigerant pipe provided at one end. Further comprising a formed multiple fasteners, and a pressing fastener formed at a predetermined distance from the multiple fasteners, wherein the multiple fasteners protrude to an upper portion and have a locking tip having a structure capable of engaging an end thereof, from the other side of the locking tip It consists of a multi-overlapping binding structure including a locking groove recessed in a structure that can be locked downward and a fitting protruding vertically upward from the other side of the locking groove, and the fourth refrigerant holding part is provided at the other end. A structure for holding a part of the refrigerant pipe, further comprising a multiple fastener formed at the other end, and a pressurized fastener formed at a predetermined distance from the multiple fastener, wherein the multiple fastener protrudes vertically upward and has an end It works on a cooling and heating unit of a radiation convection type panel structure including a locking bar that is a catchable structure, a fitting groove that is an insertion structure that is vertically recessed from one side of the locking bar to the bottom, and a binding tip protruding upward from just one side of the fitting groove. There are features.

The upper frame of the frame slides in a one-touch method to hang and store types of clothes, and as a hanger device that can enter and exit, a hanger outlet is further installed, and clothes are stored through a transparent protective film lowered from the hanger outlet. There is a semi-annual work feature.

As described above, according to the present invention, moisture generated in the air conditioner itself according to the structure and material application of the heating and cooling panel parts that can remove moisture such as internal condensate generated inside the heating part of the existing cooling and heating equipment. Not only is it blocked, but it also has the effect of providing comfortable air without moisture in the room.

In addition, according to the present invention, by providing a cooling and heating panel unit having an open and non-perforated structure so as to remove moisture such as internal condensation generated in the sealing and perforated structure inside the heating part of the existing cooling and heating equipment, effective prevention of moisture and Together, it can block the habitat of mold, and this has the effect of ultimately blocking harmful bacteria in the air supplied to the room.

Moreover, according to the present invention, according to the slim and simple design of the frame frame and the function of the height adjustment unit installed on the frame frame, the cooling and heating unit can be installed by moving to a desired place in the room, and the installed cooling and heating unit is cooling and heating. It has the effect of providing not only the unique function of the product, but also the beautiful function of the exterior.

In addition, according to the present invention, when the heating and cooling load is increased in the process of using the radiant heater using the surrounding heat energy, the electric power generated in the heating provision process can be used as the insufficient heat energy of the heating load. Compared to equipment, the heating and cooling energy is higher than the power consumption, so power consumption can be lowered, which has the effect of reducing the burden of electricity bills.

1 is a diagram for grasping the internal structure of panels together with a conventional air conditioner;

FIG. 2 is a view showing a further enlarged internal structure of the panel shown in FIG. 1 and showing a combined state and a separated state between two coupling members of the panel;

3 is a perspective view showing a first embodiment type of a radiant convection panel structure air conditioner according to the present invention in a three-dimensional concept;

4 is a perspective view showing a second embodiment of a radiant convection panel structure air conditioner according to the present invention in a three-dimensional concept;

5 is a view showing the front and left and right appearances of the air conditioner shown in FIG. 4;

6 is a perspective view showing a third embodiment of a radiant convection panel structure air conditioner according to the present invention in a three-dimensional concept;

7 is a view showing the front and left and right appearances of the air conditioner shown in FIG. 6;

8 is a view showing a state in which a heat dissipation part is applied to a lower frame portion of the frame frame in the first, second, and third embodiments shown in FIGS. 3 to 7;

9 is a view showing the configuration of a heat exchanger installed inside the lower frame of the frame frame shown in FIGS. 3 to 8;

10 is a cross-sectional view of a heating and cooling panel for understanding the internal structure of the heating and cooling panels installed in a structure arranged vertically between the frame frames shown in FIGS. 3 to 8;

FIG. 11 is an enlarged cross-sectional view of the cooling and heating panel showing in detail the internal structure of the cooling and heating panel shown in FIG. 10;

12 is an exploded view of the heating panel coupling member showing the heating panel coupling member of the cooling and heating panel shown in FIG. 11 separated from each other.

The air conditioner of the radiant convection panel structure according to a preferred embodiment of the present invention may refer to the accompanying drawings, but it should be understood as a technical idea that is not limited to the drawings. The drawings for the drawings are conceptually illustrated in order to aid in understanding the present invention, and the present invention is limited by the drawings and does not need to be interpreted.

Moreover, in the air conditioner of the radiant convection panel structure of the present invention, the specific mutual coupling relationship with respect to individual components (components) cannot limit the technical idea of the present invention, and the present invention is based on the individual components (components) themselves. Since there is a technical meaning of, it should be noted that the mutual coupling relationship between these individual components (components) has not been specifically described.

In addition, in the accompanying drawings to aid in understanding the description of the present invention, each reference numeral of the heat pump and some constituent elements (components) constituting the heat pump is not indicated, but the names of terms for these are clearly described. Make it clear.

Hereinafter, with reference to the accompanying drawings, it will be described in detail the air conditioner of the present invention of the radiation convection type panel structure.

The radiant convection panel structure of the present invention can be used as a partition in a desired place in an indoor space or as a wall-mounted type, while providing a simple aesthetic in a slim form as well as in the type of the first embodiment shown in FIG. The frame frame 100 forming the same appearance, a plurality of cooling and heating panel units 200 installed in a vertical arrangement inside the frame frame 100, and the upper and lower sides of the frame frame 100 are installed on the ceiling wall and It may be composed of a height adjustment unit 300, 310, and 320 fixed through the floor wall.

The frame frame 100 may be composed of an upper frame 111, a left frame 112, a right frame 113, and a lower frame 114 as, for example, a rectangular frame structure, and installed on the upper frame 110. The height adjustment unit 300 may be fixed to the ceiling wall in a manner that adjusts the height reaching the ceiling wall, and the height adjustment units 310 and 320 installed in a manner spaced apart from the lower frame 114 are By being fixed to the floor in a manner that adjusts the height to reach, the air conditioner can be moved to a desired place in the indoor space and fixedly installed.

The cooling and heating panel units 200 are installed in a vertical arrangement within the frame 100, and the cooling and heating for radiant cooling and heating to the room can be provided from the cooling and heating panel unit 200. have.

The height adjustment units 300, 310, and 320 may adjust the height difference to the ceiling wall and the floor wall by, for example, a combination of springs and threads, but are not limited to such a combination of springs and threads. A combination of other means capable of adjusting the height difference may also be included.

On the other hand, the radiant convection panel structure of the present invention has an external appearance as in the second embodiment type shown in Figs. 4 and 5, which can be used as a fixed type on an indoor wall and provide a simple aesthetic in a slim shape. The frame frame 100 constituting the frame frame 100, a plurality of heating and cooling panel units 200 installed in a vertical arrangement inside the frame frame 100, and installed in the left and right frames 112 and 113 of the frame frame 100, the Each discharge path formed toward the sides of the left and right frames 112 and 113 by filtering the air introduced from each inflow path 410 formed in a structure inclined at 45° toward the front from the left and right frames 112 and 113 It may be configured as an air filter capable of exhausting clean air to both sides through 420.

As in the first embodiment, the frame 100 may be composed of an upper frame 110, a left frame 112, a right frame 113, and a lower frame 114 as a rectangular frame structure. Therefore, the frame frame 100 is fixedly installed on the wall of the room, and through the plurality of cooling and heating panel units 200 installed in a vertical arrangement within the frame 100, radiative cooling and heating can be performed indoors. Convective heat can be provided.

On the other hand, the radiant convection panel structure of the present invention has an external appearance as in the type of the third embodiment shown in Figs. 6 and 7 which can provide a simple aesthetic in a slim shape while being used as a fixed type on an indoor wall surface. The frame frame 100 constituting the frame frame 100, a plurality of heating and cooling panel units 200 installed in a vertical arrangement inside the frame frame 100, and installed in the left and right frames 112 and 113 of the frame frame 100, the Each discharge path formed toward the sides of the left and right frames 112 and 113 by filtering the air introduced from each inflow path 410 formed in a structure inclined at 45° toward the front from the left and right frames 112 and 113 An air filter capable of exhausting clean air to both sides through 420, and a hanger device that is installed in a slide manner that enters and exits from the upper frame 111 of the frame frame 100 to hang and keep clothes comfortably. It can be composed of 500.

The hook device 500 is a hook outlet 510 that slides from the upper frame 111 of the frame frame 100 and advances in a one-touch manner. It is possible to enter and exit through a combination of means for entering and exiting the clothes, and the clothes can be stored in a manner that the hangers are hung through the hanger rod configured in the hanger outlet 510, and furthermore, the hanger outlet 510 has a transparent protective film 520 that covers the clothes. ) Can be installed through the application of a torsion spring.

Therefore, after the hanger protruding part 510 advances from the upper frame 111 in a one-touch method, when the clothes are caught in a manner that the hanger is hung through the hanger rod, the transparent protective film 520 lowered from the hanger protruding part 510 ), the clothes can be kept hygienically.

As in the first and second embodiments, the frame 100 may be composed of an upper frame 110, a left frame 112, a right frame 113, and a lower frame 114 as a rectangular frame structure. Accordingly, the frame frame 100 is fixedly installed on the wall of the room, and radiant heating and cooling are performed indoors through a plurality of cooling and heating panel units 200 installed in a vertical arrangement within the frame frame 100. It can be provided.

On the other hand, in the cooling half of the present invention, as in the first, second, and third embodiment types described above, the lower frame 114 may be applied with a heat dissipation unit 160 as shown in Fig. 8, but the heat dissipation unit ( 160 is a concave-convex plate shape in which a plurality of half-moon-shaped members are formed, and a heater rod (H) and a refrigerant pipe (R) may be fixedly installed therein, but the heater rod (H) is a frame ( 100) has a structure branching from the plurality of cooling and heating panel units 200 installed in a vertical arrangement, and can be installed inside a plurality of individual cooling and heating panel units 200, and the refrigerant pipe R is also Refrigerant pipe (R1) and refrigerant pipe (R2) on the left and right, respectively, based on the heater rods (H) installed inside the plurality of individual cooling and heating panel units (200) with a structure branching from the heating and cooling panel unit (200) Can be installed as.

The heater rods (H) and the refrigerant pipes (R1) (R2) installed inside each of the plurality of heating and cooling panel units (200) are described in detail later in the process of the internal structure of the heating and cooling panel unit (200). Will be explained.

As shown in FIG. 8, the heat dissipation unit 160 includes a U-shaped pressing member 161, a locking tip 162, 162', an insertion hole 164, 164', and a reinforcing tip 163, 163'. The U-shaped pressing member 161 has a shape protruding from the inner circumference center of the individual half-moon-shaped member toward the inside, and the locking tips 162 and 162 ′ are the left and right ends of the heat dissipation unit 160 In the form of facing each other, the insertion holes 164 and 164 ′ are protruding in the inner direction from adjacent portions of the locking tips 162 and 162 ′, respectively, and the reinforcing tips 163 ) 163' are in the form of protruding inward from adjacent portions of the insertion holes 164 and 164', respectively.

In particular, the U-shaped crimping member 161 is used for crimping and fixing the heater rod (H), and provides a coupling fixing property of the heater rod (H), and the locking tips 162 and 162 ′ are provided with a wire spring ( (Not shown) can be prevented from changing bending due to heat conduction by minimizing a contact point between the heat dissipation unit 160 and the lower frame 114.

In addition, a refrigerant pipe R is inserted and fixed to the insertion ports 164 and 164 ′. In this refrigerant pipe R, for example, carbon dioxide (CO2; R744) may be introduced and used as a refrigerant, and the reinforcing tip may be used. (163) (163') not only can provide flexibility for slide coupling by the wire spring of the heat sink 160, but also regulate the removal of the wire spring during the slide coupling process by the wire spring of the heat sink 160 can do.

Of course, the refrigerant flowing into the refrigerant pipe R is not limited to carbon dioxide (CO2; R744), and may include new refrigerants (R410a, R1234yf, etc.) in some cases. The refrigerant used in the refrigerant pipe (R) in the present invention is an eco-friendly refrigerant that satisfies the level of application of Low GWP (Global Warming Potential), such as natural refrigerants (carbon dioxide, ammonia, etc.) and hydrocarbon-based refrigerants (isobutane, etc.). ), HFO (Hydrofluoro-olefin)-based new refrigerants (R1234yf, R1234ze, R1233zd, R1336mzz, etc.), and new refrigerants (R410a, etc.) can be used.

The far-infrared rays generated through the heater rod (H) are radiated through the heat dissipating unit 160, and these far-infrared rays are radiated through the heater rod (H) as growth rays. It does not cause discomfort.

That is, since far-infrared rays are provided as radiant heat through the heat dissipation unit 160, unlike convective heat, heat is directly transferred to the target rather than heating air, and thus, energy saving rate can reach 30 to 70%.

In particular, the heat dissipation unit 160 can expect a high-efficiency effect of heat by remarkably improving the heat dissipation rate of radiant heat according to the formation of an anti-reflection coating (AR). Since recycling is possible, the efficiency of using heat energy is improved, and energy savings can be expected.

The anti-reflection coating (AR) formed on the heat dissipation unit 160 may be formed in a manner that is applied to the heat dissipation unit 160 by spraying to reduce the thickness error. , It is possible to block 99% of ultraviolet rays, 90~99% of infrared rays, and selectively transmit visible rays among visible and infrared rays.

The transmittance before coating (Anti-Reflection Coating, AR) can be 90%, i.e., 4% reflection from the front, 4% reflection from the rear, and 2% absorption, and the transmittance after AR coating (improved ) May be 96%, that is, 1% reflection from the front side, 1% reflection from the back side, and 2% absorption. That is, it is possible to improve the spectral emission efficiency of the heating rod (H) through an optical anti-reflection or transmission enhancement coating.

Compared to the non-coating and ceramic coating, the anti-reflection coating has a relatively small amount of reflected heat to the surface of the heat dissipating unit 160, while the radiant heat to the indoor air layer has relatively many advantages.

This thermal conversion coating is performed by adding ethanol to a mixture between MTMS (Methyltrimethoxysilane) and GPTMS (3-Glycidoxypropyltrimethoxysilane), followed by a first stirring step of stirring for 1 hour, and then adding a catalyst thereto for 10 minutes. After the second stirring step of stirring, water (H20) was added thereto, followed by a third stirring step of stirring for 12 hours, and then organic modifer PDMS (polydimethylsiloxane) was added thereto, followed by stirring for 1 hour. It can be obtained after roughing.

That is, after a first stirring step of adding alcohol to a mixture of organosilane and distilled water and stirring, an acid and a crosslinking agent are added thereto, followed by a second stirring step of stirring, thereby obtaining an organic silicon material.

The heat dissipation unit 160 having such a characteristic can utilize a heat source at a high position as a difference from the existing hot air fan along with the recycling of the convective rising heat generated nearby, and the rising heating time up to the perceived temperature can be made faster by a radiation method. In particular, radiant heat can be transferred to the user along with rising convective heat.

On the other hand, in the air conditioner of the present invention, as in the first, second, and third embodiment types described above, the inside of the lower frame 114 has a heat insulation plate 120, a heat exchange part 130 of a heat pump, as shown in FIG. The dust collecting filter 140 and the sterilizing filter 150 may be installed in a built-in structure, but the heat exchange unit 130 of the heat pump may be composed of, for example, an evaporator 131 and a fan 132, the evaporator. 131 may be disposed outside the fan 132 in a structure surrounding the fan 132.

The dust collecting filter F may be disposed above the evaporator 131, and the sterilizing filter AF may be disposed adjacent to the fan 132 in a rotational direction. Therefore, the hot air and cold air pass through the dust collection filter F, bypass the evaporator 131 and the fan 132, and pass through the sterilization filter AF, passing through the lower portion of the heat insulating plate 120 and the discharge path 420. ) Can be supplied indoors.

Since the heat exchange part 130 of the heat pump has a large temperature difference with the heat dissipation part 160, a heat insulating plate 120 capable of blocking cold air and warmth between the heat exchange part 130 and the heat dissipation part 160 is further configured. Can be. The coupling relationship to the heat insulating plate 120 may be described in detail or revealed that it is not shown in the drawings.

The insulation plate 120 may be composed of a composite insulation plate, and a nonwoven fabric is thermally fused to a 3mm thick polypropylene pp copolymer resin, and then an insulation material is laminated. It is excellent in water resistance and prevention of condensation, and prevents mold due to condensation. The effect is excellent.

The heat insulating plate 120 is a composite heat insulating plate composed of, for example, a surface plate, a hollow layer, an adhesive, and a heat insulating material, and the surface plate is composed of an eco-friendly polypropyrene and a non-halogen flame retardant compound. The strength and fire resistance (non-flammable) of the surface plate can be increased by applying an inorganic adhesive of 0.5 to 1 mm as the surface.

The hollow layer is a 3mm to 10mm hollow plate made of pp, which is an eco-friendly plastic among general-purpose plastics, and is excellent in preventing condensation and water absorption is significantly lowered, thereby preventing mold growth due to condensation. That is, the hollow layer may resist condensation due to a soft layer of an inner and outer temperature.

The adhesive can be bonded with a solvent-free thermosetting urethane adhesive in which toluene or thinner is not added at all to prevent the deformation of the insulation plate 120 due to thermosetting, and the insulation material 120 is an insulation material manufactured by an extrusion method and a bead method. Can be configured.

Therefore, since the heat insulating plate 120 can block a sharp temperature difference between the warm and cold air generated inside the frame 100, a single air flow of hot or cold air in the frame 100 can be formed. Due to this, it is also possible to apply the heat exchange unit 130. Of course, the application of the heat exchange unit 130 may contribute to the structure of the heat insulating plate 120 as well as the structure of the frame frame 100 and the heat dissipation unit 160 with each other.

The mutual coupling structure between the frame frame 100 and the heat dissipation unit 160 is a slide-type coupling structure between the frame frame 100 and the heat dissipation unit 160 by providing a wire spring (not shown) that can be hooked to both ends of the frame frame 100 and the heat dissipation unit 160. It is possible to minimize the bonding contact point between the frame frame 100 and the heat dissipation unit 160, which in turn minimizes thermal conductivity, thereby preventing the bending of the heat dissipation unit 160.

In other words, in the application of the heat exchange unit 130 such as an air conditioner to the frame frame 100 in which the radiating unit 160 is configured, the heat dissipating unit 160 is used to prevent thermal deformation due to an imbalance on the frame frame 100. ) And the frame frame 100 by the use of a wire spring (not shown) to minimize the heat transfer and the heat dissipation unit 160 and the frame frame by minimizing the contact point of the connection between the radiating unit 160 and the frame frame 100 It is possible to prevent the deformation of (100).

As such, the frame 100 can perform air-free cooling and heating according to the coexistence of the heat exchange unit 130 and the heat dissipation unit 160, and includes not only a sterilization filter (AF), but also a dust collection filter (F). Can be. The heat exchange unit 130 may include, for example, an evaporator 131 and a fan 132.

Moreover, in the case of the conventional method, an insulating material or several aluminum reflectors are used, whereas in the frame frame 100 of the present invention, the fins of the evaporator 131 can be used as a heat insulating layer for heat insulation/reflection and after heat absorption, and the fan 132 Low-temperature heat/high-temperature heat of the fin can be discharged using. In other words, it means that it is operated by a fin heater or a commonly known PTC heater.

Therefore, the plurality of heating and cooling panel units 200 installed in a vertical arrangement within the frame 100 can implement heating as radiant heat along with suction and discharge of convective heat using indoor air during indoor heating. In the cooling of the air conditioner, convective heat is sucked and the indoor cooling can be implemented according to the airless type cooling according to the outdoor discharge through the outdoor unit.

That is, during indoor heating, the warmth through the far-infrared rays generated by the individual heater rods (H) installed inside the plurality of heating and cooling panel units (200) merges with the convective heat that revolves around the inside of the frame frame (100) and discharges it. In this process, the convective heat of indoor air is supplied to the room through 420. In this process, the convective heat of indoor air is supplied to the room by joining the warmth in the process of flowing into the inflow path 410 through the fan 132 of the heat exchange unit 130 As a result, it is possible to save thermal energy for heating.

In addition, since the far-infrared rays generated through the heater rod (H) can be provided as radiant heat to the room from the plurality of cooling and heating panel units 200 in the process of being radiated through the heat dissipation unit 160, the object is not heated. As it is a method that directly transfers heat to the room, the energy saving rate for heating can be excellent.

Of course, in this indoor heating process, since the warmth moves to the discharge path 420 along one side of the heat insulating plate 120, the effect of the temperature drop from the evaporator 131 can be avoided, and the sterilization filter (AF) and the dust collection filter The effect of sterilizing and purifying air through sterilization and dust collection contained in the indoor air during the indoor supply process of warmth is also excellent as it passes through all (F).

Meanwhile, during indoor cooling, the evaporator 131 evaporates the liquid refrigerant expanded by the electronic expansion valve in the process of moving the refrigerant moving from the refrigerant pipe R inserted and fixed in the heat dissipation unit 160 to the evaporator 131. Cool air can be supplied to the room by cooling a fluid such as indoor air by absorbing heat.

Of course, the refrigerant flowing into the refrigerant pipe R may utilize, for example, carbon dioxide (CO2; R744), new refrigerants (R410a, R1234yf, etc.). Because it moves to 420, it is possible to avoid the effect of temperature increase from the heater rod (H), and because it passes through both the sterilization filter (AF) and the dust collection filter (F), The sterilization and purification effect of air through sterilization and dust collection is also excellent.

In terms of windless heating and cooling, windless radiant cooling air conditioners in summer and windless radiant heating in winter can maintain comfort because the wind does not directly touch the body, and electricity bills can be reduced.

Windlessness can be defined as the fine flow of wind, and the American Society for Cold and Air Conditioning uses a wind speed of 0.15m/s or less per second without a cold draft. It is because it is defined as'still air'.

Air sterilization is also possible through heat of the radiating plate of the radiating part 160, that is, the radiating part 160 is excellent in sterilizing the air because it can be maintained at a high temperature.

* High-temperature sterilization effect of the heat dissipation unit 160

Test strain: Bacillus stearotherm ophilus (ATCC 7953)

Culture conditions (temperature): 55℃, (media used): Nutrient Agar, Nutrient Broth

Sterilization temperature	Exposure time	result	Presence or absence of sterilization
120℃	10 minutes	G		Non-sterile
120℃	20 minutes	NG		Sterilization
120℃	30 minutes	NG		Sterilization
130℃	10 minutes	NG		Sterilization
130℃	15 minutes	NG		Sterilization
130℃	30 minutes	NG	Sterilization

G: Growth, NG: No Growth

As can be seen from Table 1, it means that the sterilization rate of the strain increases as the sterilization temperature increases and the exposure time increases. As described above, since sterilization of bacteria is closely related to high temperature and exposure time, sterilization is possible through a heat sterilization method of the heat sink, which is the heat sink 160.

The heat sterilization method means that as the temperature increases, the cell membrane bursts due to the increase in the volume of the cell contents, or proteins and nucleic acids are denatured to lose their function, making metabolism impossible, and various chemical reactions proceed with the temperature catalyst, resulting in intracellular biochemistry. This means that the reaction becomes uncontrolled and disorganized, resulting in a bactericidal effect.

The high temperature of the heat dissipation unit 160 may be utilized for removing VOCs by utilizing a thermal oxidation catalyst or the like. Although the contact time is short, protein changes such as viruses/bacteria may be induced due to the high temperature contact. Plasma discharge voltage can be reduced, which can reduce ozone. The heat dissipation unit 160 may maintain a temperature of 300 to 400°C.

Meanwhile, for the thermal efficiency of hot and cold air in the application of the heat exchange unit 130 of the heat pump to the heat dissipation unit 160, the evaporator 131 and the evaporator having a bent structure based on the heat insulating plate 120 as shown in FIG. 9 The fan 132 is arranged in a structure in which the fan 132 is disposed inside the bend, and the bent part of the evaporator 131 is disposed in a structure in which the upper or lower part of the heat insulating plate 120 is positioned to prevent the inflow of hot or cold air. It does not interfere, so the efficiency of air flow can be improved.

That is, the heat generated by the heat dissipation unit 160 or the cooling/hot air generated by the heat exchange unit 130 of the heat pump flows through the inlet passage 410 and passes through the dust collecting filter F and the evaporator 131, and then the fan It may be discharged in the direction of the discharge path 420 while bypassing 132 and passing through the sterilization filter AF.

Meanwhile, when the air conditioner of the present invention is operated, it is connected to a heat pump with a built-in generator to provide cooling and heating, and at the same time, electric power may be generated through, for example, a turbine generator. The built-in generator heat pump is a system that extracts heat energy from heat sources such as natural heat sources (air, geothermal heat, solar heat) and uses it for cooling and heating. Since it rarely involves a combustion process, it suppresses the emission of greenhouse gases, the main cause of global greenhouse gas. It is an eco-friendly system and has high thermal efficiency compared to the combustion method, so it can save energy and reduce CO2 emissions.

Existing heat pumps are systems that extract heat energy from the heat source of outside air and are suitable for households where it is difficult to obtain an external heat source.However, since the outside temperature in winter in Korea is sub-zero, it is difficult to cover the heating capacity with only the extracted heat energy. The heating capacity is being covered through the heater, which is a device.

Although the heat pump itself is an efficient system, the difficulty in covering the heating capacity compared to the system scale causes inconvenience to consumers and is a fatal problem in the expansion of the heat pump market size.

For the purpose of solving this problem, the current heat pump heating system products on the market are satisfying the insufficient heating capacity through electric heaters, which are auxiliary heating devices.

This may act as a factor that substantially increases the amount of electric energy consumed for heating, thereby fading the merits of the heat pump system, and the heat pump cycle may be largely composed of a compressor, an evaporator, a gas cooler, and an expansion device. .

The heating system of the hybrid heat pump is the replacement of the expansion device (eg, electronic expansion valve) in the heat pump cycle or the operation of an auxiliary heating device such as an electric heater or outdoor unit when generating power by adding a turbine to the bottom of the expansion device (eg, electronic expansion valve). When allocating the power consumption of the heat pump, it will be possible to not only improve the efficiency of the heat pump heating system, but also save energy.

The heat pump system has the advantage of reducing the power load of the auxiliary heating device, which is a disadvantage of the existing heat pump heating system, and can supplement the power load by using the power obtained from the generator through the operation of the air conditioner.

Existing heat pump heating systems perform heating by heating hot water or indoor air, but in the heat pump of the present invention, power obtained from the operation process of the air conditioner can be utilized for the operation of the radiant heater.

Radiant heat transfer during heating can contribute to preventing excessive indoor heating by increasing the human body's feeling of thermal satisfaction, thereby forming a more satisfying thermal satisfaction even when the indoor temperature is low.

For example, carbon dioxide (CO2) refrigerant is a natural refrigerant that exists in nature and is harmless to the human body because it is not toxic and has a Global Warming Potential (GWP) of 1 that affects the greenhouse effect. Since the vapor density is larger than that of the refrigerant used in the pump system, the volumetric cooling and heating capacity is large, and the flow rate of the working fluid may be lower.

In particular, the heat pump is used for cooling, heating and dehumidification by moving a low-temperature heat source to a high temperature, and it is recognized as a renewable energy device because it generates a large amount of heat energy compared to the used power.

The heat pump in the present invention is an example of components for carbon dioxide (CO2) air conditioning, and may be composed of a variable compressor, a gas cooler, an internal heat exchanger, an electronic expansion valve, an evaporator, and an air conditioner. The refrigerant circuit for may include a first compressor having a first heat exchanger, a second heat exchanger and a third heat exchanger, and a second compressor having a semi-hermetic reciprocating compressor.

The electronic expansion valve (EEV) discharges the carbon dioxide (CO2) refrigerant supplied from the refrigerant pipe (R) of the above-described air conditioner as a high-temperature gas, and this is the electronic expansion valve (EEV). ), the rotating body of the turbine is rotated to emit high-temperature gas.

In addition, since the Electronic Expansion Valve (EEV) is grafted with the turbine, the pressure for the release of these refrigerant gases is electronically regulated and controlled when using not only the above carbon dioxide refrigerant gas but also other types of refrigerant gas. The refrigerant gas cycle operation is possible, and the turbine can generate electric power by discharging the refrigerant gas through rotation of the rotating body of the turbine, and this electric power is used to operate a radiant heater or an outdoor unit.

The heat pump according to the present invention is a principle of its cycle when heating is used. In the liquid separator of the outdoor unit, dust and foreign matter are separated from the filter and the liquid low pressure gas that has not been vaporized is separated to protect the compressor.

Thereafter, the compressor compresses the low-pressure gas containing heat into a high-temperature high-pressure gas. After that, the high-temperature and high-pressure gas, which has passed through the 4 room changes, is supplied to the condenser of the indoor air conditioner through a low-pressure SVC valve.

Thereafter, the condenser radiates the high-temperature and high-pressure gas to change its state to a high-temperature, high-pressure liquid, and then passes through the capillary of the outdoor unit through a high-pressure SVC valve, and the high-pressure liquid (medium high temperature) is changed to a low-pressure liquid (low temperature), Will pass.

In the evaporator, as the low-pressure liquid passes through the outdoor fan, the low-pressure liquid is changed into low-pressure gas (medium-low temperature) and is returned to the compressor through a liquid separator as the configuration of the outdoor fan absorbs and evaporates the surrounding heat of the low-pressure liquid. .

As described above, in the radiant convection panel structure of the present invention, in the process of discharging the carbon dioxide (CO2) refrigerant introduced into the refrigerant pipe R during operation, the heat pump is discharged through an electronic expansion valve (EEV). Based on the heating cycle principle, it is possible to generate power from the turbine generator, and this power is used to reduce the power load of auxiliary heating equipment, which is a disadvantage of the existing heat pump heating system, so that the power load can be supplemented and energy is saved. You can expect even effects.

In addition, a control unit for controlling the heating cycle of the heat pump described above may be further provided, and such a control unit can be expected to serve to constantly induce the output of power generated by the refrigerant cycle through the built-in generator heat pump, For this purpose, it is preferable to use a switching regulator as the control unit.

In particular, for example, carbon dioxide (CO2) refrigerant is an eco-friendly refrigerant, but since the critical pressure is higher than that of conventional commercial refrigerants, leakage of the heat pump system and durability of system components should be considered, and safety improvement compared to commercial refrigerant heat pump systems. It is natural that it is required.

In addition, a power generation turbine has not been applied to perform power generation in the existing heat pump cycle, but in the present invention, for example, a turbine generator is applied to a heat pump using a carbon dioxide refrigerant, so that power can be generated even in the operation of the air conditioner. There are features, and of course, optimization of the system to the application of a turbine generator to a heat pump is natural.

In particular, it is natural for the turbine to be manufactured so as to predict the performance of, for example, one-dimensional turbine aerodynamics/turbine, to seal against high pressure and to hermetically seal the increased pressure up to the supercritical region. For this, the turbine generator can be fitted with a tuberin seal. Tuberin is furthermore heat-solidified, so it can be optimized as a sealing material for turbine generators.

Moreover, the bearing applied to the coupling required for the generator is suitable for use with an angular contact ball bearing, which is a combination of a radial load having a contact angle and an axial load in one direction or a combination of the angular contact ball bearing. This is because it is suitable for the case of receiving a load.

The evaporator is required to apply an insulating material considering moisture-proof, and it is natural that it is designed with a structure that forms heat dissipation holes so that it can be efficiently discharged to the outside, and heat reflection in the high temperature infrared region on an aluminum material that does not absorb moisture. A coating can be applied.

In the experiment using the air conditioner and the existing air conditioner according to the present invention, the indoor temperature is easy to change by heating and blowing by the existing air conditioner, but the air conditioner of the present invention has a stable indoor temperature, and the burden on the body according to the temperature change and A space with less discomfort can be created.

It can be seen that the air conditioner of the present invention radiates in a natural convection method that does not generate wind during the heating operation, so that the difference between the room temperature and the perceived temperature is less than that of the conventional air conditioner. This can be referred to in Table 2 below.

The unit is ℃, the difference in the sensational temperature is the sensational temperature-the room temperature (indicating whether the sensational temperature is higher or lower than the actual temperature), the value is the average of Figure 10, and there is a difference between the measured temperature and the temperature sensation that a person feels with the skin. , The perceived temperature is expressed as a quantity in consideration of environmental conditions for the sense of body temperature, which is generally expressed as hot or cold.

	Invention (A)	Existing (B)
Room temperature	23.8	24.1
Perceived temperature	23.8	23.4
Perceived temperature difference	0	-0.7

Changes in body temperature due to radiation, when the air conditioner of the present invention and the existing air conditioner of the present invention are heated and operated at approximately the same distance, the air conditioner of the present invention directly warms the body as the effect of radiation, and the body warms through the heated air. It can be seen that the surface temperature of the body rises faster than the air conditioner. In addition, during the cooling operation, the body heat is taken away by radiation, which increases the freshness, that is, in the present invention, the temperature of the object is higher than the temperature of the air, whereas the conventional The temperature of the object was lower than the temperature of the air.

During the heating operation, the principle of heat transfer acts and warms up to the toes. That is, in the present invention, the temperature of the object is lower than the temperature of air, whereas the temperature of the object is higher than the temperature of air in the past.

Meanwhile, since the above-described plurality of heating and cooling panel units 200 provide radiant heat to the room to directly transfer heat to an object rather than to heat air, an energy saving rate for heating may be excellent.

The heating and cooling panel parts 200 may be formed in a structure in which two heating panel coupling members 210 and 220 having an oval shape are coupled to each other, as shown in FIGS. 10 to 12, and the heating panel coupling members ( The 210 and 220 are formed in an arc shape, and when combined with each other, they have a single elliptical shape.

The heating panel coupling member 210 has a convex curved shape in an upper direction and a concave curve shape in a lower direction, and the heating panel coupling member 220 is located under the heating panel coupling member 210 However, it takes a convex curve in the lower direction and a concave curve in the upper direction.

The heating panel coupling member 210 is configured with a heater first holding part having a structure to hold a part of the heater rod H to the center of the portion taking a concave curved shape in the lower direction, and the heater first holding part First and second refrigerant holding units having a structure for holding the refrigerant pipe L1 and a part of the refrigerant pipe L2 at both ends thereof may be configured.

The heater first holding part is a structure that holds a part of the heater rod (H), a protruding tip 211 protruding vertically downward from the center, a curved structure branching in one direction from the protruding tip, and a structure in which the end can be locked. It may consist of a configuration including a pressure bonding table 211a, and a pressure bonding table 211b having a curved structure branching from the protruding tip in the other direction and a structure in which an end portion can be latched.

Therefore, while the heater first holding part is used to hold a part of the heater rod (H), it is also used in combination with the heater second holding part to be described later of the heating panel coupling member 220 opposite to the lower portion thereof. It can be.

On the other hand, the first and second refrigerant holding portions are structured to hold a portion of the refrigerant pipe (L1) and the refrigerant pipe (L2), and the first refrigerant holding portion is a portion of the heat generating panel coupling member 210 in a concave curved shape. Is configured at one end of the heater first holding part formed at the center thereof to hold a part of the refrigerant pipe L1, and the second refrigerant holding part has a concave curved shape of the heating panel coupling member 210 The heater is formed at the other end of the heater first holding part formed in the central part of the taken part to hold a part of the refrigerant pipe L2.

The first refrigerant holding part is a structure configured from one end of the heating panel coupling member 210 toward the lower side, and a multiple fixing hole 212 formed at the first end thereof, and between the multiple fixing hole and the pressure fixing table 211a It may consist of a configuration including a pressurized bonding table 213 formed at a predetermined distance from the multi-fastening tool 212 at a point.

In particular, the multi-fastening port 212 protrudes vertically downward and has an end portion of a locking member 212a, a fitting groove 212b having an insertion structure vertically recessed upward from one side of the locking member, and It may be made of a multi-overlapping binding structure including a binding tip 212c protruding downward from just one side of the fitting groove.

Therefore, this first refrigerant holding part is used to hold a part of the refrigerant pipe (L1), but can be combined with the third refrigerant holding part to be described later of the heating panel coupling member 220 opposite to the lower portion thereof. There is.

The second refrigerant holding part is a structure configured from the other end of the heating panel coupling member 210 toward the bottom, and is formed on the other end of the multi-fastening port 215, and the multi-fastening port 215 and the pressurized fastening. It may be composed of a configuration including a pressurized binding table 214 formed with a predetermined distance from the multiple fasteners 215 at points between the bases 211b.

In particular, the multi-fastening hole 215 is a locking tip (215a) having a structure that is curved downwardly protruding and the end is latchable, a locking groove (215b) that is recessed in a structure that can be latched upward from the other side of the locking tip, and It may be made of a multi-overlapping binding structure including a fitting protrusion 215c vertically protruding downward from the other side of the locking groove.

Therefore, this second refrigerant holding unit is used to hold a part of the refrigerant pipe (L2), but may be combined with the fourth refrigerant holding unit to be described later of the heating panel coupling member 220 opposite to the lower portion thereof. There is.

In addition, between the heater first holding part and the first refrigerant holding part, a fastener 216 for screwing with a finishing cover plate that can cover and close the inside of the heating panel coupling member 210 is provided. It is a structure in which one part of the periphery is open so as to be able to communicate with the screw fastening hole formed therein. Of course, the cover plate for finishing may also have an elliptical shape matching the elliptical shape formed by the combination of the heating panel coupling member 210 and the heating panel coupling member 220.

Meanwhile, the heating panel coupling member 220 is located under the heating panel coupling member 210, and takes a convex curved shape in a lower direction and a concave curved shape in an upper direction.

The heating panel coupling member 220 includes a heater second holding part having a structure that holds the remaining part of the heater rod H from a portion taking a concave curved shape in the upper direction to a central portion thereof, and the heater second holding portion The third and fourth refrigerant holding units may be configured to hold the refrigerant pipe L1 and the remaining portions of the refrigerant pipe L2 at both ends of the refrigerant pipe L1 based on the part.

The heater second holding part is a structure to hold the remaining part of the heater rod (H), a protruding tip 221 protruding vertically downward from the central part, a curved structure branching from the protruding tip in the other direction, and the end can be latched. It may be made of a configuration including a pressure bonding table (221a), which is a structure, and a pressure bonding table (221b), which is a curved structure branched in one direction from the protruding tip and an end portion can be latched.

Accordingly, the heater second holding part is used to hold the remaining part of the heater rod (H), but is also used to be coupled to and coupled to the heater first holding part of the heating panel coupling member 210 opposed to the upper portion thereof. It can be done in parallel.

On the other hand, the third and fourth refrigerant holding portions are structured to hold the refrigerant pipe (L1) and the remaining part of the refrigerant pipe (L2), and the third refrigerant holding portion has a concave curved shape of the heating panel coupling member 220. It is configured at one end of the heater second holding part composed of the central part of the part to hold the remaining part of the refrigerant pipe L1, and the fourth refrigerant holding part is different from the heater second holding part. It is configured at the side end to hold the remaining part of the refrigerant pipe L2.

The third refrigerant holding part is a structure configured from one end of the heating panel coupling member 220 toward the upper side, and a multi-fastening port 225 formed at the first end, and of the multi-fastening port and the pressurized fastening table 221b. It may be made of a configuration including a pressure bonding table 224 formed at a predetermined distance from the multiple fasteners at the points between.

In particular, the multi-fastening hole 225 is a locking tip (225a) having a structure that is curved upwardly and the end can be latched, a locking groove (225b) that is recessed in a structure that can be latched downward from just one side of the locking tip, and It may be made of a multi-overlapping binding structure including a fitting protrusion 225c vertically protruding upward from one side of the locking groove.

Therefore, this third refrigerant holding part is used to hold the remaining part of the refrigerant pipe (L1), but is connected to and coupled to the first refrigerant holding part of the heating panel coupling member 210 opposite to the upper portion of the refrigerant pipe (L1). It can be.

The fourth refrigerant holding part has a multiple fastening hole 222 formed at the other end, and a pressurized fastening band 223 formed at a point between the multiple fastening port and the pressure fastening device 221a at a predetermined distance from the multiple fastening hole. ) Can be made in a configuration including.

In particular, the multi-fastening hole 222 has a locking bar 222a having a structure that protrudes vertically extending upward and is capable of engaging an end thereof, a fitting groove 222b having an insertion structure vertically recessed downward from the other side of the locking bar, and It may be made of a multi-overlapping binding structure including a binding tip (222c) protruding upward from just one side of the fitting groove.

Therefore, this fourth refrigerant holding part is used to hold the remaining part of the refrigerant pipe (L2), but is connected to and coupled to the second refrigerant holding part of the heating panel coupling member 210 opposed to the upper portion thereof. It can be.

In addition, between the heater second holding portion and the fourth refrigerant holding portion, a fastener 226 for screwing with a finishing cover plate that can cover and close the inside of the heating panel coupling member 220 is provided. It is a structure in which one part of the periphery is open so as to be able to communicate with the screw fastening hole formed therein.

Therefore, when the heating panel coupling member 210 and the heating panel coupling member 220 are coupled to each other, the pressing fixing table 211a of the heater first holding part is a part of the pressurized fixing table 221b of the heater second holding part. At the same time as being hung in a structure surrounding the heater second holding part, the pressurized fixing table 221a of the heater second holding part is hung in a structure surrounding a part of the pressurized fixing table 211b of the heater first holding part, so that the heater first holding part and the heater The second holding unit can provide a solid binding force based on equal repulsive force in a manner that covers the entire heater rod H, and has excellent sealing force.

In addition, the first refrigerant holding unit multiple fasteners 212 are coupled to each other in a multi-overlapping method with the third refrigerant holding unit multiple fasteners 225, and at the same time, the third refrigerant holding unit pressurized fastener 224 is the first refrigerant While the holding portion is fastened in a structure surrounding a part of the pressurized bonding table 213, the multiple fasteners 215 of the second refrigerant holding portion are bonded with the multiple fasteners 222 of the fourth refrigerant holding portion in a multi-overlapping method. At the same time, the second refrigerant holding portion pressurized fastening table 214 may be fastened in a structure surrounding a part of the pressurized fastening table 223 of the fourth refrigerant holding portion.

Particularly, the locking bar 212a composed of the multi-fastening port 212 of the first refrigerant holding part is hooked to the locking groove 225b through the locking tip 225a composed of the multi-fastening port 225 of the third refrigerant holding part, and 3 As the multi-hanging hole 225 of the refrigerant holding part, the fitting protrusion 225c is a multi-overlapping binding structure that is inserted into the fitting groove 212b as the multi-hanging hole 212 of the first refrigerant holding part and is bound to the binding tip 212c. Can be combined with

In this way, the first refrigerant holding part and the third refrigerant holding part can be combined in a manner that holds the whole of the refrigerant pipe L1 according to mutual bonding, which in turn is the heat generating panel coupling member 210 ( 220) The binding and sealing of the part on one side of the liver is made.

Moreover, the locking bar (222a) composed of the multi-fastening hole 222 of the fourth refrigerant holding part is hooked to the locking groove 215b through the locking tip (215a) composed of the multi-fastening hole 215 of the second refrigerant holding part, 2 As the refrigerant holding part multi-hanging hole 215, the fitting protrusion 215c is inserted into the fitting groove 222b as the multi-hanging hole 222 of the fourth refrigerant holding part, and is a multi-overlapping binding structure that is attached to the binding tip 222c. Can be combined with

In this way, the second refrigerant holding portion and the fourth refrigerant holding portion can be coupled in a manner that holds the entire refrigerant pipe L2 according to mutual bonding, which in turn is the heat generating panel coupling member 210 ( 220) The other side of the liver is bound and sealed.

In this way, when the heating panel coupling member 210 and the heating panel coupling member 220 are coupled to each other, the heater first and second holding portions and both side ends surrounding the central heater tube (H) as shown in FIG. Each of the spaces 230 and 231 is formed between the first and third refrigerant holding portions and the second and fourth refrigerant holding portions surrounding the refrigerant pipes L1 and L2 of the refrigerant pipes L1 and L2. A filtration filter may be installed at 231).

In particular, the filtration filter may be effective in removing moisture, such as internal condensate, that may be generated due to a sharp temperature difference between the inside and outside during the use of the refrigerant pipes L1 and L2 in summer. That is, the filter filter is separately installed in the space part 230, 231 formed therein, which is sealed by the combination of the two heating panel coupling members 210, 220, and uses the refrigerant pipes (L1) (L2) in summer. The purpose is to effectively remove the internal moisture that may be generated.

The filtration filter is preferably installed at an angle of 90° with respect to the two refrigerant pipes L1 and L2 between the two refrigerant pipes L1 and L2. Of course, it should be noted that the shape of the filter filter is not shown in the drawings.

That is, the filtration filter may be formed in a multi-layered wave structure to effectively separate and remove moisture, such as internal condensate, which may be generated inside the two panel coupling members 210 and 220 coupled to each other. It would be desirable to use, for example, a two-ply waved filter.

Filter type		Filtration filter (this invention)	Filter A (existing)	Filter B (existing)	Filter C (Conventional)
Filter installation angle (°)		90	35 to 45	34 to 45	34 to 45
Moisture collection efficiency (%)	Gravimetric method	87.5	76.1	76.5	77.8
	Process test	88.34	54.84
Pressure loss (mmAq)	Gravimetric method	2.75	4.7	4.5	4.2
	Process test	2.4	4.4

As can be seen from Table 3, as the filter filter is installed at an angle of 90°, it will be possible to increase the moisture collection efficiency by reducing the face velocity of the filter due to the increase in the moisture collection area. Of course, the filter filter may be made of SUS or aluminum to prevent corrosion.

In this way, since moisture can be effectively removed even from the inside of the heating and cooling panel units 200, more comfortable air can be provided indoors as compared to the conventional air conditioner.

On the other hand, the contact portion of the heater first and second holding portions that hold the heater rod (H) inside the heating panel coupling members 210 and 220 coupled to each other and the outer circumferential surface of the heater rod are high-temperature heat generated from the heater rod (H). It can be made of a tubing material having thermal safety from. These tubing materials are not shown in the drawing because physical properties are more important than the structural aspects of the material, but the effects of corrosion resistance, acid resistance, heat resistance, non-adhesion, and non-oil properties are excellent. It can be applied to the outer circumferential area.

The reason why the tubing material is applied to the adjacent portion of the heater rod (H) is that it is a material suitable for the high temperature around the heater rod (H) and the high humidity environment conditions through the refrigerant pipe. It can be made of a tubing composite material added with an inorganic filler, as it must have excellent impact resistance and flame retardancy so that it can be used continuously even in the same harsh environmental conditions.

That is, the tubing composite material is a material in which Teflon and an inorganic filler are mixed and may be mixed with 55 to 65 parts by weight of Teflon and 35 to 45 parts by weight of an inorganic filler, but the inorganic filler is added as a powder type filler considering both impact resistance and flame retardancy. , Such a powder type filler may be made of, for example, a composite filler of glass, carbon fiber, and graphite, and 25 to 35 parts by weight of glass, 25 to 35 parts by weight of graphite, 30 to 40 parts by weight of carbon fiber based on 100 parts by weight of the inorganic filler. It can be mixed in parts by weight.

The reason that the individual parts by weight of glass and graphite are contained less than the parts by weight of the carbon fiber, but the mixed parts by weight of glass and graphite are contained more than the parts by weight of the carbon fiber, because both impact resistance and flame retardancy are considered.

Such a tubing composite material, for example, is excellent in heat resistance that sustains and withstands high temperature conditions of 300°C, as well as excellent effects of corrosion resistance, acid resistance, heat resistance, non-adhesion, and oil resistance.

		Operating temperature range
		-40 or less	-41~-20	-21~0	60~80	81~100	101~130	140~190	200~250	More than 300
Natural rubber		△	○	○	△
Synthetic rubber	A	△	○	○	○	△	×
	B	○	○	○	○	○	△
alloy		○	○	○	○	○	○	△	×
Tubing composite material		○	○	○	○	○	○	○	○	○

○: Can be used, △: Can be used in some cases, ×: Can not be used

		Corrosion resistance range
		Weak acid	Strong acid	Oxidizing acid	Mixed mountain	Weak alkali	Strong alkali	Organic solvent	Anti-organic acid solvent	Corrosive gas
Natural rubber		○	×	×	×	○	△	×	×	×
Synthetic rubber	A	○	△	×	△	○	○	×	△	△
	B	○	△	△	○	○	○	×	△	△
Tubing composite material		○	○	○	○	○	○	○	○	○

○: Can be used, △: Can be used in some cases, ×: Can not be used

It can be seen that, according to the use temperature range of Table 4 and the corrosion resistance range of Table 5, the tubing composite material may be typically ranked the highest.

In this way, the adjacent portion of the heater rod (H), that is, the contact portion of the outer circumference of the heater rod (H) and the first and second holding portions of the heater formed in the interior of the heating panel coupling members 210 and 220 coupled to each other is made of a Teflon material. Since it can be made of a composite tubing based material, acid resistance and corrosion resistance to high temperature conditions around the heater rod (H) can be enhanced.

In addition, it is preferable to apply a composite material in which ceramic and fiber are fused for the heating panel coupling members 210 and 220 combined with each other, and the composite material in which ceramic and fiber are fused exhibits high fire resistance and has high strength at high temperatures. , Deformation, shrinkage is less, and the heat efficiency for the heater rod (H) is excellent, and in particular, it is possible to perform more precise temperature control according to the attachment of a temperature control sensor in the heating panel coupling members 210 and 220.

On the other hand, the entire surface from the first refrigerant holding portion of the heating panel coupling member 210 to the second refrigerant holding portion through the heat first holding portion and the heat second holding from the third refrigerant holding portion of the heating panel coupling member 220 The condensation blocking material 240 as shown in FIG. 12 may be applied to the entire surface reaching the fourth refrigerant holding part through the part.

The heat-generating panel coupling members 210 and 220 have a structure in which airless radiation-type cold air and heat are diffused, and because they have a non-perforated structure in which all surfaces are open, only the outside of the heat-generating panel coupling members 210 and 220 In addition, it is a structure that is easy to clean the inside, and in particular, it is a structure that includes a heater rod (H) that can add insufficient heat in the winter of the heat pump, and it is a structure that makes less noise when applied to the cooler by wind. The reason for the low noise is that it has a non-perforated structure unlike the internal structure of the existing heating panels.

In other words, the perforated spaces formed inside of the existing heating panels act as resonance spaces, so noise is inevitable, but the insides of the heating panel coupling members 210 and 220 are made of an open type of non-perforated structure, resulting in resonance. Since there is no space to act on, the noise is inevitably low. As such, the heating panel coupling members 210 and 220 are also characterized in that they have a non-perforated structure capable of minimizing even noise.

In this way, the heating panel coupling members 210 and 220 not only effectively remove the internal condensate generated from the inside, but also minimize noise due to the non-perforated structure, thereby providing comfortable air to the room at all times, while providing a quiet interior. It is something that can be maintained.

Of course, existing heating panels can be easily removed because water-based moisture such as external condensate generated on the outer surface can be contacted from the outside, but internal condensed water generated from the inside cannot be easily removed from the outside. Although it cannot be, the heating panel coupling members 210 and 220 in the present invention have an effect that even the internal condensation water generated therein can be removed.

Since the inside of the heating panel coupling members 210 and 220 has a structure in which a plurality of refrigerant pipes L1 and L2 can pass, not only the heat transfer efficiency is good, but also the condensation barrier 240 is applied. B. It is a structure suitable for application of heat conduction barrier material.

That is, the heating panel coupling members 210 and 220 may be applied with a heat insulating material or a heat conduction blocking material along the surface portion, and in some cases, a condensation blocking material 240 may be applied, and in some cases, a heat conduction blocking material and a condensation blocking material may be applied. Since it can be applied sequentially, the inflow of air and the occurrence of internal condensate due to the temperature difference between the inside and outside can be suppressed as much as possible.

In this way, the heating panel coupling members 210 and 220 have a feature of an open structure and a non-perforated structure in order to minimize the generation of internal condensate, and the heating panel coupling member 210 having such a non-perforated structure. ) 220 is a structure that allows a plurality of refrigerant pipes (L1) (L2) to pass through, and not only improves the efficiency of heat transfer, but also that the insides of the heating panel coupling members 210, 220 are all open. Since it is a perforated structure, it is suitable for the application of heat conduction and condensation barriers.

In particular, the thermal barrier material is a coating material of a thermal insulation composition formed by alternately stacking a thermal barrier layer, a heat ray absorbing layer, and a heat radiation layer. The thermal barrier layer may be made of clay particles, and the thermal ray absorbing layer is a conductive polymer, carbon nanonub and graphite. It may be made of a configuration including fins, and the heat dissipation layer may be formed of a configuration including metal particles and carbon nanotubes in resin.

In the manufacture of the heat conduction barrier material, a heat shield composition is applied to a base film, and the clay particles are stretched so that they are oriented at a certain angle, and then cured to form a heat shield layer, and a heat ray absorber is applied on the heat shield layer, and then cured. Thus, a heat radiation layer may be formed, and a heat radiation composition may be applied on the upper part of the heat radiation absorbing layer, stretched to be oriented at a certain angle, and then cured to form a heat radiation layer.

The condensation barrier material 240 may be made of a mixed material in which a porous ceramic and a polymer binder are mixed, but the pore ceramic is 75 to 85 parts by weight, and the polymer binder is 15 to 25 parts by weight, and such a mixed material is a condensation barrier material. In order to be made of the material of 240, the material of the condensation barrier 240 may be manufactured in such a manner that an additive and water are further included in 100 parts by weight of the mixed material.

Polymer binder is a binder that is a mixture of silicon nitride, polyvinyl butyral (PVB) and polybutyl methacrylate (PBMA), and has a higher softening point than acryl-based resin and polyurethane resin. (210) It is possible to minimize the thermal deformation at the same time while reducing the occurrence of condensation in the interior of the 220. Therefore, the polymer binder as described above is suitable for internal use of the heating panel coupling members 210 and 220.

As described above, the air conditioner of the present invention is a product that is differentiated from the existing air conditioner or air conditioner, and can be applied even in a small space by combining the radiation system with the cooling system, and air conditioning of cold and warm air can be implemented in one air conditioner. In addition to the advantage of generating power using a refrigerant turbine and utilizing this power as power consumption consumed in the operation of a radiant heater or outdoor unit, above all, inside the cooling and heating panel unit 200, which can be the source of moisture generation. Since the feature of a non-perforated structure to remove moisture and minimize noise such as generated internal condensate is applied, it is possible to maintain a pleasant indoor and quiet indoor with low noise by providing pleasant air at all times.

Claims (10)

1. A cooling and heating panel unit that is installed in a number of vertical arrangements within the frame frame forming a simple aesthetic with a slim structure to selectively provide coolness required for cooling and warmth required for heating; And

   A heater pump configured inside a lower frame of the frame frame to supply cool and hot air generated in the process of performing heat exchange with convective heat flowing into the frame frame to the cooling and heating panel unit; Including,

   The cooling and heating panel unit is formed by coupling between the heating panel coupling members, wherein the coupling portions between the heating panel coupling members are open to each other and have a non-perforated structure.
2. The method of claim 1,

   The heating panel coupling member has an elliptical structure according to mutual coupling, and any one of the heating panel coupling members has a convex curved shape in an upper direction and a concave curved shape in a lower direction. A heater first holding unit having a structure of a binding paper to the central portion while holding a structure surrounding a part of the heater rod at a central portion of the concave curved portion;

   The first and second heaters are held in a structure surrounding a part of each refrigerant pipe at both ends based on the heater first holding part integrated in the central part of the concave curved part, and have a structure of binding papers to both ends. A refrigerant holding unit;

   Including more,

   The other heating panel coupling member corresponding to and coupled to any one of the heating panel coupling members has a convex curved shape in the lower direction and a concave curve shape in the upper direction, but at a central portion of the concave curved portion. A second heater holding portion having a structure that surrounds the remaining portion of the heater rod and is held in a structure coupled to the first heater holding portion;

   The heater second holding part integrated in the central part of the concave curved part has a structure that covers the remaining part of each refrigerant pipe at both ends, and is connected to the first and second refrigerant holding parts. Having third and fourth refrigerant holding units;

   Radiant convection panel structure air conditioner further comprising a.
3. The method of claim 2,

   The first heater holding part is a structure for holding a part of the heater rod, a protruding tip protruding vertically downward from the center, a pressurizing bracket having a curved structure branching in one direction from the protruding tip and a structure capable of engaging the end, and the protrusion It further includes a pressurized binding band having a curved structure branching from the tip to the other direction and a structure in which the end can be locked,

   The first refrigerant holding unit further includes a multiple fastener formed at one end as a structure for holding a part of the refrigerant pipe provided at one end, and a pressurized binding band formed at a predetermined distance from the multiple fastener, wherein the multiple The binding port includes a locking rod that protrudes vertically from the bottom and has an end engaging structure, a fitting groove that is an insertion structure that is vertically recessed from one side of the locking rod to the top, and a binding tip that protrudes downward from just one side of the fitting groove. It consists of a binding structure of multiple overlapping,

   The second refrigerant holding unit further includes a multi-fastening port formed at the other end as a structure for holding a part of the refrigerant pipe provided at the other end, and a pressurizing strap formed at a predetermined distance from the multi-fastening port. The sphere is curved downwardly and the end is hookable, the hooking tip is a structure that can be hooked upward from the other side of the hooking tip, and the fitting protrusion vertically protruding downward from the other side of the hooking groove. Radiant convection panel structure air conditioner comprising a.
4. The method of claim 2,

   The heater second holding part is a structure for holding the remaining part of the heater rod, a protruding tip protruding vertically downward from the center, a pressurizing bracket having a curved structure branching from the protruding tip in the other direction, and a structure in which the end can be latched, and the It further includes a pressurized fixing table having a curved structure branching from the protruding tip in one direction and a structure in which the end can be latched,

   The third refrigerant holding unit further includes a multiple fastener formed at one end as a structure for holding a part of the refrigerant pipe provided at one end, and a pressurization fastener formed at a predetermined distance from the multiple fastener, wherein the multiple fasteners The sphere is curved to the top and the end is a locking tip that can be locked, a locking groove that is recessed in a structure that can be locked from the other side of the locking tip to the bottom, and a fitting protrusion that protrudes vertically from the other side of the locking groove to the top It consists of a binding structure of multiple overlaps including,

   The fourth refrigerant holding unit further includes a multiple fastener formed at the other end as a structure for holding a part of the refrigerant pipe provided at the other end, and a pressurized binding band formed at a predetermined distance from the multiple fastener, wherein the multiple The binding hole extends vertically to the top and includes a locking rod having a structure in which an end can be locked, a fitting groove having an insertion structure vertically recessed from one side of the locking rod to the bottom, and a binding tip protruding upward from one side of the fitting groove. Radiant convection panel structure air conditioner comprising a.
5. The method of claim 1,

   A copy convection type, characterized in that the upper frame of the frame slides in a one-touch method to hang and store types of clothes, and as a hanger device that can enter and exit, a hanger outlet is further installed, and clothes are stored through a transparent protective film lowered from the hanger outlet. Panel structure cooling and heating season.
6. A cooling and heating panel unit that is installed in a number of vertical arrangements within the frame frame forming a simple aesthetic with a slim structure to selectively provide coolness required for cooling and warmth required for heating; And

   A heat pump configured inside a lower frame of the frame frame to supply cool and hot air generated in the process of performing heat exchange with convective heat flowing into the frame frame to the cooling and heating panel unit; Including,

   The heating and cooling panel unit is formed by coupling between the heating panel coupling members, wherein the coupling portions between the heating panel coupling members have a non-perforated structure that is open to each other, and a heat conduction barrier material and a condensation prevention material are sequentially formed along the inner surface between the heating panel coupling members. A radiant convection panel structure air conditioner that is coated.
7. The method of claim 6,

   The heating panel coupling member has an elliptical structure according to mutual coupling, and any one of the heating panel coupling members has a convex curved shape in an upper direction and a concave curved shape in a lower direction. A heater first holding unit having a structure of a binding paper to the central portion while holding a structure surrounding a part of the heater rod at a central portion of the concave curved portion; And

   The first and second heaters are held in a structure surrounding a part of each refrigerant pipe at both ends based on the heater first holding part integrated in the central part of the concave curved part, and have a structure of binding papers to both ends. A refrigerant holding unit; Including more,

   The other heating panel coupling member corresponding to and coupled to any one of the heating panel coupling members has a convex curved shape in the lower direction and a concave curve shape in the upper direction, but at a central portion of the concave curved portion. A second heater holding portion having a structure that surrounds the remaining portion of the heater rod and is held in a structure coupled to the first heater holding portion; And

   The heater second holding part integrated in the central part of the concave curved part has a structure that covers the remaining part of each refrigerant pipe at both ends, and is connected to the first and second refrigerant holding parts. Having third and fourth refrigerant holding units; Including more,

   A radiant convection panel structure air conditioner, characterized in that tubing composite material is tubed on the surfaces of the heater first and second holding portions and the outer circumferential surface of the heater rod.
8. The method of claim 7,

   The first heater holding part is a structure for holding a part of the heater rod, a protruding tip protruding vertically downward from the center, a pressurizing bracket having a curved structure branching in one direction from the protruding tip and a structure capable of engaging the end, and the protrusion It further includes a pressurized binding band having a curved structure branching from the tip to the other direction and a structure in which the end can be locked,

   The first refrigerant holding unit further includes a multiple fastener formed at one end as a structure for holding a part of the refrigerant pipe provided at one end, and a pressurized binding band formed at a predetermined distance from the multiple fastener, wherein the multiple The binding port includes a locking rod that protrudes vertically from the bottom and has an end engaging structure, a fitting groove that is an insertion structure that is vertically recessed from one side of the locking rod to the top, and a binding tip that protrudes downward from just one side of the fitting groove. It consists of a binding structure of multiple overlapping,

   The second refrigerant holding unit further includes a multi-fastening port formed at the other end as a structure for holding a part of the refrigerant pipe provided at the other end, and a pressurizing strap formed at a predetermined distance from the multi-fastening port. The sphere is curved downwardly and the end is hookable, the hooking tip is a structure that can be hooked upward from the other side of the hooking tip, and the fitting protrusion vertically protruding downward from the other side of the hooking groove. Radiant convection panel structure air conditioner comprising a.
9. According to claim 7

   The heater second holding part is a structure for holding the remaining part of the heater rod, a protruding tip protruding vertically downward from the center, a pressurizing bracket having a curved structure branching from the protruding tip in the other direction, and a structure in which the end can be latched, and the It further includes a pressurized fixing table having a curved structure branching from the protruding tip in one direction and a structure in which the end can be latched,

   The third refrigerant holding unit further includes a multiple fastener formed at one end as a structure for holding a part of the refrigerant pipe provided at one end, and a pressurization fastener formed at a predetermined distance from the multiple fastener, wherein the multiple fasteners The sphere is curved to the top and the end is a locking tip that can be locked, a locking groove that is recessed in a structure that can be locked from the other side of the locking tip to the bottom, and a fitting protrusion that protrudes vertically from the other side of the locking groove to the top It consists of a binding structure of multiple overlaps including,

   The fourth refrigerant holding unit further includes a multiple fastener formed at the other end as a structure for holding a part of the refrigerant pipe provided at the other end, and a pressurized binding band formed at a predetermined distance from the multiple fastener, wherein the multiple The binding hole extends vertically to the top and includes a locking rod having a structure in which an end can be locked, a fitting groove having an insertion structure vertically recessed from one side of the locking rod to the bottom, and a binding tip protruding upward from one side of the fitting groove. Radiant convection panel structure air conditioner comprising a.
10. The method of claim 6,

    A copy convection type, characterized in that the upper frame of the frame slides in a one-touch method to hang and store types of clothes, and as a hanger device that can enter and exit, a hanger outlet is further installed, and clothes are stored through a transparent protective film lowered from the hanger outlet. Panel structure cooling and heating season.

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