CN209942139U

CN209942139U - Heat transfer floor

Info

Publication number: CN209942139U
Application number: CN201920277555.9U
Authority: CN
Inventors: 李蕊; 李丙银; 张睿斌; 袁笑天; 张涛
Original assignee: Henan Tianhong Energy Saving Wall Materials Co Ltd
Current assignee: Henan Tianhong Energy Saving Wall Materials Co Ltd
Priority date: 2019-03-04
Filing date: 2019-03-04
Publication date: 2020-01-14
Anticipated expiration: 2029-03-04

Abstract

The utility model relates to a heat transfer floor, which comprises a bottom surface layer and a finish surface layer, wherein a separation layer is arranged between the bottom surface layer and the finish surface layer, the separation layer comprises a plurality of separation strips and a plurality of aluminum alloy tubes, and the separation strips and the aluminum alloy tubes are arranged alternately; aluminum net layers are arranged between the bottom layer and the separating layer and between the facing layer and the separating layer; the utility model has the advantages of good heat transfer efficiency, no extra cost increase, strong bearing capacity and no deformation.

Description

Heat transfer floor

Technical Field

The utility model belongs to the technical field of the floor for the building, concretely relates to heat transfer floor.

Background

The floor is a frequently used decoration material for interior decoration, and is widely applied due to the advantages of convenient paving and pasting, strong aesthetic property after paving and pasting and the like. On the other hand, the north of China needs to heat in winter, and in recent years, the north of China usually adopts a floor heating mode to perform central heating, and at the moment, certain requirements are made on the heat transfer performance of the ground decoration material. Traditional bottom plate is mostly wood material or composite material, and its heat conductivility has certain limitation for geothermal heat utilization efficiency is not high, thereby leads to the heat to be lost. On the other hand, the floor board as a floor finishing material is apt to be deformed by being stepped for a long time, and the service life of the floor board is affected.

SUMMERY OF THE UTILITY MODEL

The utility model aims at overcoming the not enough of prior art and providing a heat transfer floor that heat transfer efficiency is good, not additionally increase cost, bearing nature is strong, non-deformable.

The technical scheme of the utility model according to down:

a heat transfer floor comprises a bottom surface layer and a finish coat, wherein a separation layer is arranged between the bottom surface layer and the finish coat and comprises a plurality of separation strips and a plurality of aluminum alloy tubes, and the separation strips and the aluminum alloy tubes are arranged alternately; and aluminum net layers are arranged between the bottom surface layer and the separating layer and between the facing layer and the separating layer.

Further, the aluminum alloy pipe is of a hollow square pipe type structure.

Further, a reinforcing plate is longitudinally arranged inside the aluminum alloy pipe.

Further, the bottom surface layer, the veneer layer, the separating strips and the aluminum alloy pipe are bonded through environment-friendly glue.

Further, the aluminum net layer is respectively bonded between the bottom layer and the separation layer and between the veneer layer and the separation layer through environment-friendly glue.

Further, the bottom surface layer, the decorative layer, the separating layer and the aluminum net layer are formed by cold press molding or hot press molding.

Further, the thickness of the separating strip is the same as the height of the aluminum alloy pipe.

Further, the division bars are made of solid wood.

Compared with the prior art, the beneficial effects of the utility model are that:

1. the utility model arranges the separating layer which mainly comprises the aluminum alloy pipe and the separating strip made of solid wood between the bottom layer and the veneer layer of the floor, and effectively transfers heat through the aluminum alloy pipe while well supporting the floor, thereby effectively improving the heat supply efficiency of the area adopting floor heating for heat supply in winter;

2. the separating layer in the utility model adopts the way that the aluminum alloy pipes and the separating strips are arranged alternately, thereby effectively improving the heat dissipation efficiency of the floor and simultaneously effectively avoiding increasing the cost of the floor;

3. the aluminum net layers are respectively arranged between the bottom layer and the separating layer and between the finish coat and the separating layer, thereby effectively enhancing the bearing property and the integrity of the floor and avoiding the deformation of the floor caused by long-time use; in a word, the utility model has the advantages of heat transfer efficiency is good, do not additionally increase cost, bearing nature is strong, non-deformable.

Drawings

Fig. 1 is a schematic structural diagram of the present invention.

The aluminum alloy plate comprises a base layer 1, a bottom layer 2, a facing layer 3, a separating strip 4, an aluminum alloy pipe 401, a reinforcing plate 5 and an aluminum mesh layer.

Detailed Description

The technical solutions in the embodiments of the present invention will be described clearly and completely with reference to the accompanying drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments in the present invention, all other embodiments obtained by a person skilled in the art without creative work belong to the protection scope of the present invention.

According to the figure 1, the heat transfer floor comprises a bottom surface layer 1 and a veneer layer 2, wherein a separation layer is arranged between the bottom surface layer 1 and the veneer layer 2 and comprises a plurality of separation strips 3 and a plurality of aluminum alloy tubes 4, and the separation strips 3 and the aluminum alloy tubes 4 are arranged alternately; all be provided with aluminium stratum reticulare 5 between bottom surface layer 1 and finish coat 2 and the separate layer, aluminium stratum reticulare 5 reinforcing finish coat 2 and the separate layer between the bearing nature, avoid finish coat 2 to appear warping because trampled for a long time.

In this embodiment, aluminum alloy tube 4 is hollow square tubular structure, aluminum alloy tube 4 is inside vertically to be provided with reinforcing plate 401, and reinforcing plate 401 is along the vertical setting of the axis direction of aluminum metal pipe 4 to reinforcing aluminum alloy tube 4's vertical weighing capacity avoids the floor to trample for a long time and lead to hollow aluminum alloy tube 4 to take place deformation because the personnel.

In this embodiment, aluminum alloy pipe 4 and reinforcing plate 401 are the fashioned aluminum alloy material of integrative casting, and the aluminum alloy material has good heat transfer performance for warm up the heat supply area with adopting, effectively improve heat transfer efficiency.

In the embodiment, the bottom surface layer 1, the veneer layer 2 and the separation layer, and the separation strips 3 and the aluminum alloy pipe 4 are bonded by environment-friendly glue; the aluminum net layer 5 is respectively bonded between the bottom layer 1 and the separation layer and between the finishing layer 2 and the separation layer through environment-friendly glue; the bottom surface layer 1, the veneer layer 2, the separating layer and the aluminum net layer 5 are formed by cold press molding or hot press molding; the environment-friendly glue can adopt aldehyde-free solid wood composite floor glue, and the floor is bonded and molded through the environment-friendly glue in a cold pressing or hot pressing molding mode, so that the bonding property and integrity among all levels of the floor are effectively enhanced.

In the embodiment, the thickness of the separating strip 3 is the same as the height of the aluminum alloy pipe 4; the division strip 3 is made of solid wood, and the division strip 3 made of the solid wood and the aluminum alloy pipe 4 are matched to jointly support the floor well.

In the utility model, when the heat transfer floor is laid, the heat transfer floor can be laid by adopting the traditional floor laying and pasting mode; the bottom layer 1 is tightly attached to the ground, the facing layer 2 faces the indoor space, and the bottom layer 1 and the facing layer 2 can be made of solid wood; in order to save the manufacturing cost of the floor, the number of the aluminum alloy pipes 4 in the separating layer is at least 2, and the specific size of the floor is set according to the requirements of the actual paving place, wherein the aluminum alloy pipes 4 and the separating strips 3 can be set along the length direction of the floor or along the width direction of the floor.

Although the present invention has been described in detail with reference to the foregoing embodiments, it will be apparent to those skilled in the art that modifications may be made to the embodiments or portions thereof without departing from the spirit and scope of the invention.

Claims

1. A heat transfer floor, comprising: the aluminum alloy pipe comprises a bottom surface layer (1) and a facing layer (2), wherein a separation layer is arranged between the bottom surface layer (1) and the facing layer (2), the separation layer comprises a plurality of separation strips (3) and a plurality of aluminum alloy pipes (4), and the separation strips (3) and the aluminum alloy pipes (4) are arranged alternately; and aluminum net layers (5) are arranged between the bottom layer (1), the facing layer (2) and the separating layer.

2. The heat transfer floor of claim 1, wherein: the aluminum alloy pipe (4) is of a hollow square pipe type structure.

3. The heat transfer floor of claim 2, wherein: and a reinforcing plate (401) is longitudinally arranged in the aluminum alloy pipe (4).

4. The heat transfer floor of claim 1, wherein: the bottom surface layer (1), the veneer layer (2) and the separation layer, and the separation strips (3) and the aluminum alloy pipe (4) are bonded through environment-friendly glue.

5. The heat transfer floor of claim 4, wherein: the aluminum net layer (5) is respectively bonded between the bottom layer (1) and the separation layer and between the veneer layer (2) and the separation layer through environment-friendly glue.

6. The heat transfer floor of claim 5, wherein: the bottom surface layer (1), the decorative surface layer (2), the separating layer and the aluminum net layer (5) are formed by cold press molding or hot press molding.

7. The heat transfer floor according to any one of claims 1 to 6, wherein: the thickness of the separating strip (3) is the same as the height of the aluminum alloy pipe (4).

8. The heat transfer floor of claim 7, wherein: the separation strips (3) are made of solid wood.