High-strength radiation-proof heat-insulation hollow glass

Abstract

The utility model provides high-strength radiation-proof heat-insulation hollow glass which comprises outer layer glass and an inner sealing glue layer, four groups of external corners of the outer layer glass are respectively provided with a group of connecting holes used for connecting and fixing multiple layers of glass, and the inner side of the inner sealing glue layer is provided with a group of first hollow layers used for isolating external noise. The utility model has the following beneficial effects: the hollow layer I and the hollow layer II are used for isolating internal and external noise, and the internal dry panel is used for keeping the internal humidity of the hollow layer I and the hollow layer II, so that the inner side of the outer-layer glass and the inner side of the rear-layer glass are prevented from generating a water condensation phenomenon; the high-temperature anti-radiation effect is improved by using the outer anti-radiation mold, the fixing effect of the outer-layer glass, the heat-insulating glass and the rear-layer glass is improved by using the outer sealing frame, and a drying agent is blocked by using the silk screen and is prevented from overflowing.

Description

Technical Field

[0001] The utility model belongs to the technical field of insulating glass, and relates to a high-strength radiation-proof and heat-insulating insulating glass. Background Technique

[0002] Insulating hollow glass has excellent heat insulation performance. It forms a stable air layer by introducing air into the glass cavity. Since the heat conduction coefficient of air is very low, it can greatly reduce the heat transfer between the indoor and the outside. As a common building material, insulating hollow glass is widely used in modern buildings, and its excellent heat insulation performance makes the indoor environment more comfortable. However, if the insulating hollow glass cannot effectively block ultraviolet heat radiation, a series of problems may occur during use.

[0003] At present, there are some defects in the insulating hollow glass in blocking ultraviolet heat radiation. First of all, the structural design of the insulating hollow glass usually focuses on reducing heat conduction, and the protection against ultraviolet radiation is not sufficient. This is mainly because the traditional manufacturing process and material selection of hollow glass do not prioritize the blocking of ultraviolet heat radiation.

[0004] Since the insulating hollow glass does not effectively block ultraviolet heat radiation, it will cause the indoor temperature to be too high, exacerbate the heat accumulation problem in summer, and affect the comfort of people's life and work. Through the existing technology, the protection ability of the insulating hollow glass against ultraviolet heat radiation can be improved, but there are still some limitations. Future development requires more innovation in materials science and process technology to improve the blocking effect of the insulating hollow glass on ultraviolet radiation and reduce the related manufacturing and maintenance costs. Therefore, there is an urgent need for a high-strength radiation-proof and heat-insulating insulating glass to solve the above problems. Content of the Utility Model

[0005] Aiming at the deficiencies of the existing technology, the purpose of the utility model is to provide a high-strength radiation-proof and heat-insulating insulating glass to solve the problems raised in the above background technique.

[0006] The utility model is realized through the following technical solutions: a high-strength radiation-proof and heat-insulating insulating glass, including: an outer layer of glass and an inner sealing adhesive layer, and a set of connecting holes for connecting and fixing multiple layers of glass are respectively arranged at the four outer corners of the outer layer of glass;

[0007] An inner sealing layer for hermetically connecting with the insulating glass is arranged on the inner side of the outer layer of glass, and an insulating glass for providing heat insulation effect is arranged on the inner side of the inner sealing layer;

[0008] Inside the inner sealing layer, there is a set of hollow layer one for isolating external noise. Inside the heat-insulating glass, there is a set of hollow layer two for isolating internal noise. Inside the hollow layer two, there is a set of rear-layer glass for protecting the inner side, which can isolate internal and external noises by using the hollow layer one and the hollow layer two.

[0009] As a preferred embodiment, at the bottom of both the hollow layer one and the hollow layer two, there is a set of drying areas for keeping the interiors of the hollow layer one and the hollow layer two dry. Inside the lower end of the drying area, there is a set of inner drying panels for containing desiccants, which can keep the humidity inside the hollow layer one and the hollow layer two by using the inner drying panels to prevent water condensation on the inner sides of the outer layer glass and the rear-layer glass.

[0010] As a preferred embodiment, there are several release holes for releasing drying media inside the inner drying panel. Outer radiation protection films for preventing external high-temperature radiation are pasted on both sides of the outer layer glass, which can improve the high-temperature radiation protection effect by using the outer radiation protection film.

[0011] As a preferred embodiment, inner radiation protection films for preventing internal high-temperature radiation are pasted on both sides of the rear-layer glass. On the outer sides of the outer layer glass, the heat-insulating glass, and the rear-layer glass, there is a set of outer sealing frames for limiting and fitting them, which can improve the fixing effect of the outer layer glass, the heat-insulating glass, and the rear-layer glass by using the outer sealing frames.

[0012] As a preferred embodiment, there is a set of inner sealing glue layers for sealing and connecting the outer layer glass, the heat-insulating glass, and the rear-layer glass inside the outer sealing frame. The outer layer glass, the heat-insulating glass, and the rear-layer glass are all a kind of tempered glass.

[0013] As a preferred embodiment, inert gases are filled inside the hollow layer one and the hollow layer two, and the cross-sectional distance lengths of the hollow layer one and the hollow layer two are the same.

[0014] As a preferred embodiment, the desiccant filled inside the inner drying panel is a kind of epoxy silane organosilicon desiccant. There are several groups of the release holes, and the cross-sections of several groups of the release holes are all set in a hexagonal structure. A wire mesh for blocking the overflow of the desiccant is arranged inside the release hole, which can block the desiccant by using the wire mesh and prevent the desiccant from overflowing.

[0015] After adopting the above technical solution, the beneficial effects of the present utility model are as follows: The internal and external noises are isolated by using the first hollow layer and the second hollow layer. The humidity inside the first hollow layer and the second hollow layer is maintained by using the inner drying panel to prevent the condensation phenomenon on the inner side of the outer layer glass and the inner side of the rear layer glass. The high-temperature radiation protection effect is improved by using the outer radiation protection film. The fixing effect of the outer layer glass, the heat-insulating glass and the rear layer glass is improved by using the outer sealing frame. The desiccant is blocked by using the wire mesh and the overflow of the desiccant is prevented. Brief Description of the Drawings

[0016] In order to more clearly illustrate the technical solutions in the embodiments of the present utility model or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the following drawings are only some embodiments of the present utility model. For those of ordinary skill in the art, without creative efforts, other drawings can also be obtained based on these drawings.

[0017] Figure 1 It is a front-side top view structural schematic diagram of a high-strength radiation protection and heat insulation hollow glass of the present utility model;

[0018] Figure 2 It is a front-side top view structural schematic diagram of the drying area between the outer layer glass and the heat-insulating glass in a high-strength radiation protection and heat insulation hollow glass of the present utility model;

[0019] Figure 3 It is a front-side front view structural schematic diagram when the outer layer glass, the heat-insulating glass and the rear layer glass of a high-strength radiation protection and heat insulation hollow glass of the present utility model are hermetically connected to the outer sealing frame;

[0020] Figure 4 It is a front-side top view structural schematic diagram of the inner drying panel in a high-strength radiation protection and heat insulation hollow glass of the present utility model;

[0021] In the figure: 100 - outer layer glass, 110 - connection hole, 120 - inner sealing layer, 130 - heat-insulating glass, 140 - outer radiation protection film, 150 - drying area, 160 - inner radiation protection film, 170 - first hollow layer, 180 - outer sealing frame, 190 - second hollow layer, 200 - rear layer glass, 210 - inner drying panel, 220 - release hole, 230 - inner sealing adhesive layer. Detailed Embodiment

[0022] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present utility model without creative efforts belong to the scope of protection of the present utility model.

[0023] Please refer to Figures 1 - 4 , a high-strength radiation-proof and heat-insulating hollow glass, comprising: an outer layer of glass 100, a heat-insulating glass 130, and an inner sealing adhesive layer 230. A set of connection holes 110 for connecting and fixing multiple layers of glass are respectively provided at four groups of outer corners of the outer layer of glass 100;

[0024] An inner sealing layer 120 for hermetically connecting with the heat-insulating glass 130 is provided inside the outer layer of glass 100, and a heat-insulating glass 130 for providing a heat-insulating effect is provided inside the inner sealing layer 120;

[0025] A first hollow layer 170 for isolating external noise is provided inside the inner sealing layer 120, a second hollow layer 190 for isolating internal noise is provided inside the heat-insulating glass 130, and a rear layer of glass 200 for protecting the inner side is provided inside the second hollow layer 190. The internal and external noises can be isolated by using the first hollow layer 170 and the second hollow layer 190.

[0026] A drying area 150 for keeping the inside of the first hollow layer 170 and the second hollow layer 190 dry is provided at the bottom of both the first hollow layer 170 and the second hollow layer 190. An inner drying panel 210 for containing a desiccant is provided inside the lower end of the drying area 150. The humidity inside the first hollow layer 170 and the second hollow layer 190 can be maintained by using the inner drying panel 210 to prevent the occurrence of water condensation on the inner side of the outer layer of glass 100 and the inner side of the rear layer of glass 200.

[0027] A number of release holes 220 for releasing a drying medium are provided inside the inner drying panel 210. Outer radiation-proof films 140 for preventing external high-temperature radiation are pasted on both the inner and outer sides of the outer layer of glass 100. The high-temperature radiation-proof effect can be improved by using the outer radiation-proof film.

[0028] Inner radiation-proof films 160 for preventing internal high-temperature radiation are pasted on both the inner and outer sides of the rear layer of glass 200. An outer sealing frame 180 for limiting and fitting them is provided on the outer sides of the outer layer of glass 100, the heat-insulating glass 130, and the rear layer of glass 200. The fixing effect of the outer layer of glass 100, the heat-insulating glass 130, and the rear layer of glass 200 can be improved by using the outer sealing frame 180.

[0029] Inside the outer sealing frame 180, there is a set of inner sealant layers 230 for sealing and connecting the outer glass 100, the heat-insulating glass 130, and the rear glass 200. The outer glass 100, the heat-insulating glass 130, and the rear glass 200 are all tempered glasses.

[0030] The first insulating layer 170 and the second insulating layer 190 are filled with inert gas, and the cross-sectional distance lengths of the first insulating layer 170 and the second insulating layer 190 are the same.

[0031] The desiccant filled inside the inner drying panel 210 is an epoxy silane organosilicon desiccant. There are several groups of release holes 220, and the cross-sections of the several groups of release holes 220 are all set in a hexagonal structure. Inside the release holes 220, there is a wire mesh for blocking the overflow of the desiccant, which can block the desiccant by using the wire mesh and prevent the desiccant from overflowing.

[0032] Please refer to Figures 1 - 4 As the first embodiment of the present utility model: To solve the problem that the heat-insulating insulating glass cannot effectively block ultraviolet heat radiation, which will cause the indoor temperature to be too high and exacerbate the heat accumulation in summer. When the user uses the present utility model, the external ultraviolet rays irradiate on the outer glass, the heat-insulating glass 130, and the outer side of the rear glass 200. At the same time, since the outer anti-radiation films 140 for preventing external high-temperature radiation are pasted on both the inner and outer sides of the outer glass 100, and the inner anti-radiation films 160 for preventing internal high-temperature radiation are pasted on both the inner and outer sides of the rear glass 200, the inner anti-radiation films 160 on the inner and outer sides of the outer glass 100 and the rear glass 200 can effectively block the ultraviolet radiation in sunlight. At the same time, with the cooperation of the heat-insulating glass 130, it can further reduce the heat conduction through the outer glass 100, the heat-insulating glass 130, and the rear glass 200, and reduce the indoor temperature.

[0033] Please refer to Figures 1 - 4 As the second embodiment of the present utility model: Based on the description in the above embodiment, further, during the use of the present utility model, when the air humidity is relatively high, since a set of drying areas 150 for keeping the inside of the first insulating layer 170 and the second insulating layer 190 dry are provided at the bottoms of the first insulating layer 170 and the second insulating layer 190, and a set of inner drying panels 210 for containing desiccant are provided inside the lower ends of the drying areas 150, the inner drying panels 210 can continuously release the drying effect of the desiccant to the first insulating layer 170 and the second insulating layer 190, thereby preventing the occurrence of the condensation phenomenon inside the first insulating layer 170 and the second insulating layer 190 caused by high air humidity and the situation that it is not easy to clean.

[0034] The above are only the preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present utility model shall be included within the protection scope of the present utility model.

Claims

1. A high-strength radiation-proof heat-insulating hollow glass, comprising: The outer layer of glass (100), the heat-insulating glass (130), the outer radiation protection film (140) and the inner sealant layer (230) are characterized in that: the four groups of positive corners of the outer layer of glass (100) are respectively provided with a group of connection holes (110) for connecting and fixing the multiple layers of glass; A group of inner sealing layers (120) for sealingly connecting with the heat insulating glass (130) are provided on the inner side of the outer layer of glass (100), and a group of heat insulating glass (130) for providing a heat insulating effect is provided on the inner side of the inner sealing layer (120); A group of hollow layers (170) for isolating external noise is provided on the inner side of the inner sealing layer (120), a group of hollow layers (190) for isolating internal noise is provided on the inner side of the heat insulating glass (130), and a group of rear glass (200) for protecting the inner side is provided on the inner side of the hollow layer (190).

2. The high-strength radiation-proof heat-insulating hollow glass according to claim 1, characterized in that: A drying area (150) for keeping the interior of the hollow layer (170) and the hollow layer (190) dry is provided at the bottom of each of the hollow layer 1 (170) and the hollow layer 2 (190), and a group of inner drying panels (210) for containing desiccant is provided at the lower end of the drying area (150).

3. The high-strength radiation-proof heat-insulating hollow glass according to claim 2, characterized in that: The inner drying panel (210) is provided with a plurality of groups of release holes (220) for releasing the drying medium, and the outer and inner sides of the outer layer of glass (100) are both provided with an outer radiation protection film (140) for preventing external high temperature radiation.

4. The high-strength radiation-proof heat-insulating hollow glass according to claim 1, characterized in that: Both the inner and outer sides of the rear glass (200) are provided with an inner radiation protection film (160) for preventing internal high-temperature radiation, and the outer sides of the outer glass (100), the heat-insulating glass (130) and the rear glass (200) are provided with a group of outer sealing frames (180) for limiting and fitting them.

5. The high-strength radiation-proof heat-insulating hollow glass according to claim 4, characterized in that: A group of inner sealing adhesive layers (230) for sealingly connecting the outer layer of glass (100), the heat insulating glass (130) and the rear layer of glass (200) are provided on the inner side of the outer sealing frame (180); the outer layer of glass (100), the heat insulating glass (130) and the rear layer of glass (200) are all tempered glass.

6. The high-strength radiation-proof heat-insulating hollow glass according to claim 2, characterized in that: The hollow layer 1 (170) and the hollow layer 2 (190) are filled with inert gas, and the cross-sectional distance length of the hollow layer 1 (170) and the hollow layer 2 (190) are consistent.

7. The high-strength radiation-proof heat-insulating hollow glass according to claim 3, characterized in that: The desiccant filled inside the inner drying panel (210) is an epoxy silane organic silicon desiccant, the release holes (220) are provided in a plurality of groups, and the cross-sections of the plurality of groups of release holes (220) are all arranged in a hexagonal structure, and a wire mesh for preventing the desiccant from overflowing is provided inside the release holes (220).

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