High-strength low-radiation coated hollow glass for energy-saving building and preparation method of high-strength low-radiation coated hollow glass

[0036] Specific embodiment one

[0037] This embodiment is an embodiment of a high-strength low-radiation coated insulating glass for energy-saving buildings.

[0038] like Figure 1-2 As shown, the insulating glass body 1 is included, the outer surface of the upper and lower ends of the insulating glass body 1 is provided with a magnetic plate 5, the left and right sides of the insulating glass body 1 are provided with a splicing mechanism 3, and the front and rear ends of the insulating glass body 1 are provided with The high-strength mechanism 2 is provided with a protective mechanism 4 inside the hollow glass body 1 , and the high-strength mechanism 2 includes a high-strength layer 201 , a coating layer 202 , a radiation layer 203 and a protective layer 204 .

[0039] The insulating glass main body 1 and the high-strength mechanism 2 are integrally formed. There is a No. 1 fixing bolt between the magnetic plate 5 and the insulating glass main body 1, and the outer surfaces of the upper and lower ends of the insulating glass main body 1 are connected to the suction by the No. 1 fixing bolt. The outer wall of the magnetic plate 5 is fixedly connected, a No. 1 groove is arranged between the insulating glass body 1 and the splicing mechanism 3, and the outer surfaces of the left and right sides of the insulating glass body 1 are fixedly connected with the outer wall of the splicing mechanism 3 through the No. 1 groove, and the hollow A No. 2 groove is provided between the glass body 1 and the protective mechanism 4, and the inside of the hollow glass body 1 is fixedly connected to the outer wall of the protective mechanism 4 through the No. 2 groove; the high-strength layer 201 is located on the outer surface of the lower end of the coating layer 202, The radiation layer 203 is located on the lower outer surface of the high-strength layer 201, the protective layer 204 is located on the lower outer surface of the radiation layer 203, a No. 1 fixing glue is arranged between the high-strength layer 201 and the coating layer 202, and the upper end of the high-strength layer 201 is outside the outer surface. The surface is fixedly connected to the outer surface of the lower end of the coating layer 202 through No. 1 fixing glue, No. 2 fixing glue is arranged between the high-strength layer 201 and the radiation layer 203, and the outer surface of the lower end of the high-strength layer 201 is connected to the radiation layer through No. 2 fixing glue. The outer surface of the upper end of the layer 203 is fixedly connected, No. 3 fixing glue is arranged between the radiation layer 203 and the protective layer 204, and the outer surface of the lower end of the radiation layer 203 is fixedly connected to the upper outer surface of the protective layer 204 through the No. 3 fixing glue.

[0040] It should be noted that the present invention is a high-strength and low-radiation coated insulating glass for energy-saving buildings. The strength of the insulating glass body 1 can be increased through the high-strength layer 201, and the insulating glass body 1 can be reduced due to accidental collisions during use. , causing damage to the insulating glass body 1, and the coating layer 202 can coat the insulating glass body 1 accordingly, which can increase the effect of the insulating glass body 1, and the radiation layer 203 can increase the ultraviolet absorption efficiency of the insulating glass body 1, effectively blocking ultraviolet rays The stimulation to personnel further protects the safety of personnel, wherein the material of radiation layer 203 is composite ultraviolet absorber, the material of protective layer 204 is glass fiber, and the material of high-strength layer 201 is plastic fiber material.

[0041] Specific embodiment two

[0042] This embodiment is an embodiment of a splicing structure in high-strength low-radiation coated insulating glass for energy-saving buildings.

[0043] like figure 1 , 3 , 4, the splicing mechanism 3 includes a buckle assembly 301, a splicing groove 302, a soft buffer block 303, a splicing frame 304 and an extruding spring 305, and the outer surface of the front end of the splicing frame 304 is provided with a splicing groove 302, and the snap assembly 301 is located inside the splicing groove 302, the buffer soft block 303 is located on the outer surface of the front end of the splicing frame 304 and is located at the upper end of the splicing groove 302, and the pressing spring 305 is located inside the splicing groove 302 and is located at the rear end of the buckle assembly 301 The outer surface.

[0044] No. 1 superglue is arranged between the buffer soft block 303 and the splicing frame 304, and the rear end outer surface of the buffer soft block 303 is fixedly connected with the front end outer surface of the splicing frame 304 through No. 1 super glue, and the extrusion spring 305 is connected to the splicing frame 304 Four good fixing glues are arranged between them, and the inside of the front end of the splicing frame 304 is fixedly connected with the rear end outer surface of the extrusion spring 305 through the No. No. 5 fixing glue is provided, and the outer surface of the front end of the extrusion spring 305 is fixedly connected with the rear end outer surface of the buckle assembly 301 through the No. 5 fixing glue. It is movably connected with the outer surface of the front end of the splicing frame 304 .

[0045] It should be noted that the present invention is a high-strength and low-emissivity coated insulating glass for energy-saving buildings. When the insulating glass main body 1 needs to be used, the staff can facilitate the two relative fittings through the card slot, and the buffer soft block 303 can It plays the role of cushioning and protection, and can further improve the stability of the splicing process of the insulating glass body 1. Afterwards, under the action of the extrusion spring 305, the buckle component 301 can facilitate the buckle component 301 to enter the interior of the insulating glass body 1, thereby maintaining The stability of the two hollow glass bodies 1 reduces the occurrence of falling off due to unstable splicing, and improves the use efficiency.

[0046] Specific embodiment three

[0047] This embodiment is an embodiment of a protective structure in a high-strength low-radiation coated hollow glass for energy-saving buildings.

[0048] like figure 1 , 5 As shown, the protective mechanism 4 includes a protective shell 401, a hollow glass blocking plate 402, a soft spacer strip 403, a sealing pad 404, a protective soft pad 405, a stable groove 406, a stable extrusion disc 407 and an extrusion circular groove 408, sealing The pad 404 is located on the outer surface of the front end of the protective shell 401, the spacer soft strip 403 is located on the outer surface of the front end of the gasket 404, the insulating glass blocking plate 402 is located on the outer surface of the front end of the protective shell 401 and runs through the wall of the sealing gasket 404, and the insulating glass blocking plate 402 is located at the upper and lower ends of the spacer soft strip 403, and the inner surface of the upper and lower ends of the protective shell 401 is provided with an extruded circular groove 408, and the stable extruded disc 407 is located inside the extruded circular groove 408 and extends to the outside of the protective shell 401. A stabilizing groove 406 is defined between the protective shell 401 and the insulating glass blocking plate 402 , and the protective cushion 405 is located on the inner surface of one side of the stabilizing groove 406 .

[0049] The insulating glass blocking plate 402 is connected to the protective shell 401 by welding, No. 2 superglue is set between the protective cushion 405 and the stabilizing groove 406, and the outer wall of the protective cushion 405 is connected to the stabilizing groove 406 by No. 2 fixing glue. No. 3 super glue is set between the gasket 404 and the protective shell 401, and the outer surface of the rear end of the gasket 404 is fixedly connected with the front outer surface of the protective shell 401 through No. 3 super glue, and the spacer soft strip 403 and No. 4 superglue is arranged between the gaskets 404, and the outer surface of the rear end of the spacer soft strip 403 is fixedly connected to the outer surface of the front end of the gasket 404 through No. 4 superglue to firmly squeeze the space between the disc 407 and the protective shell 401. No. 5 superglue is provided, and the outer wall of the firmly extruded disc 407 is fixedly connected with the inner surfaces of the upper and lower ends of the protective shell 401 through No. 5 superglue and the extruded circular groove 408 .

[0050] It should be noted that the present invention is a high-strength low-radiation coated insulating glass for energy-saving buildings. The insulating glass main body 1 can be easily installed inside the protective shell 401 through the stabilizing groove 406, and the protective cushion 405 can effectively protect the insulating glass. The safety of the main body 1 reduces the damage caused by the extrusion of the insulating glass main body 1 by the protective shell 401 and the insulating glass blocking plate 402, and the gasket 404 can facilitate the contact between the insulating glass main body 1 and the protective shell 401, further protecting the insulating glass main body 1 safety, wherein the spacer soft strip 403 and the stable extrusion disc 407 can effectively maintain the stability of the insulating glass body 1, reduce the shaking of the insulating glass body 1 inside the stable groove 406, and facilitate the use of the insulating glass body 1 in various environments. The strength and stability of the hollow glass main body 1 are further increased.