JP4886003B2 - Dry-type hot water heating structure for building interior and its construction method - Google Patents

Description

  The present invention relates to a dry warm water heating structure for a room in a building and a method for its construction (the Heating Structure by warming of dry process and the construction method theof).

  Wet heating that uses finishing mortar in the conventional hot water heating system for building interiors requires a skilled plasterer, as well as a long construction period and a shortcoming in that heat efficiency is reduced because rapid heating is not possible. In the process, the floor impact of floor heating (Ondol) was directly transmitted to the floor slab, so there was a limit to the reduction of interlayer noise in the building.

  In order to improve the above problems, a dry heating system has been recently constructed, and among these construction methods, a structure and a construction method that have been previously filed by the present applicant and registered as registration number 10-766402. Is published in Patent Document 1.

Korean Patent No. 766402 Specification

  However, the existing registration mentioned above was capable of rapid heating compared to the wet type, but there was a problem that the heating sustainability dropped, and the interlayer noise was reduced by installing the structure on the shock absorber. The degree of relaxation is insignificant, and because the floor frame is attached to the top and bottom in a double manner, the height of the structure is increased and a lot of construction costs are required. In the process of assembling the floor frame (bottom), the fixing piece is There were unsafe problems such as loosening.

  In addition, the floor heating (ondol) floor construction method in the technique described in Patent Document 1 is a method in which a floor frame is attached by fitting a groove between projecting protrusions, and can be disassembled only by one side when repairing a heel. Therefore, there were problems such as slow maintenance work.

  Accordingly, the present invention has been made in view of the above problems, and an object of the present invention relates to an improved invention improved on the basis of the technique described in Patent Document 1, and includes an interlayer between floor surfaces. In order to cut off the transmission of noise, attach the steel wire without attaching the shock absorber directly to the floor surface, and install the shock absorber on it to reduce the time required for the bonding work between the shock absorber and the floor surface. It is to shorten the construction period in dry construction, and to cut off the transmission of interlayer noise.

  In addition, another object of the present invention is not to attach the upper and lower parts as in the existing registered floor frame in order to facilitate the construction of the floor surface and minimize the height of the cross section of the floor structure. The purpose is to reduce the construction costs by compressing the installation with two floor frames to ensure the effectiveness between the layers.

  In addition, another object of the present invention is to firmly fix the floor frame with a fixing clip to block the sound and noise between the layers due to the impact, so that the existing registered floor frame is It is to solve the unsafe construction that loosens and to reduce the generation of interlayer noise from the construction process.

  Further, another object of the present invention is to install an existing registered floor heating (ondol) floor by fitting a groove between protruding projections of the floor frame, and one of them is used for repairing the heel. Could only be dismantled. In order to solve the above-mentioned problem, it is to enable disassembly from both sides in repairing the heel by fitting and attaching fixed frames to grooves on both sides of the floor of the floor heating (ondol).

  Further, another object of the present invention is that the existing registered dry structure has a problem that the room temperature rises faster than the wet type, but the sustaining ability to maintain the raised temperature is insufficient. It is to install ocher blocks with grooves carved on the corners of the floor of the heating (Ondol), and to install heating pipes in the grooves of the ocher blocks so that the room temperature can be maintained.

Still another object of the present invention is to reduce the overall load of a building by reducing the weight of the structure using an aluminum material which is a non-ferrous metal having a low specific gravity.
Another object of the present invention is to enable the construction period to be shortened by using dry assembly construction.

  Still another object of the present invention is to enable a finishing process to be performed quickly and beautifully while facilitating the construction of the wall surface.

  In order to solve the above problems, according to a certain aspect of the present invention, the floor surface construction of the present invention is constructed by a dry construction method according to the applicant's existing registered invention, Set the floor finishing reference line for floor heating (Ondol) to the above, the bracket fixing frame that is attached so that the upper level is aligned with the horizontal marking line on the four sides, and is fixed in close contact with the wall surface; A number of brackets attached to the front face of the frame and provided with leveling rollers; an auxiliary bracket attached to the top surface of the bracket; a square frame attached to the top surface of the auxiliary bracket; and the interior of the building being constructed Two or more steel wire sockets attached in close contact with the floor of the corner; pieces on the first steel wire socket above It is connected to a leveling roller that is fixed to the finished bracket and attached to the floor surface in a zigzag manner, and is equipped with a tension adjustment device that can adjust the tension in the middle, A steel wire attached to be fixed to the steel wire socket; a shock absorber attached to the upper surface of the steel wire; a horizontal beam frame attached to the upper stage of the shock absorber; and a side surface of the horizontal beam frame A noise insulation material that is attached to a protrusion formed on the floor; a floor frame that is attached to the upper surface of the horizontal beam frame and includes a groove into which a heating pipe is inserted; and is installed on the upper surface of the corner frame. An ocher block having a groove into which a heating pipe is inserted; A gypsum board fixing frame attached to the section; a gypsum board attached to the gypsum board fixing frame; a heating pipe attached to the floor frame and a groove on the upper surface of the ocher block; and a water vein attached to the upper surface of the floor frame. A prevention plate; a floor heating (ondol) floor fixed to the floor fixing frame of the floor heating (ondol) to which the floor frame is attached; and a front surface of the gypsum board fixing frame; A dry hot water heating structure for a room in a building and a method for constructing the same are provided.

  Further, in order to solve the above-mentioned problem, according to another aspect of the present invention, in the lateral direction, a reference line drawn horizontally on four sides along a reference point set at a lower stage of the indoor wall surface is used as a reference. And fixing the bracket fixing frame (A) by closely contacting the wall surface and the floor surface in four directions after aligning the upper surface of the bracket fixing frame with the ink marking line; A step of installing a number of brackets (B) at a predetermined interval on the front surface of the bracket fixing frame (A); a step of installing an auxiliary bracket (E) on the upper surface of the bracket (B) after the step; and a step after the step Attaching the corner frame (F) to the upper surface of the auxiliary bracket (E) and aligning the level; After the above steps, select the positions at the two corners in the diagonal direction of the floor of the building, and the steel wire socket G) the bottom surface of the steel wire (H) is fixed and installed; after the above process, the steel wire (H) is attached to the first steel wire socket (G) so that one end of the steel wire (H) is fixed; It is connected to the leveling roller (D) assembled to a number of installed brackets (B) and attached to the floor of the building in a zigzag manner. The other end of the steel wire (H) is the second installed on the floor. An assembly process of the steel wire (H) that is fixed to the steel wire socket (G ′) and adjusts the tension; after the above process, it is assembled to the horizontal beam frame (L), and the shock absorber ( A step of installing I); a step of installing a noise insulating material (M) between the horizontal beam frames (L) after the step; and a step of installing the floor frame (O) after the step. An assembly process of a floor frame in which another floor frame (N) is joined to the floor frame (O) after being assembled on the upper surface of the floor (F) and then another floor frame (N) is continuously connected; After the above steps, the heating pipe (S) is fitted into the groove (Q-1) of the loess block (Q) and the groove (N-4) of the floor frame (N) and fixed with the heating XL pipe fixing cap (T). A heating pipe installation step; after the above step, a gypsum board fixing frame (R) is installed in the corner frame (F); after the above step, a gypsum board (X) is installed in the gypsum board fixing frame (R). A step of installing a water vein prevention plate (V) on the upper surface of the floor frame (N) after the step; and a floor fixing frame (ondol) for floor heating (ondol) on the upper surface of the floor frame (N) after the step. U) and after the above process, floor heating (ond) A step of continuously fixing and installing the floor heating (ondol) floor to the floor fixing frame (U) of the ru); and a step of installing the finishing frame (Y) on the front surface of the gypsum board fixing frame (R) after the above steps Is provided.

  As described above, according to the present invention, as described above, the level of the floor surface can be finely adjusted, and the vertical of the wall surface can be easily and quickly made, which is differentiated from other dry heating systems. By removing moisture generated on the floor surface, it provides a comfortable environment and maintains the health of the user.

  In addition, the heat dissipated from the heating pipe, which is a heat transfer medium, is directly transmitted to the floor frame, so that the heating is quickly performed as a whole, and the ocher block plays a role of keeping the heat and sustains the heat. A shock absorber is attached to the floor slab to create a space between the floor slab and the floor material to mitigate the impact, thereby blocking the impact noise generated from the indoor floor from being directly transmitted to the floor slab and preventing interlayer noise. The shock absorber is fitted to the side of the horizontal beam frame and assembled and the fixing bolts are omitted, and the floor floor thickness is reduced by compressing the double installation of the floorboard and installing it in a single layer. The weight of the building is reduced by reducing the weight between layers by reducing the height of the interlayer and reducing the overall weight of the structure using a non-ferrous metal, which is a non-ferrous metal. The instability of the piece assembly is replaced with a fixed clip-type pin during construction, reducing the frictional noise during floor impact, and the friction between the floorboard and the floorboard is reduced with urethane wire, enabling winter construction by dry precision construction The construction period is shortened, and the floor heating (Ondol) floor construction is assembled using the floor heating (Ondol) floor fixing frame, so the adhesive is omitted and the indoor environment is made comfortable, The contact part between the floor and the wall surface can be finished with a finishing frame, so that the finish surface and wall surface of the floor can be beautifully decorated and the construction cost can be reduced.

It is an exploded sectional view of a dry warm water heating structure of a room in a building concerning a 1st embodiment of the present invention. It is sectional drawing of the dry-type hot water heating structure of the building interior concerning the embodiment. It is detail drawing of the bracket of the dry hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the auxiliary | assistant bracket of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the corner | angular frame of the dry hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the steel wire socket and leveling roller of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the steel wire socket and leveling roller of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the shock absorber of the dry hot water heating structure of the room in a building concerning the embodiment. It is a detailed view of the shock absorber and the horizontal beam frame of the dry hot water heating structure in the building interior according to the embodiment. It is detail drawing of the floor frame and heating XL pipe of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the floor heating (ondol) of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is sectional drawing of the crossing angle of the dry-type hot water heating structure of the building interior concerning the 1st Embodiment of this invention. It is detail drawing of the bracket of the dry hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the auxiliary | assistant bracket of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the corner | angular frame of the dry hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the steel wire socket and leveling roller of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the steel wire socket and leveling roller of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the horizontal beam frame of the dry type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the noise heat insulating material and horizontal beam frame of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the gypsum board fixed frame of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is detail drawing of the finishing frame of the dry hot water heating structure of the room in a building concerning the embodiment. It is sectional drawing which shows the attachment of the floor frame of the dry-type hot water heating structure of the building interior room concerning the same embodiment, and the attachment of the floor of floor heating (ondol). It is sectional drawing which shows the attachment of the floor frame of the dry-type hot water heating structure of the room in a building concerning the same embodiment, and a shock absorber. It is a top view which shows attachment of the steel wire and shock absorber of the dry-type hot water heating structure of the room in a building concerning the embodiment. It is a detailed perspective view which shows attachment of the bracket fixed frame, bracket, auxiliary | assistant frame, and square frame of the dry hot water heating structure of the building interior concerning the embodiment. It is a top view which shows attachment of the heating XL pipe and the loess block of the dry-type hot water heating structure of the building interior concerning the embodiment.

  Exemplary embodiments of the present invention will be described below in detail with reference to the accompanying drawings. In addition, in this specification and drawing, about the component which has the substantially same function structure, duplication description is abbreviate | omitted by attaching | subjecting the same code | symbol.

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

  First, the configuration of the present invention will be described in detail with reference to the accompanying drawings. A floor finishing reference line for floor heating (ondol) is set at the lower stage of the indoor wall surface, and ink is drawn horizontally on all four sides. A bracket fixing frame (A) whose upper stage is aligned with the ink marking line and is attached so as to be fixed in close contact with the wall surface; a large number of leveling rollers attached to the front surface of the bracket fixing frame (A). A bracket (B); an auxiliary bracket (E) attached to the upper surface of the bracket (B); a square frame (F) attached to the upper surface of the auxiliary bracket (E); Two or more steel wire sockets (G) attached so as to be in close contact with the floor of the room corner; one end fixed to the first steel wire socket (G), A second steel wire that is connected to the leveling roller assembled to the finished bracket (B) and attached to the floor surface in a zigzag shape, with a tension adjusting device that can adjust the tension in the middle, and the other side of which has been installed A steel wire (H) attached to be fixed to the socket (G ′); a shock absorber (I) attached to the upper surface of the steel wire (H); and attached to an upper stage of the shock absorber (I). A horizontal beam frame (L); a noise insulator (M) attached to a protrusion formed on a side surface of the horizontal beam frame (L); and attached to an upper surface of the horizontal beam frame (L). Floor frame (N); yellow on the upper surface of the corner frame (F), with a groove into which the heating pipe (S) is inserted A block (Q); a gypsum board fixing frame (R) attached to the upper surface of the square frame (F); a gypsum board (X) attached to a groove above the gypsum board fixing frame; and the floor frame (N) and a heating pipe (S) attached to the groove on the upper surface of the loess block (Q); a water vein prevention plate (V) attached to the upper surface of the floor frame (N); and the floor frame (N) A floor heating (Ondol) floor (W) fixed to the floor fixing frame (U) of the attached floor heating (Ondol) and attached to the upper surface of the water vein prevention plate (V); and the gypsum board fixing frame (R) ) And a finishing frame (Y) attached to the front surface.

  The detailed configuration and implementation method of the part of the present invention thus configured will be described as follows.

  The bracket fixing frame (A) is bent as shown in FIG. 2C (A) and FIG. 3B (A), and is composed of a reference surface in close contact with the wall surface and a floor surface in close contact with the floor of the building, Screw holes (A-1) are formed at regular intervals at the upper part of the reference surface, and one set for supporting the bracket (B) below the screw holes (A-1). The guide rail is formed. The bracket fixing frame (A) is configured in such a manner that the above-described guide rail protrudes forward from the reference surface and is bent in a direction facing each other to form a groove (A-3) facing the reference surface. ing. A plurality of screw holes (A-2) through which screws for fixing the bracket fixing frame (A) to the floor are also formed on the floor surface, and one set for supporting the bracket (B) on the upper surface of the floor surface A guide rail is formed, and the guide rail is protruded upward from the floor surface and is bent in a direction facing each other to form a groove (A-4) facing the floor surface. The And at least two or more grooves are formed between the guide rails, and the urethane wire (A-9) is inserted into the grooves. At this time, the upper surface of the urethane wire is slightly smaller than the floor surface. A high number of beads are formed on the lower side of the floor to reinforce the strength of the floor and are spaced from the floor slab.

  The bracket fixing frame (A) formed as described above is made of lightweight aluminum and can be continuously produced with a fixed frame like a chassis. it can.

  The bracket (B) is attached and fixed to the bracket fixing frame (A) as shown in (A) of FIG. 2B and (A) of FIG. 3B, and is bent like the bracket fixing frame (A). A long hole for adjusting the level is formed in the upper part of the wall surface, and the level can be adjusted by a horizontal adjustment bolt (C) penetrating the long hole. And it has the projection part fitted by the guide rail formed in the reference plane of a bracket fixed frame (A) to the lower side of the above-mentioned long hole, and a level adjustment roller (D) is below the floor. The leveling roller is installed so that it can be moved up and down by leveling bolts that protrude from the top of the floor, and can be made of nonferrous metal aluminum for weight reduction. .

  As shown in FIG. 2C (A) and FIG. 3C (A), the auxiliary bracket (E) is bent in multiple stages, and grooves (E-1, E-4) are formed in the front and rear stages. A guide rail is formed on the upper surface by bending toward the front. A locking groove (E-2) is formed between the guide rail and the upper surface of the auxiliary bracket (E), and the line end bent to the lower side of the auxiliary bracket (E) has a front end. A protruding protrusion (E-3) is formed, and can be made of aluminum which is a non-ferrous metal for weight reduction.

  As shown in FIG. 2D (A), the square frame (F) is formed with a guide rail into which the gypsum board fixing frame (R) can be fitted at the end of the upper surface, and a locking groove (F− 6, F-7), and a locking groove (F-4) is formed on the upper surface toward the front. The line ends are sequentially bent to form substrate protrusions (F-2) and (F-1), and there are locking grooves (F-3) between the lower stage and the floor surface. A protruding protrusion (F-5) is formed at the end, and the above-mentioned square frame (F) can be continuously produced in a fixed frame like a chassis, and it can be cut to the required length at the time of use. Can be used.

  The steel wire socket (G) has a hole (G-6) into which an anchor bolt is inserted in a floor of an angle bent at 90 degrees, and a collet is penetrated through the surface bent upward. The collet is fixed with a nut (G-3) on the inside and can be loosened or tightened with a tightening nut (G-1). The steel wire socket (G) is fixed by a nut (G-3) and is loosened or tightened by a tightening nut (G-1), and is used for fixing the steel wire to the collet.

  The nut (G-3) can adjust the tension of the steel wire (H) while fixing the collet. If you want to increase the tension by pulling the steel wire (H), tighten the nut and the bolt behind the collet The steel wire (H) is pulled while being pushed back, so the tension can be maintained.

  The horizontal beam frame (L) is formed in a “U” shape as shown in FIG. 3G (A), and a triangular groove (L-5) is formed in the vertical direction on the upper surface. Urethane wire (L-1) is inserted into (L-5), and a locking groove (L-2) is formed in the upper part of the outside of the side walls on both sides. From the locking groove (L-2), A protruding rib is formed on the lower side at a predetermined interval. And the board | substrate protrusion (L-3) for making the stand of the below-mentioned noise heat insulating material is formed, and the groove | channel (L-4) was formed inside the above-mentioned side wall, and fixed using an aluminum material. It can be continuously produced in a frame and can be used by cutting only the length required for use.

  The floor frame (O) is assembled to the corner frame (F), has a protruding protrusion (O-1) extending upward from the floor surface, and is a fitting portion extending obliquely upward from between the protruding protrusions. (O-3) is formed, and a locking groove (O-2) is formed in the lower part of the fitting portion. In addition, a triangular groove (O-4) is formed in the front protrusion, and the urethane wire (O-5) is inserted into the groove (O-4). Can be continuously produced in a certain frame, and can be used by cutting only the necessary length at the time of use.

  The floor frame (N) is configured in the form of a plate, and a groove (N-4) into which the heating pipe (S) is inserted is formed in the middle of the plate. (N) has a coupling port for coupling to the front, the front coupling port has a groove shape lower than the upper surface, and a fitting portion (N-3) extending obliquely upward from the middle is formed on the side wall of the groove. A locking groove (N-9) is formed in the lower portion of the fitting portion. In addition, a triangular groove (N-14) is formed in the front protrusion, and the urethane wire (N-1) is inserted into the groove (N-14). The coupling port includes a groove (N-5) into which a fitting portion formed in the front coupling port is inserted. A locking protrusion (N-10) is provided at the end of the protruding portion that protrudes obliquely downward to form the groove, and a triangular groove (N) is formed inside the locking protrusion. -8) is formed, and urethane wire (N-15) is inserted into the groove (N-8), and can be continuously produced in a fixed frame using an aluminum material. It can be used by cutting only the length necessary for use.

  Moreover, about said loess block (Q), the groove | channel (Q-1) which can install and install a heating pipe is formed in a semicircle shape on the upper surface of the ocher block (Q). In addition, the heating pipe (S) is made of a synthetic resin material, and a heating pipe fixing cap (T) is formed in the engaging groove (N-11) of the floor frame (N) on the upper surface of the heating pipe (S). The protruding protrusion (T-1) is fitted and fixed.

  In addition, the rear coupling port is configured in the form of a groove (N-5) into which the hook portion (N-3) formed in the front coupling port is fitted, and a protruding portion (N-10) that forms the groove. ) Is formed with a groove (N-5), and a urethane wire (N-8) is inserted into the groove.

  In the shock absorber (I), a cylindrical support port (I-13) is formed on a square floor plate (I-10), and a protrusion (I- 15) is formed, the urethane ring (I-9) is placed on the protrusion (I-15), and the stainless steel plate (I-8) is placed on the upper stage of the urethane ring (I-9). An upper and lower funnel-shaped urethane packing (I-7) is placed on the upper surface of the stainless steel plate (I-8), and a stainless steel plate (I-7) is placed on the upper surface of the urethane packing (I-7). I-3) C A snap ring (I-2) and a flat urethane packing (I-1) are assembled on the upper surface of the stainless steel plate (I-3). In addition, at least two protruding frames (I-12) spaced apart from each other by a predetermined interval are provided on the outer surface of the cylindrical support opening, and the lower part of the floor plate is half-contacted with the steel wire. A circular groove (I-18) is formed.

  In the above embodiment, the stainless steel plate (I-8) as a shock absorber and the upper and lower funnel-shaped urethane packing (I-7) are attached to the upper surface of the support base. The shock absorber can be arranged in a number of layers. In this case, the urethane ring (I-9) is placed on the protrusion on the protrusion (I-15) inside the support port. Then, the stainless steel plate (I-8) and the upper and lower funnel-shaped urethane packings (I-7) are sequentially repeated on the upper stage of the urethane ring (I-9) and arranged in multiple rows of 2 sets or more. The snap ring (I-2) and the flat urethane packing (I-1) can be assembled on the upper surface of the uppermost shock absorber. Therefore, a shock absorber (I) of an appropriate shape can be used according to the weight of the structure to be placed on the upper part, and the above support port is threaded on the outer surface of the pipe for the convenience of manufacturing, and the nut is formed on the floor plate. It can also be manufactured by molding and assembling.

  The gypsum board fixing frame (R) has a groove (R-1) for fitting the gypsum board on the upper side, and a locking groove (R-2) and (R-3) for fitting the finishing frame (Y) on the front surface. ), A protrusion (R-7) is provided on the front surface of the locking groove (R-2), and a floor installation reference protrusion (R-4) and a corner frame (F) are provided on the lower stage of the floor heating (ondol). ) And the protruding protrusions (R-5) and (R-6) are formed.

  The floor fixing frame (U) of the floor heating (Ondol) is formed in an I-beam shape, and a triangular groove (U-5) is formed in the upper part, and urethane packing (U-) is formed in the groove (U-5). 1) is fitted.

  The floor heating (ondol) floor (W) is made of wood and man-made stones, one side is formed with a locking groove (W-1) in the vertical direction, and the other wall is provided with protrusions (W-2) and ( W-3) is formed, and the finishing frame (Y) is fitted into the locking groove (R-2) and the lower locking groove (R-3) on the upper front surface of the gypsum board fixing frame (R). There are protruding protrusions (Y-2) and (Y-1), and the upper part is a protruding protrusion (Y-3) for assembling a cap formed with a locking groove (Y-4) and a protruding protrusion (Y-5) And a substrate protrusion (Y-6) are formed. The construction process of the present invention configured as described above will be described in detail with reference to the accompanying drawings.

  First, as shown in FIG. 2B (A), the protruding protrusion (B) of the bracket (B) is formed between the locking grooves (A-3) and (A-4) formed in the guide rail of the bracket fixing frame (A). When it is pushed in such a way that B-3, B-4) are fitted, the bracket (B) is assembled to the bracket fixing frame (A). Therefore, after assembling a plurality of brackets (B) on the bracket fixing frame (A), as shown in FIG. Align the top (A-7) surface of the bracket fixing frame (A) with the ink marking line in the horizontal direction with reference to the line, and then attach the bottom surface of the bracket fixing frame (A) to the floor surface. After fixing with screw screw (A-5) using hole (A-1) on the wall side, the floor should pass through hole (A-2) and be fixed with anchor bolt (A-6). Can do. At this time, the bracket (B) is pushed or pulled sideways to adjust the distance between the brackets. At this time, the urethane wire (A-9) installed on the upper surface of the bracket fixing frame (A) minimizes the contact surface in the process of pushing the bracket (B) into the bracket fixing frame (A), and the metals come into contact with each other. However, it can reduce the frictional noise that is generated, but acts as a buffer when coupled together.

  After the above steps, the auxiliary bracket (E) is attached to the upper part of the bracket (B). At this time, as shown in (a) and (c) of FIG. 2C and (a) and (c) of FIG. The groove (E-1) formed behind the auxiliary bracket (E) passes through the square hole (B-1) formed in the bracket (B) and is formed in the middle of the horizontal adjustment bolt (C). The groove (C-1) is fitted, and the front groove (E-4) is positioned so as to wrap around the bolt (D-2) for adjusting the height of the flat adjustment roller (D), and the nut (D-1 ) To assemble.

  After the above steps, the square frame (F) is assembled on the upper portion of the auxiliary bracket (E). At this time, the square frame (F) is shown in FIGS. 2D (A) and (C) and FIG. 3D (A) and (C). As shown, the lower part of the corner frame has a protruding protrusion (F-5) that protrudes apart from the floor surface in the locking groove (E-2) formed on the upper surface of the auxiliary bracket (E). Projecting protrusion (F-5) is inserted. At the same time as the insertion, the protrusion (E-3) protruding forward of the auxiliary bracket (E) is pushed in horizontally so as to be fitted in the groove (E-2) formed in the lower part of the square frame (F). .

  After the above process, the level is adjusted so that the square frame (F) can maintain the horizontal state. At this time, the level adjustment bolt (assembled in the nut (B-2) formed on the bracket (B) ( C) and the adjustment bolt for adjusting the height of the leveling roller (D) are tightened or loosened to adjust the level. This will be described in more detail. When the leveling bolt attached to the rear of the bracket (B) is rotated in the loosening direction, the leveling bolt rises upward. Therefore, the rear of the auxiliary bracket (E) inserted in the middle groove of the horizontal adjustment bolt is rotated in the lifting direction. Conversely, when the horizontal adjustment bolt is rotated in the tightening direction, the horizontal adjustment is performed. The bolt rotates downward and the rearward downward. As described above, the corner frame (F) placed on the auxiliary bracket (E) moves together with the rotation of the auxiliary bracket (E), so that the rear horizontal of the corner frame (F) can be adjusted. In the description, the level of the corner frame (F) is adjusted by adjusting the rear height, but the front height can also be adjusted by rotating the adjustment bolt for adjusting the height of the front leveling roller. Is. Since this content is the same as that of the adjustment method mentioned above, detailed description is abbreviate | omitted.

  After the above process, a steel wire is attached to the interior room of the building. At this time, first, two steel wire sockets (G, G ') are attached to a position corresponding to one floor surface of the interior room of the building. The steel wire socket (G, G ′) is a steel wire that is fixed by anchor bolts (G-7) using holes (G-6) formed on the floor surface of the angle (G-5) constituting the steel wire socket (G, G ′). The socket (G, G ′) is firmly fixed to the floor slab.

  After the above steps, one side of the steel wire (H) is fixed to the collet of the steel wire socket (G), and then the steel wire (H) is attached to the bracket (B) installed on the opposing wall. Hang on the assembled leveling roller (D) and connect it, then hang it on the leveling roller (D) assembled on the bracket (B) installed on the opposite wall and connect it in a zigzag shape It can be attached to the floor. After this step, the other end is joined to a steel wire socket (G ') installed at a position corresponding to the steel wire socket (G). During this process, the steel wire (H) can be adjusted tightly while maintaining the level, but if you want to increase the tension by pulling the steel wire (H), tighten the nut and the bolt behind the collet will move backward. Pulls the steel wire (H) while being pushed in, so the tension can be maintained.

  In the above embodiment, the tension can be maintained by using the tension adjusting nut attached to the steel wire socket (G). However, in some cases, a separate tension adjusting device may be attached in the middle of the steel wire. it can.

  As described above, the steel wire (H) whose tension has been adjusted is maintained to be horizontal, and if the steel wire (H) does not coincide with the horizontal level, the steel wire (H) is adjusted so that the level is adjusted. The leveling roller (D) is adjusted by changing the height of the leveling roller (D) by loosening or tightening the leveling bolt that supports the leveling roller (D). This is the same as the leveling method.

  After attaching one steel wire (H) by the above process, attach another steel wire (H) in the direction crossing the above steel wire (H), but this process is also the same as the above process. Detailed description is omitted.

  As described above, after installing the steel wire (H), the horizontal beam frame (L) is installed on the square frame (F) at a predetermined interval. At this time, the length of the horizontal beam frame (L) is set first. After cutting and joining the required number of shock absorbers (I) in the vertical direction to the grooves (L-4) formed inside the side walls of the horizontal beam frame (L), the ends are installed on the wall surfaces on both sides The corner frame (F) is placed on the board projection (F-1) so that the upper surface of the horizontal beam frame (L) coincides with the upper surface of the corner frame (F) installed on the wall surface.

  In the state as described above, the frame protruding outside the support opening of the shock absorber (I) is assembled in a form that fits into the groove (L-4) formed inside the side wall of the horizontal beam frame (L). The shock absorber (I) is slid to the lower part of the horizontal beam frame (L) and is movable.

  In the state as described above, after moving the shock absorber (I) and positioning it at the top of the point where the steel wires (H) intersect, as shown in FIGS. 2G and 2g (A), (I), Install the shock absorber (I). At this time, the semicircular groove (I-18) formed in the projecting portion formed in the lower part of the bottom plate of the shock absorber (I) wraps the steel wire (H) and is then fixed using a clip. The groove (J-2) of the fixing pin (J) is hung on the steel wire (H). Then, the hook (J-1) is hung on the lower protruding protrusion (I-16) of the shock absorber (I) and fixed by pushing. At this time, (J-3) serves as a clip, and the urethane packing (I-1) of the shock absorber (I) is a buffer between the bottom surface inside the horizontal beam frame (L) and the top surface of the shock absorber (I). The urethane ring (I-11) plays a role of buffering between the side surface inside the horizontal beam frame (L) and the side surface of the shock absorber (I). In addition, the circular stainless steel plate (I-3) is subjected to the impact received from the edge of the circular urethane packing (I-5) and the circular urethane packing (I-5) is under the circular stainless steel. The primary impact is absorbed while being transmitted to the center of the plate (I-6), and the impact transmitted from above to the circular stainless steel plate (I-6) is the edge of the circular urethane packing (I-7). The circular urethane packing (I-7) portion is received and transmitted to the central portion of the circular stainless steel plate (I-8) below, so as to absorb impacts secondarily.

  As described above, when the installation of the horizontal beam frame (L) and the shock absorber (I) is completed, the noise insulation material (M) is attached between the horizontal beam frame (L). ) Is a double noise insulation plate in which a urethane plate is compressed on a wood plywood as shown in FIG. 3I, and as shown in FIG. 3H, on the substrate protrusion (L-3) protruding to the side of the horizontal beam frame (L). It is hung and attached so that the end part of said noise heat insulating material (M) may get on.

  After the above steps, the ocher block (Q), the floor frame (O), and the floor frame (N) are installed on the upper part of the corner frame (F). This will be described in more detail in FIG. As shown, the ocher blocks (Q) are sequentially installed on the outer upper surface of the corner frame (F), and the floor frame (O) is attached to the inner side of the ocher block (Q). At this time, the protruding protrusion (O-1) protruding outward at the lower part of the floor frame (O) is pushed in and fitted into the engaging groove (F-4) on the upper surface of the square frame (F), and the horizontal beam frame (L ) Hooks (P-2) of the fixing pin (P) on the groove (L-2) on the side surface of (), and hooks (P) of the fixing pin (P) on the locking groove (O-6) of the floor frame (O). -1) Multiply and push to fix. After this process, another floor frame (N) is assembled in order to the protruding protrusion (O-3) of the floor frame (O). At this time, the floor frame (N) is advanced in an oblique direction to the rear connecting port. The fitting portion (O-3) of the floor frame (O) is inserted into the formed groove (N-5). When the front is lowered after such insertion, the locking projection (N-10) formed at the end of the floor frame (N) is formed in the locking groove (O) formed at the lower portion of the fitting portion of the floor frame (O). -2) so that it cannot be rotated any further, and at the same time, the upper surface of the floor frame (N) is flattened.

  At this time, the urethane wire (O-5) installed on the contacting surfaces plays a role of preventing and buffering noise in the process of contacting the floor surface of the floor frame (N), and the urethane wire (N-15) is acting as a floor. It plays the role of preventing noise and buffering in the process of coming into contact with the protrusion of the frame (N).

  Through the above process, one floor frame (N) is assembled to the floor frame (O). After that, if another floor frame (N) is continuously installed in front of the floor frame (N). Good. Since the front joint is configured in the same manner as the floor frame (O), it can be assembled in the same manner.

  As described above, when the installation of the floor frame (O, N) is completed, the heating pipe (S) is installed. At this time, as shown in FIG. 2I (c) and FIG. 8, the heating pipe (S) is fitted into the groove (Q-1) of the loess block (Q) and the groove (N-4) of the floor frame (N). The protrusion (T-1) of the fixing cap (T) of the heating pipe is aligned with the engaging groove (N-11) of the floor frame (N) on the upper surface of the heating pipe (S) and fixed. At this time, the ocher block (Q) plays a role of heat insulation to prevent heat loss of the heating pipe (S), and the protrusion (N-12) of the floor frame (N) supports the bottom surface of the heating pipe (S) to support the floor. Since the space is opened from the frame (N), it serves to block the heat of the heating pipe (S) from being dissipated under the floor frame (N).

  After the above steps, the gypsum board fixing frame (R) is assembled to the corner frame (F). At this time, as shown in FIG. 3I (A), the projection (R-6) of the gypsum board fixing frame (R) is fitted into the locking groove (F-7) of the square frame (F) and lowered to the front. Then, the protruding protrusion (R-5) of the gypsum board fixing frame (R) is assembled in the locking groove (F-6) of the corner frame (F).

  After the above steps, a water vein prevention plate (V) formed by a thin roll is laid on the upper surface of the floor frame (N) as shown in FIG. 2J.

  After the above step, the floor heating (Ondol) floor (W) is attached. As shown in FIG. 2J (C), the floor heating (Ondol) floor (W) protrusion (W-3) is attached. Press against the lower projection (R-4) of the gypsum board fixing frame (R), lower the opposite side, and attach it closely to the upper surface of the floor frame (N). The protruding protrusion (U-4) is aligned with the groove (N-6) of the floor frame (N), and the protruding protrusion (U-2) is aligned with the locking groove (W-2) of the floor (W) of the floor heating (ondol). And then pushed backward, the protrusion (U-3) of the floor fixing frame (U) of the floor heating (ondol) is hooked and fixed to the locking protrusion (N-13) of the floor frame (N).

  At this time, as shown in (c) of FIG. 2J and (a) of FIG. 4, when the floor (W) of the floor heating (Ondol) is assembled, the protruding protrusion (U) of the floor fixing frame (U) of the floor heating (Ondol) -2) is a method of fitting and assembling on both sides, enabling assembly and disassembly on both sides, and the floor (W) of the wood floor heating (Ondol) extends to the moisture in the summer, and the protrusion of the contact part (W-2) And (W-2) are protruding upward, the urethane packing (U-1) of the floor fixing frame (U) of the floor heating (Ondol) is the protrusion of the floor (W) of the floor heating (Ondol) It fits between (W-2) and (W-2) and is assembled at regular intervals.

  After the above steps, the finishing frame (Y) is installed on the gypsum board fixing frame (R). At this time, as shown in FIG. The protruding projections (Y-2) and (Y-1) of the finishing frame (Y) are fitted into 2) and (R-3), and are fixed when lowered.

  At this time, the corners of the finishing frame (Y) are cut at an angle of 45 degrees so as to coincide with each other when the corners are assembled, and when they come into contact with each other, the corners are finished by matching each other.

  Construction is completed through the above process. In the case of construction as described above, the construction period is shortened by enabling the construction in winter by dry precision construction, and the floor heating (Ondol) floor construction uses a floor heating (Ondol) floor fixing frame As a result, the adhesive can be omitted to make the indoor environment more comfortable, and the contact area between the floor and wall can be finished with a finishing frame, allowing the floor finish and wall to be beautifully decorated and saving construction costs. Become.

  The present invention relates to a dry hot water heating structure for a room in a building and a construction method thereof. The load of the building is reduced by dry assembling construction using aluminum material, which is a nonferrous metal with low specific gravity and high thermal conductivity, as the main material of the structure, increasing the thermal efficiency so that heat conduction occurs quickly in the hot water heating process The assembly-type space construction method makes the construction easier and shortens the construction time, cuts the direct impact of the floor slab to reduce the interlayer noise, minimizes the floor section height, The building has a reduced interlaminar height, prevents moisture from stagnating on the bottom to prevent odors and parasitism, and allows the construction to be carried out at all times regardless of the season. The present invention relates to a dry hot water heating structure for an interior room and a method for its construction.

  The preferred embodiments of the present invention have been described in detail above with reference to the accompanying drawings, but the present invention is not limited to such examples. It is obvious that a person having ordinary knowledge in the technical field to which the present invention pertains can come up with various changes or modifications within the scope of the technical idea described in the claims. Of course, it is understood that these also belong to the technical scope of the present invention.

A Bracket fixing frame B Bracket C Leveling bolt D Leveling roller E Auxiliary bracket F Square frame G Steel wire socket H Steel wire I Shock absorber J Fixing pin K Urethane packing L Horizontal beam frame M Noise insulation N Floor frame O Floor frame P Fixing pin Q Loess block R Plaster board fixing frame S Heating XL pipe T Heating XL pipe fixing cap U Floor heating (ondol) floor fixing frame V Water vein prevention plate W Floor heating (ondol) floor X Gypsum board Y Finishing frame

Claims (28)

In a dry hot water heating structure in a building interior, a bracket fixing frame that is attached so that the floor finishing reference line of the floor heating is aligned with the lower part of the wall surface and is fixed in close contact with the wall surface;
A plurality of brackets attached to the front surface of the bracket fixing frame and provided with leveling rollers;
An auxiliary bracket attached to the upper surface of the bracket;
A square frame attached to the upper surface of the auxiliary bracket;
Two or more steel wire sockets attached in close contact with the floor of the interior corner of the building being constructed;
One end is fixed to the first steel wire socket, connected to a horizontal adjustment roller assembled to a completed bracket, attached to the floor surface in a zigzag manner, and equipped with a tension adjustment device capable of adjusting the tension in the middle. A steel wire attached to be secured to the second steel wire socket on the other side,
A shock absorber attached to the upper surface of the steel wire;
A horizontal beam frame attached to an upper stage of the shock absorber;
A noise insulator attached to a protrusion formed on a side surface of the horizontal beam frame;
A floor frame attached to an upper surface of the horizontal beam frame;
An ocher block constructed on the upper surface of the corner frame and having a groove formed between which a heating pipe is inserted;
A gypsum board fixing frame attached to the upper surface of the corner frame;
A gypsum board attached to a groove in the upper part of the gypsum board fixing frame;
A heating pipe attached to the floor frame and a groove on the upper surface of the ocher block;
A floor heating floor attached to an upper surface of a floor heating fixed floor frame to which the floor frame is attached;
A dry hot water heating structure for a room in a building, comprising a finishing frame attached to the front surface of the gypsum board fixing frame.   The bracket fixing frame is composed of a reference surface that is in close contact with the wall surface of the building and a floor surface that is in close contact with the floor of the building, and screw holes are formed at regular intervals at an upper portion of the reference surface, A set of guide rails for supporting the bracket is formed below the screw holes, and the guide rails protrude forward from the reference surface and are bent in directions opposite to each other so as to face the reference surface. It is configured to form a groove, and a plurality of screw holes through which screws for fixing the bracket fixing frame to the floor are also formed on the floor surface, and one set for supporting the bracket on the upper surface of the floor surface A guide rail is formed, and the guide rail protrudes upward from the floor surface and is bent in a direction facing each other to form a groove facing the floor surface. , Dry water heating structure building room according to claim 1.   At least two beads are formed between the guide rails of the bracket fixing frame. A urethane wire is inserted into the lower part where the beads are formed, and is made of lightweight aluminum. The dry hot water heating structure for a room in a building according to claim 2, wherein the structure is capable of being produced.   The bracket is bent together with the bracket fixing frame, and a long hole for adjusting the horizontal is formed in the upper part of the wall surface, and a guide formed on the reference surface of the bracket fixing frame below the long hole. The dry warm water heating structure for a room in a building according to claim 1, further comprising a protrusion fitted to the rail, and a leveling roller installed at a lower portion of the floor surface.   5. The dry hot water heating structure of a building interior according to claim 4, wherein the leveling roller attached to the bracket is installed so as to be moved up and down by a leveling bolt projecting from an upper part of the floor surface. .   The auxiliary bracket is bent in multiple stages, and grooves are formed in the front and rear stages, and a guide rail is formed on the upper surface so as to be bent forward, and the upper surfaces of the guide rail and the auxiliary bracket are formed. 2. The building interior dry type according to claim 1, wherein a locking groove is formed between the two, and a protruding protrusion is formed forward at a line end bent to the lower side of the auxiliary bracket. Hot water heating structure.   The square frame has a guide rail into which a gypsum board fixing frame can be fitted at the end of the upper surface, and a locking groove is formed inside the guide rail. The guide rail has a locking groove formed forward, The end is bent in order to form a substrate protrusion, and the lower stage is formed with a protruding protrusion that is spaced apart from the floor surface and a locking groove is formed between the protruding protrusion and the floor surface. The dry hot water heating structure for a room in a building according to claim 1, wherein   The steel wire socket is formed with a hole into which an anchor bolt is inserted in a floor with an angle bent at 90 degrees, and a collet is inserted through the surface bent upward, and the collet is The dry hot water heating structure for a room in a building according to claim 1, wherein the structure is fixed with a nut on the inside and can be loosened or tightened with a tightening nut.   The horizontal beam frame is formed in a U-shape, and a locking groove is formed in the upper part of the outside of the side walls on both sides, and a rib protruding below the locking groove is provided at a predetermined interval. The dry warm water heating structure for a room in a building according to claim 1, wherein a groove is formed inside the side wall.   The dry hot water heating structure for a building interior according to claim 9, wherein a triangular groove is formed in a vertical direction on an upper surface of the horizontal beam frame, and a urethane wire is inserted into the groove.   The shock absorber has a cylindrical support opening formed on a square floor plate, a protrusion protruding inward is formed around the lower inner portion of the support opening, and a urethane ring is placed on the protrusion. A shock absorber composed of a stainless steel plate on the upper stage of the ring and an upper and lower funnel-shaped urethane packing is placed on the upper surface of the stainless steel plate, and a stainless steel plate is placed on the upper surface of the shock absorber. A snap ring and a flat urethane packing are assembled on the upper surface of the cylindrical support, and at least two projecting frames spaced at a predetermined interval are provided on the outer surface of the cylindrical support port. The dry hot water heating structure for a room in a building according to claim 1.   The dry hot water heating structure for a building interior according to claim 11, wherein the shock absorber has a semicircular groove formed in a lower part of a floor plate so as to contact the steel wire.   The dry hot water heating structure for a building interior according to claim 12, wherein at least two shock absorbers are provided inside the support opening of the shock absorber.   The horizontal beam frame is formed in a U-shape, and a locking groove is formed on the upper part of the side wall on both side surfaces, and a protruding rib is formed on the lower side spaced apart from the locking groove by a predetermined distance. 2. A dry hot water heating structure for a building interior according to claim 1, wherein a substrate projection for forming a base for a noise heat insulating material to be described later is formed, and a groove is formed inside the side wall.   The dry hot water heating structure for a building interior according to claim 13, wherein a triangular groove is formed in a vertical direction on an upper surface of the horizontal beam frame, and a urethane wire is inserted into the groove.   The floor frame includes protruding protrusions extending upward from the floor surface, a hooking portion extending obliquely upward from between the protruding protrusions is formed, and a locking groove is formed below the hooking portion. The dry hot water heating structure for a room in a building according to claim 1, wherein The dry type of a building interior according to claim 15, wherein a triangular groove is formed at a front protrusion of the floor frame, and a urethane wire is inserted into the groove. Hot water heating structure.   The floor frame is configured in the form of a plate, a groove into which a heating pipe is inserted is formed in the middle of the plate, and a coupling port for coupling with another floor frame is provided at the front and rear. The front coupling port has a groove shape lower than the upper surface, and a hooking portion extending obliquely upward from the middle is formed on the side wall of the groove, and a locking groove is formed at the lower portion of the hooking portion. The dry warm water heating structure for a building interior according to claim 1, wherein the mouth is configured in the form of a groove into which a hook portion formed in the front joint port is fitted.   A triangular groove is formed in the front protrusion of the floor frame, and a urethane wire is inserted into the groove. A groove is also formed in the end of the protrusion of the rear coupling port. The dry hot water heating structure for a room in a building according to claim 17, wherein a urethane wire is inserted into the groove.   The dry hot water heating structure for a building interior according to claim 1, wherein the groove that can be installed by fitting a heating pipe on the upper surface of the loess block is formed in a semicircular shape.   2. The heating pipe according to claim 1, wherein the heating pipe is made of a synthetic resin material, and a heating pipe fixing cap is fixed to the upper surface of the heating pipe by fitting a protruding protrusion into a locking groove of the floor frame. Dry hot water heating structure in the building interior.   The gypsum board fixing frame has a groove for fitting the gypsum board on the upper side, a locking groove for fitting the finish frame on the front surface, a protruding protrusion on the front surface of the locking groove, and a floor heating on the lower stage. The dry warm water heating structure for a room in a building according to claim 1, wherein an installation reference protrusion of the floor and a protruding protrusion assembled to the square frame are formed.   The building interior according to claim 1, wherein the floor fixing frame of the floor heating is formed in an I-beam shape, a triangular groove is formed in an upper portion, and urethane packing is fitted in the groove. Dry hot water heating structure. Formed of floor wood and artificial stone for floor heating,
The dry warm water heating structure for a room in a building according to claim 1, wherein a locking groove is formed on one side in the vertical direction, and a projection is formed on the other wall.   The finishing frame has an engaging groove and a protruding protrusion fitted into the lower engaging groove on the upper front of the gypsum board fixing frame, and an protruding protrusion on which the cap formed with the engaging groove and the protruding protrusion is assembled on the upper stage. The dry warm water heating structure for a building interior according to claim 1, wherein a substrate protrusion is formed.   The dry hot water heating structure for a room in a building according to any one of claims 1 to 22, further comprising a thin water vein prevention plate between the floor frame and the floor of the floor heating (ondol). . In constructing a dry hot water heating structure in a building interior,
A step of fitting a plurality of brackets to the bracket fixing frame and assembling the bracket fixing frame, and then fixing the bracket to the indoor wall surface and the slab floor surface;
Installing an auxiliary bracket on top of the bracket;
Assembling a square frame on top of the auxiliary bracket;
Installing a steel wire in the room of the building;
Assembling shock absorbers on a horizontal beam frame and installing them on a square frame at predetermined intervals;
Moving the shock absorber to join the upper part of the point where the steel wires intersect, and installing noise insulation between the horizontal beam frames;
Thereafter, the process of attaching the ocher block, the floor frame and the floor frame to the upper part of the corner frame, the process of attaching the heating pipe after the installation of the floor frame, and the process of assembling the gypsum board fixing frame to the corner frame;
Thereafter, a process of installing a floor heating floor on the upper surface of the floor frame;
Thereafter, the construction method of the dry hot water heating of the interior room of the building, comprising the step of installing the finishing frame on the gypsum board fixing frame. 28. The construction method for dry hot water heating in a building interior according to claim 27, further comprising a step of attaching a thin water vein prevention plate between the floor frame and the floor heating floor.