Wall body nanometer dope layer structure
Technical Field
The utility model relates to the technical field of building structures, in particular to a wall nanoscale coating layer structure.
Background
At present, for reducing the energy consumption of buildings and improving the fireproof safety level of the buildings, the insulation boards are usually installed on the outer walls of the buildings, the insulation boards are utilized to wrap the buildings so as to reduce the energy consumption of the buildings, the flame retardant property of the insulation boards is utilized to improve the fireproof performance of the buildings, the fireproof insulation outer walls can better store indoor temperature, the occurrence of fire disasters can be effectively prevented, the economic loss is reduced, and casualties of personnel are reduced. But the existing fireproof heat-insulating structure of the outer wall in the building industry is single, and has the defects of poor fireproof effect and poor heat-insulating effect.
SUMMERY OF THE UTILITY MODEL
The utility model aims to provide a wall body nanometer coating layer structure with good flame retardant effect, good sound insulation effect and long service life aiming at the defects in the prior art.
The utility model discloses a wall body nanoscale coating layer structure, which comprises a wall body, wherein a heat preservation layer is arranged on the wall body, a first flame-retardant layer, a sound insulation layer and a second flame-retardant layer are sequentially arranged on the heat preservation layer, a putty layer is coated on the second flame-retardant layer, a closed primer layer is coated on the putty layer, a sound absorption layer and a corrosion-resistant layer are arranged on the closed primer layer, the sound absorption layer is an acrylic resin coating layer, and the corrosion-resistant layer is an inorganic nano particle modified fluorocarbon coating.
Furthermore, the heat-insulating layer is a phenolic resin heat-insulating plate, the phenolic resin heat-insulating plate is attached to and laid on the wall body, and the anchor rod penetrates through the heat-insulating layer and is fixed on the wall body.
Further, the putty layer is a water-resistant gypsum-based putty layer.
Further, the first flame-retardant layer comprises two first face plates and a first flame-retardant core plate clamped between the two first face plates, and the second flame-retardant layer comprises two second face plates and a second flame-retardant core plate clamped between the two second face plates.
Furthermore, the first flame-retardant core plate and the second flame-retardant core plate are both flame-retardant mineral wool plates.
Further, the sound insulation layer is a rubber layer with the thickness of 3-7 cm.
Furthermore, the first panel is fixed on the heat-insulating layer through a second anchor rod.
Further, the acoustical layer is bonded between adjacent first and second panels.
According to the wall nanoscale coating layer structure, the first flame-retardant layer and the first flame-retardant layer form a double-layer flame-retardant structure, the flame-retardant capability of a wall body is improved, the sound insulation effect of the wall body structure is enhanced by arranging the sound insulation layer between the first flame-retardant layer and the second flame-retardant layer, the sound insulation effect of the wall body structure is further improved by adding the sound absorption layer, the oxidation reaction is blocked by the inorganic nano particle modified fluorocarbon coating, the wall coating layer structure can be prevented from being corroded by humid air, water and the like, the quality guarantee period and the service life of the coating layer structure can be greatly prolonged, and the coating is prevented from being dried and cracked and falling.
Drawings
Fig. 1 is a schematic view of a nanoscale coating layer structure for walls according to the present invention.
1. A wall body; 2. a heat-insulating layer; 3. a first flame retardant layer; 31. a first panel; 32. a first flame retardant core sheet; 4. a sound insulating layer; 5. a second flame retardant layer; 51. a second panel; 52. a second flame-retardant core sheet; 6. a putty layer; 7. closing the primer layer; 8. a corrosion-resistant layer; 9. and a sound absorbing layer.
Detailed Description
The following are specific embodiments of the present invention and are further described with reference to the drawings, but the present invention is not limited to these embodiments.
As shown in fig. 1, the wall body nanoscale coating layer structure comprises a wall body 1, wherein a heat preservation layer 2 is arranged on the wall body 1, a first flame-retardant layer 3, a sound insulation layer 4 and a second flame-retardant layer 5 are sequentially arranged on the heat preservation layer 2, the second flame-retardant layer 5 is coated with a putty layer 6, a closed primer layer 7 is coated on the putty layer 6, a sound absorption layer 9 and a corrosion-resistant layer 8 are arranged on the closed primer layer 7, the sound absorption layer 9 is an acrylic resin coating layer, and the corrosion-resistant layer 8 is an inorganic nanoparticle modified fluorocarbon coating.
According to the wall nanoscale coating layer structure, the first flame-retardant layer 3 and the first flame-retardant layer 3 form a double-layer flame-retardant structure, the flame-retardant capability of a wall body is improved, the sound insulation effect of the wall body structure is enhanced by arranging the sound insulation layer 4 between the first flame-retardant layer 3 and the second flame-retardant layer 5, the sound insulation effect of the wall body structure is further improved by the sound absorption layer 9, the oxidation reaction is blocked by the inorganic nano particle modified fluorocarbon coating, the wall coating layer structure can be prevented from being corroded by moist air, moisture and the like, the quality guarantee period and the service life of the coating layer structure can be greatly prolonged, and the coating is prevented from being dried and cracked and falling.
The structure of heat preservation 2 has the multiple, and in this embodiment, heat preservation 2 can be the phenolic resin heated board, and the laminating of phenolic resin heated board is laid on wall body 1, and heat preservation 2 and wall body 1 go up the anchor joint fixed, easy to assemble.
The putty layer 6 can be a waterproof gypsum-based putty layer 6, and is combined with the inorganic nanoparticle modified fluorocarbon coating, so that the service life of the used coating layer is prolonged.
The first flame retardant layer 3 and the second flame retardant layer 5 have various structures, in this embodiment, the first flame retardant layer 3 may include two first face sheets 31 and a first flame retardant core sheet 32 sandwiched between the two first face sheets 31, and the second flame retardant layer 5 includes two second face sheets 51 and a second flame retardant core sheet 52 sandwiched between the two second face sheets 51.
There are various ways of fixing the first panel 31 to the insulating layer 2, and in this embodiment, the first panel 31 is anchored and fixed to the insulating layer 2.
The first and second flame retardant core sheets 32, 52 may both be flame retardant mineral wool sheets.
The soundproof layers 4 have various structures, and in this embodiment, the soundproof layers 4 are rubber layers having a thickness of 3 to 7cm, and the soundproof layers 4 are bonded between the adjacent first panel 31 and second panel 51.
The above is not relevant and is applicable to the prior art.
While certain specific embodiments of the present invention have been described in detail by way of illustration, it will be understood by those skilled in the art that the foregoing is illustrative only and is not limiting of the scope of the utility model, as various modifications or additions may be made to the specific embodiments described and substituted in a similar manner by those skilled in the art without departing from the scope of the utility model as defined in the appending claims. It should be understood by those skilled in the art that any modifications, equivalents, improvements and the like made to the above embodiments in accordance with the technical spirit of the present invention are included in the scope of the present invention.