KR102622073B1 - Inter-floor noise prevention heating piping panel that is easy to install at regular intervals of heating piping - Google Patents

Abstract

The present invention relates to a heating piping panel that can easily install heating piping in an apartment complex. The inter-floor noise-prevention heating piping panel that facilitates installation of heating pipes at uniform intervals according to an embodiment of the present invention is an inter-floor noise-prevention heating piping panel that facilitates installation of heating pipes that heat the floor, and fixes the heating pipes. a panel top portion formed through a plurality of pin holes into which pipe fixing pins are inserted, a panel skirt portion extending downward along the circumference of the panel top portion so that the panel top portion is spaced apart from the floor to form a pouring space into which mortar is poured; A pouring hole formed through the panel top part through which mortar is injected from the upper part of the panel top part into the pouring space, a panel reinforcement rib supporting the part of the panel top part located inside the panel skirt part from the floor, and a pouring space. It includes a rib communication part in which a portion of the panel reinforcement rib is cut to prevent the poured mortar from creating a portion that is not poured due to the panel reinforcement rib. Therefore, the construction period can be shortened and construction costs can be reduced.

Description

Inter-floor noise prevention heating piping panel that is easy to install at regular intervals of heating piping}

The present invention relates to a heating piping panel that can easily install heating piping in an apartment complex.

Typically, heating pipes for heating are installed on the floor of an apartment building.

Heating pipes are installed by forming a foamed concrete layer for insulation on the floor, installing a wire mesh on the foamed concrete layer, and tying the heating pipes with wires, or by fastening wire-shaped pins directly to the foamed concrete layer for heating. Install piping.

However, when installing the heating pipes directly or by tying them with wire, not only does the spacing between the heating pipes become uneven, resulting in uneven heating, but also the problem of increased airflow occurs because the heating pipes must be individually tied and fixed with wires. there was.

To solve this problem, "Sound insulation panel structure for apartment complexes" has been disclosed in Korea Registered Utility Model Publication No. 20-0328788 (announced on October 1, 2003).

The sound-insulating panel structure of the conventional apartment complex is formed by recycling waste synthetic resin to form a plurality of cylindrical pillars protruding a certain length in the downward direction at the four corners and center of a rectangular or square body, and the inner central part of the cylindrical pillars. A partition wall is formed to separate the cylindrical columns into an upper concave portion and a lower vibration isolation groove, and an upper support panel with a plurality of fastening holes for fixing pipes; An insulating portion in which cylindrical pillars are respectively inserted and fixed to the lower part of the upper support panel, forming a plurality of insertion holes to be coupled to the upper support panel, and made of an insulating material; They are each inserted and fixed into the plurality of vibration isolation insertion grooves of the upper support panel, and are formed to protrude at a certain length from the bottom of the insulation section. They are made of a material with a low elastic modulus and have a U-shaped cross-section to prevent the transmission of noise to the slab. anti-vibration body; And it is inserted into the fastening hole of the upper support panel, and is formed as a ring for fixing the pipe. One side of the ring is long and includes a fastening ring with an inverted triangular separation prevention member formed at the bottom to prevent it from falling off after insertion into the fastening hole. .

The sound insulation panel structure of a conventional apartment complex constructed in this way has a plurality of fastening holes formed in the upper support panel, and a fastening ring with a breakaway prevention member is fastened to the fastening hole, so that heating pipes can be installed uniformly and easily. .

However, in the sound insulation panel structure of a conventional apartment building, the spacing between the plurality of fastening holes is relatively wide, making it difficult to finely adjust the installation spacing of the heating pipes, resulting in uneven heating.

In addition, when the spacing between fastening holes is narrowed in order to finely adjust the spacing between heating pipes, there is a problem in that the rigidity of the upper support panel is weakened and easily damaged.

The present invention was created to solve the above-mentioned problems. The problem that the present invention aims to solve is to finely adjust the spacing of the heating pipes by setting the spacing between the pin holes where the pipe fixing pins are installed on the panel top to 10 mm. The purpose is to provide an inter-floor noise prevention heating piping panel that facilitates construction of heating piping at uniform intervals to prevent the occurrence of unevenness.

In addition, the present invention not only prevents the weakening of the rigidity of the panel top part from weakening even if a relatively large number of pin holes are formed by forming a panel reinforcing rib at the bottom of the panel top part, but also firmly supports the heating pipe, and the panel reinforcement rib strengthens the plate. The purpose is to provide an interfloor noise-prevention heating piping panel that is easy to construct at even intervals of heating piping that can minimize the transmission of impact noise by forming it in an upright shape to minimize the contact area with the floor.

In addition, the present invention minimizes the occurrence of voids due to unplaced mortar by forming a rib communication part and a rib cut part in the panel reinforcement rib, thereby improving the durability of the mortar layer and reducing inter-floor noise by making it easy to construct heating pipes at uniform intervals. The purpose is to provide anti-heating piping panels.

In addition, the present invention forms a panel attachment part attached to the floor on the panel top plate and installs it by attaching it to the floor, thereby enabling the construction of heating pipes at uniform intervals, which can prevent construction defects caused by separation from the floor when pouring mortar. The purpose is to provide a heating piping panel that easily prevents noise between floors.

In addition, the present invention has pipe fixing pins installed on the panel top in a form that surrounds the circumference of the heating pipe, thereby enabling construction of heating pipes at uniform intervals to quickly and easily fix the heating pipes and at the same time firmly fix the heating pipes. The purpose is to provide a heating piping panel that easily prevents noise between floors.

The inter-floor noise prevention heating piping panel that facilitates the construction of heating pipes at uniform intervals according to an embodiment of the present invention to achieve the above-mentioned task is an inter-floor noise prevention heating piping panel that facilitates the installation of heating pipes that heat the floor. In a panel top portion formed through a plurality of pin holes into which pipe fixing pins for fixing the heating pipe are inserted, the panel top portion is spaced apart from the floor and extends downward along the periphery of the panel top portion to form a pouring space into which mortar is poured. A panel skirt portion formed, a pour hole formed through the panel top portion through which mortar is injected from the upper part of the panel top portion into the pouring space, and panel reinforcement that supports the portion of the panel top portion located inside the panel skirt portion from the floor. It includes a rib, and a rib communication portion in which a portion of the panel reinforcement rib is cut so that the mortar poured into the pouring space does not generate a portion that is not poured by the panel reinforcement rib.

The plurality of pin holes may be arranged at 10 mm intervals to minimize heating imbalance due to the difference in spacing between the heating pipes.

The panel reinforcement rib has an acute angle at the edge where the end of the panel reinforcement rib is located, so that the end of the panel reinforcement rib is cut to prevent the occurrence of an acute angle corner to prevent voids due to non-inflow of mortar. It may include a rib cut portion.

It may include a panel attachment portion attached to the floor to reinforce rigidity by distributing the load applied to the panel top portion to the floor and to prevent floating from the mortar when pouring the mortar.

The pipe fixing pin includes a pin portion that is inserted into each pin hole corresponding to both sides of the heating pipe, a pin locking portion that spans the lower circumference of the pin hole when the pin portion is inserted into the pin hole with a circumference larger than the circumference of the pin portion, And when the pin portion is inserted into the pin hole, a pin groove is formed through the pin portion to cause elastic deformation in the radial direction of the pin portion to prevent damage to the pin locking portion, thereby weakening the rigidity of the pin portion where the pin locking portion is located. May include wealth.

According to the present invention, a panel reinforcement rib is formed in the lower part of the panel top part, so that a relatively large number of pin holes can be formed in the panel top part, so the spacing of the fin holes is densely formed at 10 mm intervals, and the position of the heating pipe is precisely adjusted and installed. , it can prevent the occurrence of heating imbalance.

In addition, by forming a panel reinforcement rib in the lower part of the panel top in the form of a plate to minimize the contact surface with the floor, transmission of vibration noise from the upper part to the floor can be minimized, thereby minimizing the generation of inter-floor noise.

In addition, by forming a rib communication part in the panel reinforcement rib to communicate with the pouring spaces divided by the panel reinforcing ribs, it is possible to prevent the occurrence of parts where mortar is not placed in the pouring space, thereby preventing construction defects.

In addition, by forming a panel cutout in the form of cutting the panel reinforcement rib at the edge of the acute angle formed by the panel reinforcement rib, the formation of an acute angle corner is suppressed, preventing construction defects such as voids occurring due to mortar not being placed at the corner. It can be prevented.

In addition, since the heating piping is fixed to the panel top by inserting a piping fixing pin into a pin hole, the heating piping can be installed quickly and easily, shortening the construction period.

In addition, since the inter-floor noise prevention heating piping panel is made of synthetic resin and has thermal insulation properties, there is no need to form a foamed concrete layer, shortening the construction period and reducing construction costs.

Figure 1 is a perspective view showing an inter-floor noise prevention heating piping panel that facilitates installation of heating piping according to an embodiment of the present invention.
Figure 2 is a perspective view from the bottom showing an inter-floor noise prevention heating piping panel that facilitates installation of heating piping according to an embodiment of the present invention.
Figure 3 is a plan view showing an inter-floor noise prevention heating piping panel that facilitates installation of heating piping according to an embodiment of the present invention.
Figure 4 is a bottom view showing an inter-floor noise prevention heating piping panel that facilitates installation of heating piping according to an embodiment of the present invention.
Figure 5 is a side cross-sectional view of an inter-floor noise prevention heating piping panel that facilitates installation of heating piping according to an embodiment of the present invention.
Figure 6 is a side cross-sectional view schematically showing a state in which a floor structure is constructed using an inter-floor noise-prevention heating piping panel that is easy to install heating piping according to an embodiment of the present invention.

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

The inter-floor noise prevention heating piping panel 100, which is easy to construct at uniform intervals of heating piping according to an embodiment of the present invention, has heating piping 130 installed to support the heating piping 130 embedded in the floor of an apartment complex at uniform intervals. It can support and minimize the transmission of inter-floor noise between the upper and lower floors.

As shown in Figures 1 to 6, the inter-floor noise prevention heating piping panel 100, which facilitates the construction of heating piping at uniform intervals according to an embodiment of the present invention, may include a panel top portion 110.

The panel top portion 110 is formed in the shape of a plate, and the heating pipe 130 is seated on the upper portion and can be fixed by the pipe fixing pin 120.

Pin holes 111 may be formed through the panel top portion 110 so that pipe fixing pins 120 can be inserted at regular intervals.

A plurality of pin holes 111 may be arranged at equal intervals on the panel top portion 110.

The pin holes 111 can be arranged at equal intervals of 10 mm, and when the pin holes 111 are formed at 10 mm intervals, they can be installed by arranging them evenly on the floor at precise equal intervals.

At this time, the heating pipe 130 may have a diameter not exceeding 15 mm, and when the pin holes 111 are formed at intervals of 10 mm, the fixing position of the heating pipe 130 can be precisely adjusted and fixedly installed. By installing the heating pipes 130 at uniform intervals throughout the floor, the floor can be heated to a uniform temperature throughout.

Here, when the pin holes 111 exceed the 10 mm spacing as in the prior art, there is a risk of heating imbalance because they may be located on one side of the relatively narrow space due to the basic installation interval, and the pin holes 111 are If the spacing is less than 10 mm, there is a problem that the panel top portion 110 is easily damaged because the rigidity of the panel top portion 110 is relatively weak.

In the panel top portion 110, a pour hole 113 through which the mortar to form the mortar layer 500, which will be described below, passes through the panel top portion 110 and is poured into the pour space 110a may be formed through the panel top portion 110. there is.

A plurality of pour holes 113 may penetrate the panel top 110, and the plurality of pour holes 113 are formed at equal positions in the panel top 110 to evenly distribute mortar to the panel top 110. and can flow into the pouring space (110a).

As shown in Figures 1 to 6, the inter-floor noise prevention heating piping panel 100, which facilitates the construction of heating piping at uniform intervals according to an embodiment of the present invention, may include a panel skirt portion 115.

The panel skirt portion 115 can support the panel top portion 110 by spaced it from the bottom to the top to form a pouring space 110a at the bottom of the panel top portion 110.

The panel skirt portion 115 may be formed to extend downward along the circumference of the panel top portion 110, and the panel skirt portion 115 is designed to prevent vibration from impact on the interfloor noise prevention heating piping panel 100. In order to minimize transmission to the floor, it may be formed along the circumference of the panel top portion 110 in the form of a plate erected in a direction perpendicular to the panel top portion 110 at the bottom of the panel top portion 110.

Here, the panel skirt portion 115 is a fitting structure in which adjacent inter-floor noise-prevention heating piping panels 100 are coupled to each other so that a plurality of inter-floor noise-prevention heating piping panels 100 can be installed in a form that covers the entire floor. You can have

For example, when the panel top portion 110 is formed in the shape of a square plate, a skirt protrusion 115a protruding outward is formed on one side that shares a vertex with any one of the four sides, and a skirt protrusion 115a is formed on the other two sides. A skirt groove portion 115b into which the skirt protrusion 115a is inserted and fitted is formed, so that the skirt protrusion 115a of one of the inter-floor noise-prevention heating piping panels 100 is adjacent to the skirt groove portion of the inter-floor noise-prevention heating piping panel 100. A plurality of inter-floor noise prevention heating piping panels 100 may be installed on the floor in a form inserted into (115b), covering the entire floor.

The panel skirt portion 115 can form a substantial thickness of the heating piping panel 110, and the thickness of the panel skirt portion 115 is formed to be approximately 30 mm, so that the heating piping panel 110 can have a thickness of 30 mm. .

As shown in Figures 1 to 5, the inter-floor noise prevention heating piping panel 100, which facilitates the construction of heating piping at uniform intervals according to an embodiment of the present invention, may include a panel reinforcement rib 117.

This panel reinforcement rib 117 provides rigidity to the panel top 110 on the inside of the panel skirt 115 to prevent sagging in the central part of the panel top 110 and at the same time maintains the panel top 110 on the floor. It can be supported by separating it.

The panel reinforcement rib 117 may be formed in the form of a plate standing on the lower part of the panel top portion 110.

Here, since the panel reinforcement rib 117 is formed in the form of a plate at the lower part of the panel top plate 110, surface contact with the floor is minimized, thereby minimizing the transmission of vibration due to impact generated at the top, thereby reducing inter-floor noise. occurrence can be reduced.

A plurality of panel reinforcement ribs 117 may be formed extending from the lower center of the panel top portion 110 to the panel skirt portion 115.

The panel reinforcement rib 117 can divide the pouring space 110a into a plurality of places in the lower part of the panel top plate 110, and the panel top plate portion corresponding to the pouring space 110a each partitioned by the panel reinforcement rib 117 ( A pouring hole 113 may be formed in 110).

In the embodiment, the panel reinforcement ribs 117 are formed in the shape of a criss-cross when viewing the panel top plate 110 in a plan view, dividing the pouring space 110a located at the lower part of the panel top plate 110 into four spaces, The center of each pour space (110a) is divided into four pour spaces (110a) in the form of a crisscross from the center toward the corner of each pour space (110a) to reduce the load applied to the panel top portion (110). The durability of the inter-floor noise prevention heating piping panel 100 can be improved by uniformly dispersing it on the floor.

Here, the panel reinforcement rib 117 is formed in the form of a plate on the panel top 110 to minimize the transmission of vibration due to impact to the floor, so its rigidity is relatively weak and it forms a space for pouring space 110a. By forming the panel reinforcement ribs 117 in the form of dividing each pouring space 110a into a plurality of pieces and further dividing each pouring space 110a into a plurality of pieces, durability can be improved while minimizing the transmission of shock vibration.

Of course, some of the panel reinforcement ribs 117 among the plurality of panel reinforcement ribs 117 may be formed to protrude from the lower part of the panel top plate 110 at a height that does not extend from the panel top plate 110 to the floor.

The pouring hole 113 is formed with a diameter larger than the diameter of the pin hole 111, so that when mortar is poured from the top, it can easily flow into the pouring space 110a at the lower part of the panel top portion 110.

The panel reinforcement rib 117 may include a rib communication portion 117a.

This rib communication part (117a) communicates with each other the pouring space (110a) partitioned by the panel reinforcement rib (117), so that the mortar flowing into the pouring space (110a) through one pouring hole (113) is adjacent to the pouring space ( It can be poured by moving to 110a).

The rib communication portion 117a may be formed by penetrating the panel reinforcement rib 117 in the form of a hole, or may be formed by cutting a portion of the lower part of the panel reinforcement rib 117.

The panel reinforcement rib 117 may include a rib cut portion 117b.

The rib cut portion 117b is formed between the portion of the panel skirt portion 115 where the edge of the panel top plate 110 is located and the panel reinforcing rib 117 or at the corner where the panel reinforcing ribs 117 meet each other. It is possible to prevent voids from occurring due to non-inflow.

Here, when a cavity occurs in the mortar layer 500, the upper impact sound resonates due to the generated cavity and the noise between the upper and lower layers may be transmitted. In particular, the corner portion of the panel skirt portion 115 or the panel skirt portion ( If an acute corner occurs at the part where 115) and the panel reinforcement rib 117 meet or at the corner where the panel reinforcement ribs 117 meet each other, air may flow in as the mortar is poured, or the mortar will flow in due to the viscosity of the mortar. If this is not done, voids may occur.

To prevent this, the rib cut portion 117b is designed so that the ends of the panel reinforcement ribs 117 are located at the corners of the panel skirt 115, or sharp angle corners that occur when the panel reinforcement ribs 117 meet each other do not occur. By cutting the end of the panel reinforcement rib 117, it is possible to prevent the occurrence of voids due to sharp angle corners.

As shown in Figures 1 and 5, the inter-floor noise prevention heating piping panel 100, which facilitates the construction of heating piping at uniform intervals according to an embodiment of the present invention, may include a panel attachment portion 119.

This panel attachment portion 119 can prevent the inter-floor noise prevention heating piping panel 100 from being separated from the floor due to buoyancy when pouring mortar.

The panel attachment portion 119 may be attached to the floor with an adhesive, and the panel attachment portion 119 may be formed to extend downward from the panel top portion 110 to the floor.

The panel attachment portion 119 may be formed to extend downward by a length protruding downward from the panel skirt portion 115.

The panel attachment portion 119 may be formed in a shape that protrudes convexly downward so as to protrude downward from the panel top portion 110, and a plurality of panel attachment portions 119 may be formed on the panel top portion 110.

The panel attachment portion 119 may be formed at each portion where the panel reinforcement ribs 117 formed on the panel top portion 110 intersect to effectively distribute the load applied to the panel top portion 110. .

The panel attachment portion 119 is formed at each corner of the panel top portion 110 in addition to the portion where the panel reinforcement ribs 117 intersect, and when a plurality of inter-floor noise-prevention heating piping panels 100 are combined, the interconnected portions are positioned on the floor. Step differences can be prevented by being spaced at different heights.

As shown in Figures 1 and 5, the inter-floor noise prevention heating piping panel 100, which facilitates the construction of heating piping at uniform intervals according to an embodiment of the present invention, may include a piping fixing pin 120.

This pipe fixing pin 120 can fix the heating pipe 130 to the upper part of the panel top 110.

The pipe fixing pin 120 may be formed to be inserted into the pin hole 111 of the panel top 110, and the pipe fixing pin 120 has a pair of pin parts 121 each inserted into the pin hole 111. They are spaced apart and protrude, and a pin locking portion 123 is formed in the central portion of the pin portion 121 in a shape that protrudes from the periphery, and a pin portion (123) is formed at a position corresponding to the position where the pin locking portion 123 is formed. When inserting and fixing 121) into the pin hole 111, the pin groove 125 may be formed to penetrate through the pin portion 121 so that it can be inserted while the diameter of the pin portion 121 narrows due to elastic force.

Of course, the upper part of the pair of fin parts 121 is connected to each other by a connection part, and the heating pipe located between the pair of fin parts 121 in the state where the pair of fin parts 121 are inserted into the panel top part 110 (130) can prevent it from being separated from the top of the panel top portion 110 by the connection portion.

The pipe fixing pin 120 is connected to the pin hole 111 located on one side of the heating pipe 130 and on the other side of the heating pipe 130 while the heating pipe 130 is spaced apart from the panel top 110 at a preset interval. A pair of pin parts 121 are each inserted into the pin hole 111, and the heating pipe 130 is connected to the panel top part 110 in a form that extends over the bottom of the pin hole 111 where the pin locking part 123 is inserted. Can be fixedly installed.

At this time, when the pin portion 121 is inserted into the pin hole 111, the radius of the pin portion 121 is elastically deformed and reduced by the pin groove portion 125, and the pin locking portion 123 is inserted into the pin hole 111. When inserted, the pin locking portion 123 penetrates the pin hole 111, the pin portion 121, which has been elastically deformed by the pin groove portion 125, returns to its initial shape, and the pin locking portion 123 is connected to the pin hole 111. The heating pipe 130 can be firmly and easily fixed to the panel top 110 in a form that extends to the bottom of the panel.

Here, the spacing between the fin portions 121 is formed at 20 mm, and the fin portions 121 are coupled on both sides with one pin hole 111 arranged at an interval of 10 mm between them to determine the position of the heating pipe 130 at an interval of 10 mm. Since it can be installed by adjusting, it is possible to install the heating pipes 130 at even intervals, thereby making it possible to heat the entire floor evenly.

The inter-floor noise-prevention heating piping panel 100, which facilitates construction of heating pipes at uniform intervals according to an embodiment of the present invention, is formed of synthetic resin, and when installed on the floor, the inter-floor noise-prevention heating piping panel 100 itself has thermal insulation properties. Since there is no need to form a separate layer of foamed concrete for insulation, the construction period can be shortened and construction costs can be reduced.

In addition, since the mortar in which the inter-floor noise prevention heating piping panel 100 is embedded and the inter-floor noise prevention heating piping panel 100 are formed of different materials, the vibration waves that penetrate each other are different, so the transmission of inter-floor noise can be effectively blocked. .

Additionally, not only the interfloor noise prevention heating piping panel 100 but also the piping fixing pins 120 may be formed of synthetic resin.

Let us explain the actions and effects between each component described above.

The inter-floor noise prevention heating piping panel 100, which facilitates construction of heating pipes at uniform intervals according to an embodiment of the present invention, has a plurality of pin holes 111 formed through the panel top 110, and the circumference of the panel top 110. is sealed by the panel skirt portion 115, and a pouring space 110a is formed inside the panel skirt portion 115.

Since the pin holes 111 formed in the panel top 110 are arranged at intervals of 10 mm, the rigidity may be relatively weakened, so the panel top 110 is provided with a panel reinforcement rib (panel reinforcement rib) that reinforces the rigidity of the panel top 110. 117) is protruding in the form of a plate at the lower part of the panel top portion 110.

The panel reinforcement rib 117 is formed in a criss-cross shape by dividing it into four pouring spaces 110a centered on the center of the panel top plate 110, and each pouring space partitioned by the panel reinforcing rib 117 ( 110a) can reinforce the rigidity of the panel top portion 110 by forming a panel reinforcement rib 117 from the center of each pour space 110a toward the edge of each pour space 110a.

In addition, a rib communication portion 117a is formed on the panel reinforcement rib 117 so that each pouring space 110a partitioned by the panel reinforcement rib 117 communicates with each other.

At this time, the part where the acute angle corner is formed by the panel reinforcement ribs 117 may have voids due to the viscosity of the mortar and the air introduced in advance, so the panel reinforcement ribs 117 are formed by meeting each other to prevent the occurrence of voids. A rib cut portion 117b may be formed by cutting the end of the panel reinforcement rib 117 to prevent an acute angle from occurring at the corner or the corner formed by the panel skirt portion 115 and the panel reinforcement rib 117.

In addition, at the position where the plurality of panel reinforcement ribs 117 intersect, the panel reinforcement ribs 117 are supported and placed on the floor to prevent the inter-floor noise prevention heating piping panel 100 from floating on the floor when pouring mortar. A panel attachment portion 119 may be formed to be attached.

The panel attachment portion 119 may be formed not only at the portion where the panel reinforcement ribs 117 intersect, but also at each corner portion of the panel top portion 110.

In addition, a pouring hole 113 through which mortar flows into the pouring space 110a from the top may be formed through each pouring space 110a partitioned by the panel reinforcing rib 117.

A skirt groove portion 115b and a skirt protrusion portion 115a are formed around the panel skirt portion 115 for assembling adjacent inter-floor noise prevention heating piping panels 100 together.

Meanwhile, the heating pipe 130 is fixed by the pipe fixing pin 120 while seated on the upper surface of the panel top 110, and the pipe fixing pin 120 has a pair of pin portions 121 connected to the heating pipe 130. ) is coupled to the pin hole 111 located on one side and the pin hole 111 located on the other side of the heating pipe 130 in such a way that the pin portion 121 is inserted, and the upper end of the pair of pin portions 121 is connected to the pin hole 111 located on one side of the heating pipe 130. It prevents the heating pipe 130 located between the fin portions 121 from being separated.

And, in the central part of the pin portion 121, a pin is hung at the bottom of the pin hole 111 while the pin portion 121 is inserted into the pin hole 111 to prevent the pipe fixing pin 120 from being separated from the pin hole 111. A locking portion 123 may be formed, and when the pin locking portion 123 passes through the pin hole 111, the radial thickness of the pin portion 121 increases. The pin groove portion 125 may be formed through the pin to elastically deform and shrink.

The inter-floor noise prevention heating piping panel 100 and the piping fixing pin 120 are made of synthetic resin, which can reduce manufacturing costs.

The inter-floor noise prevention heating piping panel 100, which facilitates construction of heating pipes at uniform intervals according to an embodiment of the present invention constructed in this way, is made of a porous material that installs a wall buffer on the wall adjacent to the floor and insulates the floor from inter-floor noise. Install inter-floor sound insulation material (200).

In addition, a spring rubber pad 300 is installed in the middle of the interfloor sound insulating material 200 to cushion the impact by elastic force, and the upper surface of the interfloor sound insulating material 200 is airtight with the waterproof layer 400, and then the interfloor noise of the embodiment is reduced. The anti-heating piping panel (100) is installed to completely cover and seal the upper part of the interfloor sound insulation material (200).

At this time, the waterproof layer 400 can be implemented as a waterproof sheet, the inter-floor noise-prevention heating piping panel 100 can be cut to fit the size of the floor and installed, and the inter-floor noise-prevention heating piping panel 100 can be installed at the panel skirt portion. A plurality of skirt protrusions 115a are fitted into the skirt groove 115b formed at 115, thereby sealing the floor.

In addition, the inter-floor noise prevention heating piping panel 100 is installed by applying adhesive to the panel attachment portion 119 and adhering to the waterproof layer 400, so that when mortar is placed later, the inter-floor noise prevention heating piping panel (100) is installed by mortar. 100) blocks the waterproof layer 400 from floating upward.

When the interfloor noise prevention heating piping panel 100 is installed, the heating piping 130 is installed at preset intervals by inserting the piping fixing pin 120 into the pin hole 111 of the panel top 110. ) is installed.

At this time, since the pin holes 111 are formed at intervals of 10 mm, they can be installed while finely adjusting the spacing between the heating pipes 130, thereby preventing uneven heating of the floor.

Then, when the pipe fixing pin 120 is inserted into the pin hole 111, the pin portion 121 is inserted into the pin hole 111, and when the pin locking portion 123 passes through the pin hole 111, the pin groove portion 125 ) is inserted while the circumference of the pin portion 121 is reduced, and when the pin locking portion 123 passes through the pin hole 111, the circumference of the pin portion 121 that has been reduced is elastically deformed again, returning to its initial form and causing the pin to jam. Since the part 123 is installed in a form that extends over the bottom of the pin hole 111, the pipe fixing pin 120 can be easily installed, thereby shortening the construction period.

Meanwhile, when the heating pipe 130 is installed in the interfloor noise prevention heating pipe panel 100, mortar is poured to a preset thickness and cured to form the mortar layer 500.

When the mortar layer 500 is formed, the floor structure 700 of the apartment complex is constructed by constructing a floor finishing material 600, for example, a steel floor, flooring, or tile, to finish the floor on the upper surface of the mortar layer 500. Construction.

Here, when mortar is poured from the upper part of the inter-floor noise prevention heating piping panel 100, the mortar flows into the pouring space 110a formed in the lower part of the panel top 110 through the pouring hole 113, and pours into the pouring space (110a) Since the mortar flowing into 110a) is connected to each other by the rib communication portion 117a even if the space is partitioned by the panel reinforcement rib 117, the mortar moves and is poured.

In addition, since the rib cut portion 117b is formed in the panel reinforcement rib 117 to prevent sharp angle corners, the mortar is easily injected and poured into the corner portion, so that inter-floor noise prevention heating piping is provided in the mortar layer 500. Even if the panel 100 is installed, the occurrence of voids can be prevented.

Of course, the structure of the floor structure 700 may be configured in the form of various known types of inter-floor noise reduction floor structures.

In the inter-floor noise prevention heating piping panel 100 according to an embodiment of the present invention configured in this way, when an impact occurs in the mortar layer 500, the impact noise is partially eliminated through the relatively high strength mortar layer 500 and is transmitted to the lower part. It is transmitted, and the inter-floor noise prevention heating piping panel 100, which has different physical properties from the mortar, is inserted into the interior of the mortar layer 500, so that when the impact noise passes through the inter-floor noise prevention heating piping panel 100, the impact noise of other vibration waves is The impact noise that passes through the heating piping panel is absorbed and dissipated in the interfloor sound insulation material 200 and is blocked from being transmitted to the floor below, thereby suppressing the generation of interfloor noise.

At this time, a spring rubber pad 300 is installed on the interfloor sound insulation material 200, and the spring rubber pad 300 can cushion the impact noise of a relatively large vibration and prevent the impact noise from being transmitted to the floor.

Therefore, the inter-floor noise prevention heating piping panel 100 according to an embodiment of the present invention is finished only with mortar without pouring a foamed concrete layer for installing the heating pipe 130, thus shortening the air time due to the formation of the foamed concrete layer. In addition, the spacing for installing the heating pipes 130 is tight, so the heating pipes 130 are evenly distributed and installed, thereby preventing heating imbalance.

In addition, when an impact occurs at the top, the inter-floor noise prevention heating piping panel 100, which is a material different from mortar, is inserted and positioned inside the mortar layer 500, thereby improving the reduction of impact noise generated at the top and inter-floor noise prevention. Noise generation can be minimized.

In addition, since the panel reinforcement rib 117 that reinforces the panel top 110 is formed in the shape of a plate at the bottom of the panel top 110, the contact surface with the floor is minimized to minimize the transmission of vibration to the floor, Transmission of noise due to floor impact can be minimized.

In addition, since the heating pipe 130 is fixed by inserting the heating pipe 130 into the panel top 110 using the pipe fixing pin 120, the heating pipe 130 can be constructed quickly and easily, shortening the construction period. You can.

In addition, the rib communication portion 117a is formed in the panel reinforcement rib 117 so that the pouring space 110a divided by the panel reinforcement rib 117 communicates with each other, thereby minimizing the area where mortar does not enter, thereby reducing construction defects. The rib cut portion 117b is formed in the panel reinforcement rib 117 to prevent sharp angles from occurring at the corners, thereby preventing the occurrence of voids due to non-inflow of mortar, thereby preventing construction defects. It can be prevented.

In addition, by forming the inter-floor noise prevention heating piping panel 100 of synthetic resin, the inter-floor noise prevention heating piping panel 100 has thermal insulation properties and there is no need to form a foamed concrete layer, thereby shortening the construction period and reducing construction costs. there is.

Although the embodiments of the present invention have been described above, the scope of the rights of the present invention is not limited thereto, and the embodiments of the present invention can be easily modified by those skilled in the art in the technical field to which the present invention belongs and are recognized as equivalent. Includes all changes and modifications to the extent permitted.

100: Interfloor noise prevention heating piping panel 110: Panel top part
111: Pin hole 113: Pour hole
115: panel skirt portion 115a: skirt protrusion portion
115b: Skirt groove 117: Panel reinforcement rib
117a: rib communication part 117b: rib cut part
119: Panel attachment 120: Piping fixing pin
121: pin part 123: pin catching part
125: Pin groove part 130: Heating pipe
200: Interfloor sound insulation material 300: Spring rubber pad
400: Waterproofing layer 500: Mortar layer
600: Floor finishing material 700: Floor structure

Claims (5)

In the inter-floor noise prevention heating piping panel that is easy to install heating pipes that heat the floor,
A panel top portion formed through a plurality of pin holes into which pipe fixing pins for fixing the heating pipe are inserted,
A panel skirt portion extending downward along the periphery of the panel top portion so that the panel top portion is spaced from the floor to form a pouring space into which mortar is poured;
A pouring hole formed through the panel top portion and injecting mortar into the pouring space from the top of the panel top portion,
A panel reinforcement rib supporting the portion of the panel top portion located inside the panel skirt portion from the floor, and
It includes a rib communication part in which a part of the panel reinforcement rib is cut to prevent the mortar poured into the pouring space from generating a portion that is not poured by the panel reinforcement rib,
The pipe fixing pin is
A pin portion that is inserted into the corresponding pin hole on both sides of the heating pipe, a pin locking portion that spans the lower circumference of the pin hole when the pin portion is inserted into the pin hole with a circumference larger than the circumference of the pin portion, and the pin portion is When inserted into the pin hole, a pin groove portion is formed through the pin portion to cause elastic deformation in the radial direction of the pin portion to prevent damage to the pin locking portion, thereby weakening the rigidity of the pin portion where the pin locking portion is located. A noise-prevention heating piping panel between floors that allows easy installation of heating piping. According to paragraph 1,
The plurality of pin balls are
An inter-floor noise prevention heating piping panel for easy installation of heating piping, characterized in that it is arranged at 10 mm intervals to minimize heating imbalance due to the difference in spacing of the heating piping. According to paragraph 1,
The panel reinforcement rib is
The edge where the end of the panel reinforcement rib is located has an acute angle, and includes a rib cut part that cuts the end of the panel reinforcement rib to prevent the occurrence of an acute angle corner to prevent the occurrence of voids due to non-inflow of mortar. An inter-floor noise prevention heating piping panel that is easy to install as a heating piping. According to paragraph 1,
Easy installation of heating pipes, characterized by comprising a panel attachment part attached to the floor to reinforce rigidity by distributing the load applied to the panel top to the floor and to prevent floating from the mortar when pouring the mortar. A noise-prevention heating piping panel between floors. delete

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