CN201111529Y - An energy-saving electric heating far-infrared health care building decoration material - Google Patents

Abstract

An energy-saving electric heating far-infrared health-care building decoration material, which is composed of a base material, a conductive heating layer and a decorative layer capable of emitting far-infrared waves beneficial to the human body. The electric heating layer and the far-infrared emitting decorative layer are located on the decorative material. On the surface, after connecting to a 220 volt AC or DC power supply, the conductive heating layer on the surface of the material generates heat, and provides heat source to the heating area through the far-infrared emitting layer. The heat transfer path is short, the heat loss is small, and it is highly efficient and energy-saving; Under the excitation of energy, 4-16 micron far-infrared waves beneficial to the human body are emitted to the heating area; this material is not limited by the shape and thickness of the substrate, and the material can be wood (bamboo), stone, concrete, steel, ceramics, Plastic, gypsum, etc.; do not change the installation and construction process and structural structure of decorative materials.

Description

An energy-saving electric heating far-infrared health care building decoration material

Technical field

The utility model relates to a building decoration material and a building heating material, in particular to a building decoration material and a building heating material which use electricity as a heating heat source and can emit far-infrared waves beneficial to human body under the action of electric heat.

technical background

At present, there are few domestic and international building decoration materials and building heating materials that integrate the three functions of decoration, heating and far-infrared wave human health care. The known building floor heating materials that use electric energy as the heat source include constant power heating cables and infrared Carbon thermal sheets are all single-functional materials. Among them, the structural structure of the constant power heating cable floor heating is shown in Figure 1. In the figure, a 25mm thick polystyrene foam board 7 is laid on the concrete floor 8, and then the constant power heating cable is laid. Steel wire mesh 3, distributing constant power heating cables 4 in a serpentine manner and binding them on the steel wire mesh 3, pouring 30-40mm thick fine stone concrete 2, laying wooden floor 1 according to the conventional method after the concrete is solidified, the overall structure layer is relatively thick, In particular, the constant power heating cable is buried in the fine stone concrete, and the maintenance of the product is very difficult or even impossible; Styrene foam board 7, lay the infrared carbon thermal sheet 6 that is embedded with power line 5 then, lay wooden floor 1 according to conventional method on infrared carbon thermal sheet 6 at last, although overall thickness reduces to some extent, but structural layer overall is still smaller It is impossible for the far-infrared rays produced by the infrared carbon heat sheet to penetrate the floor; the common disadvantages of both are that the structure is complex, the building headroom is reduced, and the heat transfer path is long, the heat transfer is slow, the heat loss is large, and the energy consumption is high. High; there are many types of materials involved and many types of work.

Contents of the invention

In order to overcome the shortcomings and deficiencies of the single function of the existing building decoration materials or building heating materials, the utility model provides an energy-saving electric heating far-infrared health care building decoration material, which integrates three functions of decoration, heating and far-infrared wave human health care. It can be widely used in building decoration materials such as floors, wall panels, ceiling panels, ceramic tiles, granite, and aluminum-plastic panels.

The surface of this building decoration material has a conductive heating layer and a far-infrared emitting layer. After connecting to 220 volts of AC or DC, the conductive heating layer generates heat and emits heat to the heating area through the far-infrared layer. The heat transfer path is short and the heat transfer is fast. The heat loss is small, and the energy saving is remarkable. At the same time, the far-infrared emitting layer generates 4-16 micron far-infrared waves that have a health care effect on the human body under the action of electric heat.

The technical solution adopted by the utility model to solve the technical problem is: firstly paint the conductive heating coating on the surface of the base material, install the electrodes, and then decorate with the surface decoration material with far infrared emission function, that is, obtain an energy-saving electric heating Far-infrared health care building decoration materials.

The effect of the utility model is: the conductive heating layer directly uses 220 volts of alternating current or direct current, which is convenient for manufacturing high-power, large-area electric heating far-infrared health-care building decoration materials; Both the heating layer and the far-infrared emission layer can be well combined with it, the energy saving is remarkable, and the far-infrared utilization rate is high; especially, it integrates heating, health care and decoration, and does not change the installation and construction process and structure of the decoration material.

Description of drawings

Fig. 1 is the structural schematic diagram of a kind of existing constant power heating cable floor heating structure;

Fig. 2 is a structural schematic diagram of an existing infrared carbon thermal sheet floor heating structure;

Fig. 3 is a structural schematic diagram of an energy-saving electric heating far-infrared health care wooden floor in the utility model.

Detailed ways

In Fig. 3, after the electrode hole 16 is made on the wood substrate 14 and the electrode 12 is installed, the conductive heating layer 13 is painted, and after the coating 13 is cured, the far-infrared wear-resistant decorative layer 11 coated with thermosetting resin glue and the back of the floor are balanced Layer 15, and the wooden base plate 14 that is coated with conductive heating layer 13, are arranged in 11, 13, 14, 15 order, and one-time thermocompression composite molding is made into a kind of energy-saving heating far-infrared health care wooden floor in the utility model.

According to requirements, the energy-saving electric heating and far-infrared health-care wooden floor may only have the conductive heating layer 13 instead of the far-infrared emission layer.

The conductive heating layer 13 and/or the far-infrared emission layer on the energy-saving electric heating far-infrared health-care wooden floor can use paint or sheet material, and be combined with the base material by spraying, printing, pasting and other methods.

Claims (5)

1. An energy-saving electric heating building decoration material, comprising a base material, characterized in that: the base material also has a conductive heating layer and an electrode that provides power for the conductive heating layer through the base material installation. 2. The building decoration material according to claim 1, characterized in that: the base material can be wood (bamboo), stone, concrete, steel, pottery, plastics, gypsum of any shape and thickness. 3. The building decoration material according to claim 1 or 2, characterized in that: the conductive heating layer is made of paint or sheet, and is compounded with the base material by spraying, printing, pasting, etc. 4. The building decoration material according to claim 3, characterized in that: the building decoration material is an energy-saving electric heating wooden floor, the base material is a wood substrate, and also includes a wear-resistant decorative layer and a balance layer, the The above-mentioned conductive heating layer is located on the side of the heating area on the upper surface of the wood substrate. 5. The building decoration material according to claim 4, characterized in that: the wear-resistant decorative layer is also coated with far-infrared thermosetting resin glue.

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