KR20230134357A - Ondol panel set for air circulation boiler and ondol construction method using them - Google Patents

Abstract

The present invention relates to a floor heating system panel set for an air circulation boiler and a construction method for a floor heating system using the same. The floor heating system panel set for an air circulation boiler enables heating by circulating hot air in which air is heated, by being installed as a prefabricated type on a floor of a room. To achieve the purpose of the present invention, the floor heating system includes: a lower floor heating system panel formed of a heat storage material and having a flow path of a groove shape with an open upper surface; an upper floor heating system panel emitting stored heat to the upper surface while closing the upper surface of the flow path by being attached to the upper surface of the lower floor heating system panel; a serial flow path connector connecting a hot air inlet and a hot air outlet to prevent the passing hot air from leaking, by being interposed between the hot air inlet and the hot air outlet between adjacent unit flow path panels when a unit floor heating system panel comprising the lower floor heating system panel and the upper floor heating system is assembled to the adjacent unit flow path panel; a U-shaped flow path connector installed to connect the hot air outlet and the hot air inlet to prevent the hot air from leaking by being interposed between the hot air outlet of the unit floor heating system panel, which is arranged at an edge of the unit floor heating system panels assembled in a row, and the hot air inlet of the unit floor heating system panel arranged at the edge of the unit floor heating system panels assembled in the next row; and a heater member including a main heater generating the hot air, an air blower blowing the generated hot air, a hot air blow port discharging the hot air to the floor heating system panel, and a hot air intake port through which the hot air returned by circulating from the floor heating system panel flows therein. The floor heating system panel set for an air circulation boiler enables a user to simply and rapidly construct a hot air circulation-type floor heating system.

Description

Ondol panel set for air circulation boiler and ondol construction method using the same {ONDOL PANEL SET FOR AIR CIRCULATION BOILER AND ONDOL CONSTRUCTION METHOD USING THEM}

The present invention relates to an ondol panel set for an air circulation boiler using air as a heat exchange medium and a method of constructing an ondol using the same. In particular, it is installed in a prefabricated manner on the floor of a room to form a flow path through which the heated air circulates, and the circulated hot air and This relates to an ondol panel set for an air circulation boiler that heats the room through heat exchange and releases heat into the room to enable heating, and a method of constructing an ondol using the same.

Ondol heating has been a traditional heating method for residential buildings in Korea since ancient times. The heat generated by burning wood in the furnace is heated by heating a stove until it is discharged through the chimney, and then briquettes are used instead of wood in the furnace as an energy source. In some cases, in complex buildings such as apartments, the heating water obtained by heating water in a boiler using oil or liquefied natural gas was circulated through pipes buried in the indoor floor to heat the indoor floor. The basic method of heating by heating has not changed significantly.

In this way, floor heating is suitable for the traditional sedentary living environment in Korea, where there are four distinct seasons, and is still used today as an excellent heating method that relieves fatigue during sleep with warmth delivered from the floor.

In addition, in recent years, there have been cases of heating by placing electric heating wires on the indoor floor, but it has not become widespread due to the recognition that electromagnetic waves are harmful to health and the burden of facility and electricity costs.

In this way, in traditional floor heating, wood floor heating with excellent heat storage characteristics was used, but in complex buildings such as apartments, not only did the problem of excessive structural load due to the weight of the wood floor arise, but it was also very difficult to obtain the same stone for the wood floor as before, making construction difficult. Due to this difficult and costly problem, current floor heating structures mainly adopt a structure in which heating water pipes are buried in the cement floor.

However, the heating method of burying heating water pipes in the floor requires a high level of construction technology, requires a long construction period, and requires a lot of installation costs, so improvement measures were needed.

As an improvement measure for this, Korean Patent No. 10-0743974, registered on July 24, 2007, describes a prefabricated ondol panel for assembly and construction on the floor of a building and a prefabricated ondol floor structure using the same, with a zigzag hot water pipe in the inner center of the panel body. is installed, a wire mesh is installed between the hot water pipe and the upper and lower surfaces of the panel body, respectively, a coupling groove is formed on one side of the panel body, and the inlet of the hot water pipe is in the coupling groove. It protrudes inward, the outlet part protrudes to the other side of the panel body, and a one-touch coupling member is coupled to the end of the inlet part, and the coupling member of the inlet part is coupled to the outlet part, so that the coupling part is formed in the coupling hole. A prefabricated ondol panel that is configured to fit into a U-shaped groove, making construction convenient and shortening the construction period, and a prefabricated ondol floor structure using the same are disclosed.

However, these prefabricated underfloor heating panels have an advantage in floor construction as the floor is made in the form of a panel, but not only do they require skilled technicians to install and connect hot water pipes to the panel, but there is also a possibility of water leaks, and the construction period and cost are reduced. The need for structural improvement was continuously requested.

In addition, Korean Patent No. 10-0402205, registered on October 6, 2003, states that the floor panel itself functions as hot water circulation by allowing hot water to circulate throughout the entire surface of the unitized floor panel instead of the hot water circulation piping that is essential in the current ondol system. A piping-less modular panel ondol system that can perform the role of a heat dissipation surface and has a heat storage function is disclosed.

However, in the modular panel of the conventional patented invention, a flow path is formed in the floor panel to circulate hot water, so advanced technology is required to prevent water leakage, there is a risk of freezing and breaking in winter, and when water leakage occurs, the entire floor is required. It was difficult to maintain maintenance in that it had to be dismantled.

Domestic Patent Registration No. 10-0743974 (registered on July 24, 2007) Domestic Patent Registration No. 10-0402205 (registered on October 6, 2003)

The present invention was invented to improve the problems of the prior art described above. The problem to be solved by the present invention is a unit-sized flow path ondol panel with a flow path for hot air circulation so that a heating floor can be constructed by prefabricating it. The aim is to provide an ondol panel set for an air circulation boiler, which consists of an ondol panel with a built-in auxiliary heater for warming hot air to supply heat for heating.

In addition, another problem to be solved by the present invention is to assemble and install a plurality of passage underfloor heating panels with passages for hot air circulation in the horizontal and vertical directions corresponding to the heating area, and to form a row of passages at the edges of the horizontal or vertical directions. A flow path connector is installed at the location where the flow path is connected between the ondol panel and the other heat flow path. However, some of the flow path connectors are optionally installed with a flow path connector with a built-in auxiliary heater for heating air to heat the air. The purpose is to provide an ondol construction method using an ondol panel set for an air circulation boiler that allows floor construction.

In order to achieve the above object, the ondol panel set for an air circulation boiler according to the present invention is made of a heat storage material, and a hot air inlet and a hot air outlet are formed at the top, thereby dissipating heat between the hot air inlet and the hot air outlet. a lower underfloor heating panel with a groove-shaped flow path with an open upper surface for air movement; and an upper underfloor heating panel attached to the upper surface of the lower underfloor heating panel to close the upper surface of the flow path and dissipate heat accumulated to the upper surface; When assembling the unit underfloor heating panel formed by the lower underfloor heating panel and the upper underfloor heating panel with an adjacent unit passage panel, a serial passage connector is inserted between the hot air inlet and outlet between adjacent unit passage panels to communicate without leaking the passing hot air. ; A communication is provided between the hot air outlet of the unit underfloor heating panel placed on the edge of the unit underfloor heating panels assembled in a row and the hot air inlet of the unit underfloor heating panel placed on the edge of the next unit underfloor heating panel assembled in a row to prevent hot air from leaking. U-shaped flow path connector installed as much as possible; And a heater member including a main heater that generates hot air, a blower that sends out the generated hot air, a hot air outlet that discharges hot air to the underfloor heating panel side, and a hot air inlet that receives hot air circulating from the ondol panel side. It consists of ;.

Some of the U-shaped flow path connectors are characterized by additional installation of auxiliary heaters for warming hot air to make up for the temperature dropped during circulation in the ondol panel.

A support wall that divides the flow path along the direction of flow may be formed in the flow path installed in the underfloor heating panel.

It is characterized by having a buffer member installed on the bottom of the lower underfloor heating panel and having heat insulating and buffering properties.

The ondol construction method using an ondol panel set for an air circulation boiler according to another embodiment of the present invention involves opening a plurality of lower ondol panels having a heat storage function and having an open upper surface and a flow path inlet and outlet formed on the buffer member. Installing the air inlet and the hot air outlet adjacent to each other so that the hot air inlet and hot air outlet of the lower ondol panels do not leak and the serial flow path connector is installed using adhesive so that the flow path communicates with the adjacent lower ondol panel. Steps to install; Applying adhesive to the lower underfloor heating panel and then attaching the upper panel; Among the unit ondol panels composed of the lower ondol panel and the upper ondol panel assembled in a row, the heat air outlet of the unit ondol panel disposed at the edge and the unit ondol disposed at the edge of the unit ondol panels assembled in a row Installing a U-shaped flow path connector between the hot air inlets of the panel so that hot air communicates without leaking; In addition, a heater member with a blower and a main heater installed at the hot air inlet and hot air outlet of the ondol floor composed of the unit ondol panels is connected to form a closed circuit, so that the hot air discharged from the heater member circulates through the flow path of the ondol floor. It consists of installing steps to enable it.

The ondol panel set for an air circulation boiler according to the present invention and the ondol construction method using the same can easily form a flow path by assembling the lower ondol panel and the upper ondol panel without forming a hole penetrating the ondol panel, thereby providing a flow path for hot air circulation. The formed unit ondol panels can be assembled very easily, which has the effect of greatly improving the productivity of the ondol panel and reducing the manufacturing cost. The prefabricated ondol construction method using this is to connect the unit ondol panels to a series flow path connector so that the flow path is airtight. By installing it in communication with the U-shaped flow path connector, it is possible to construct a hot air circulation type ondol very simply and quickly.

Figure 1 is a schematic diagram of a conventional prefabricated ondol panel and ondol floor structure;
Figure 2 is an exploded perspective view of a unit underfloor heating panel according to the first embodiment of the present invention.
Figure 3 is an exploded perspective view of a unit underfloor heating panel according to a second embodiment of the present invention.
Figure 4 is an exploded perspective view of a unit underfloor heating panel according to a third embodiment of the present invention.
Figure 5 is a schematic diagram of a U-shaped flow path connector connecting the flow path of an ondol panel according to the present invention, particularly a U-type flow path connector with an auxiliary heater for warming hot air installed.
Figure 6 is a diagram showing the schematic configuration of an ondol floor structure using unit ondol panels according to the present invention.

Hereinafter, embodiments of the present invention will be described in more detail based on the accompanying drawings.

Figure 2 shows an exploded perspective view of a unit ondol panel according to the first embodiment of the present invention. The unit ondol panel 100 constituting one ondol panel is divided into a lower ondol panel 200 and an upper ondol panel 300. It is composed.

The lower ondol panel 200 is made of a plate-shaped rectangular panel made of stone material with a heat storage function, and on its upper surface is a flow path 210 that forms a circulation passage of hot air in a preset pattern in the form of a groove with an open upper side. is formed The flow path 210 is generally formed in a straight line, and one or a plurality of passages 210 may be formed in one unit underfloor heating panel 100, spaced apart at regular intervals.

An upper underfloor heating panel 300 is attached to the upper side of the lower underfloor heating panel 200. The upper ondol panel 300 is formed in the form of a plate whose horizontal and vertical lengths correspond to the size of the lower ondol panel 200, and is made of mainly stone, porcelain, elvan, red clay, or natural jade, which is sturdy and has a heat storage function. It is preferable that it is formed of a material that has . Accordingly, the user's health can be improved by far-infrared rays generated when the upper temperature panel 300 is heated to a predetermined temperature by hot air during heating. Additionally, the upper underfloor heating panel 300 can be molded from cement. Furthermore, the surface of the upper temperature panel 300 can be decorated as a flooring material.

When such an upper underfloor heating panel 300 is attached to the upper side of the lower underfloor heating panel 200, it is arranged to airtightly seal the upper opening of the flow path 210 formed in the lower underfloor heating panel 200. To this end, between the lower underfloor heating panel 200 and the upper underfloor heating panel 300, a high-temperature material such as heat-resistant silicon is placed on both sides of the passageway 210 so that hot air passing through the passageway 210 can move without leaking. It is advisable to use durable adhesive silicone to ensure airtight attachment.

In addition, a support member 220 may be installed on the bottom of the lower underfloor heating panel 200. The support member 220 is used for the purpose of preventing inter-floor noise or insulating the lower underfloor heating panel 200, and also serves to seat the lower underfloor heating panel 200 on the underfloor heating floor. For this purpose, compressed Styrofoam material, etc. may be used.

The support member 220 exchanges heat with hot air and insulates the heat stored in the lower underfloor heating panel 200 to prevent heat loss by transferring it to the floor installed on the bottom of the lower underfloor heating panel 200, thereby improving the efficiency of heating energy. In addition to improving the quality, it has the effect of significantly reducing inter-floor noise, which is a frequent problem in recent apartment buildings.

On the other hand, the serial flow path connector 230 serves to allow hot air to move without leaking by communicating with the flow path 210 of the adjacent lower unit panel when constructing an ondol using the unit underfloor heating panel 100. The flow path ( It has an outer diameter corresponding to the shape of 210) and is formed in a tubular shape so that hot air can pass through without leakage. In particular, a sealant such as heat-resistant silicone or an adhesive may be applied and attached between the outer surface of the series flow passage connector 230 and the inner surface of the flow path of the unit underfloor heating panel 100 in contact to prevent leakage of passing hot air. The series flow passage connector 230 may be made of a non-corrosive material, for example, thin stainless steel, aluminum, or non-combustible plastic, and a portion of the series flow passage connector 230 may be placed on both sides of the adjacent unit underfloor heating panel.

Figure 3 is a diagram showing an exploded perspective view of a unit underfloor heating panel according to a second embodiment of the present invention. In order to simplify the drawing and avoid duplication of description with the first embodiment shown in Figure 2, the upper underfloor heating panel 300 is Not shown.

In this embodiment, steps 240 are formed on the inlet and outlet sides of the flow path 210 formed in a groove shape on the upper surface of the lower ondol panel 200, so that the inner surface of the serial flow passage connector 230 is the same as the inner surface of the flow path. It was designed to be flat. In order to prevent leakage of hot air, it is preferable that a heat-resistant silicone sealant or adhesive is applied to the outer surface of the series flow passage connector 230 so that it is airtightly attached to the lower underfloor heating panel 200 and the upper underfloor heating panel 300. . An upper underfloor heating panel 300 as shown in FIG. 2 is laminated on the lower underfloor heating panel 200 described above.

Figure 4 is a diagram showing an exploded perspective view of a unit underfloor heating panel according to a third embodiment of the present invention. In order to simplify the drawing and avoid duplication of description with the first embodiment shown in Figure 2, the upper underfloor heating panel 300 is Not shown.

In this embodiment, a support wall 250 may be formed in the flow path 210 formed in the lower underfloor heating panel 200 to divide the flow path 210 at the center along the direction of flow. The support wall 250 is perpendicular to the upper ondol panel 300 when the horizontal In order to prevent the upper underfloor heating panel 300 from being damaged when a large load is applied, it is formed at the same height as the lower underfloor heating panel 200 to support the upper underfloor heating panel 300.

In this way, the ondol panel according to the present invention can easily form a flow path by assembling the lower underfloor heating panel and the upper underfloor heating panel without forming a hole through the panel, so it is possible to assemble the ondol panel with a flow path through which hot air moves very easily. This effect can greatly improve the productivity of underfloor heating panels and reduce manufacturing costs.

Figure 5 shows a perspective view of a U-shaped flow path connector connecting the flow path of an ondol panel according to the present invention, particularly the U-type flow path connector 400 in which an auxiliary heater 410 for warming hot air is installed.

The U-shaped flow passage connector 400 is a unit placed at the edge of the unit ondol panels 100 assembled in a row along the flow passage direction when constructing an ondol floor by installing the unit ondol panels 100 adjacent to each other in the horizontal and vertical directions. It is installed so that the hot air outlet of the underfloor heating panel 100 and the hot air inlet of the unit underfloor heating panel 100 disposed at the edge of the next unit underfloor heating panel 100 assembled in a row communicate with each other to prevent leakage. It will happen.

To this end, the inlet and outlet 420 of the U-shaped flow path connector 400 is formed to have the same width and height as the inlet and outlet of the flow path 210 of the unit underfloor heating panel 100.

In particular, among the U-shaped flow path connectors 400, the U-shaped flow path connector 400 with an auxiliary heater 410 for warming hot air is installed to form an ondol floor by arranging a plurality of unit underfloor heating panels 100 in the horizontal and vertical directions. This is to heat the temperature dropped while hot air circulates through the ondol panels 100 and maintain the temperature of the circulated hot air within a predetermined temperature range.

The groove 430, which is schematically shown in the U-shaped flow path connector 400 in the drawing, is used to draw a power line to supply power to the auxiliary heater 410 for heating hot air, and a sealing stopper is inserted to prevent internal hot air from leaking. Lose. Since the technology of sealing the power line extraction groove 430 with a stopper is widely known to those skilled in the art, a detailed description thereof will be omitted.

Figure 6 is a diagram showing the schematic configuration of an ondol floor structure using unit ondol panels according to the present invention.

As shown in FIG. 6, the above-mentioned unit underfloor heating panels 100 are arranged side by side in the horizontal and vertical directions so that the passage 210 is connected to the underfloor heating floor 500, and the underfloor heating panels are arranged at the edges of the underfloor heating floor 500. (100) The flow path 210 is airtightly communicated by the U-shaped flow path connector 400, so that the flow paths 210 between rows of ondol panels adjacent to each other in the horizontal or vertical direction are communicated with each other, thereby forming a flow path of the entire underfloor heating floor 500 ( 210) are all connected so that hot air can circulate throughout the ondol floor (500).

As described above, when connecting the flow paths 210 of the ondol panels 100 using the U-type flow path connector 400, a heat-resistant sealant or adhesive is applied to the outer peripheral surface of the U-type flow path connector 400 to maintain the flow path of the ondol panels 100. By airtightly connecting the flow path 210 to the inner circumferential surface of (210) to form a hot air circulation flow path for heating, it is possible to construct a hot air ondol floor similar to a traditional ondol structure very easily, and assembly is very easy, saving the construction time of the ondol floor. It can be shortened and construction costs can be reduced by eliminating the need for highly skilled workers.

The size of the ondol panels of the above-described embodiments can be appropriately selected and used according to need. In the illustrated embodiments, the flow path is simply straight, but in some variants, some ondol panels have curved flow paths to allow the movement of hot air. A curved structure is also possible to increase heating efficiency by delaying the speed and increasing heat exchange time.

The present invention can be easily used for underfloor heating by assembling underfloor heating panels with a flow path to allow hot air to circulate in the heating floor.

100 -- unit ondol panel, 200 -- lower ondol panel,
210 -- Euro, 220 -- Support member,
230 -- Series flow path connector, 240 -- Stepped,
250 -- Support wall, 300 -- Upper underfloor heating panel,
400 -- U-type flow path connector, 410 -- Auxiliary heater,
420 -- entrance/exit, 430 -- home,
500 -- Ondol floor.

Claims (5)

A lower ondol panel made of a heat storage material, with a hot air inlet and a hot air outlet formed at the top, and a groove-shaped flow path with an open upper surface for the movement of hot air between the hot air inlet and the hot air outlet; and
An upper underfloor heating panel attached to the upper surface of the lower underfloor heating panel to close the upper surface of the flow path and radiate stored heat to the upper surface;
When assembling the unit underfloor heating panel formed by the lower underfloor heating panel and the upper underfloor heating panel with an adjacent unit passage panel, a serial passage connector is inserted between the hot air inlet and outlet between adjacent unit passage panels to communicate without leaking the passing hot air. ;
A communication is provided between the hot air outlet of the unit underfloor heating panel placed on the edge of the unit underfloor heating panels assembled in a row and the hot air inlet of the unit underfloor heating panel placed on the edge of the next unit underfloor heating panel assembled in a row to prevent hot air from leaking. U-shaped flow path connector installed as much as possible; and
A heater member including a main heater for generating hot air, a blower for sending out the generated hot air, a hot air outlet for discharging hot air toward the underfloor heating panel, and a hot air inlet for receiving hot air circulating from the ondol panel side; Ondol panel set for air circulation boiler including.
According to paragraph 1,
An ondol panel set for an air circulation boiler, characterized in that some of the U-type flow passage connectors are additionally installed with auxiliary heaters for warming hot air to make up for the temperature dropped during circulation in the ondol panel.
According to claim 1 or 2,
An ondol panel set for an air circulation boiler, characterized in that a support wall is formed in the flow path installed in the ondol panel to divide the flow path along the direction of flow.
According to paragraph 3,
An ondol panel set for an air circulation boiler, characterized in that it is installed on the bottom of the lower underfloor heating panel and has a buffer member having thermal insulation and buffering properties.
Installing a plurality of lower ondol panels on a buffer member with a heat storage function and having an open upper surface and a flow path inlet and outlet adjacent to each other so that the hot air inlet and hot air outlet are in contact with each other;
Installing a series flow path connector using an adhesive so that hot air does not leak and the flow path communicates with the adjacent lower underfloor heating panel at the hot air inlet and hot air outlet of the lower underfloor heating panels;
Applying adhesive to the lower underfloor heating panel and then attaching the upper panel;
Among the unit ondol panels composed of the lower ondol panel and the upper ondol panel assembled in a row, the heat air outlet of the unit ondol panel disposed at the edge and the unit ondol disposed at the edge of the unit ondol panels assembled in a row Installing a U-shaped flow path connector between the hot air inlets of the panel so that hot air communicates without leaking; and
A heater member with a blower and a main heater installed at the hot air inlet and hot air outlet of the ondol floor composed of the unit ondol panels is connected to form a closed circuit, so that hot air sent from the heater member can circulate through the flow path of the ondol floor. An ondol construction method using an ondol panel set for an air circulation boiler, including the step of installing.