Novel environment-friendly and energy-saving hollow glass

Abstract

The utility model discloses a novel environmental protection energy -conserving hollow glass relates to glass production technical field, aims at solving the technical problem of the current hollow glass sealing state is broken and easily causes energy -conserving performance to reduce, including outer frame body and the outer glass structure and inner glass structure of connection thereof, be equipped with hollow part between the outer glass structure and inner glass structure, the inner glass structure includes inside glass and outside glass, be equipped with with the pressure block of outer glass structure and inner glass structure cooperation on the side edge baffle. The utility model discloses through setting up inner glass structure, it is based on the relative symmetry structure of interlayer, and based on the positioning light strip respectively presents symmetrical setting light -adjusting positioning plate, outside glass and inside glass from inside to outside, based on the outer glass structure and traditional hollow part simultaneously, realize the operation of blocking transmission based on gas to external light, after the operation such as refract and reflect output to outside glass, output to the back light surface, realize the operation of gas physical heat insulation.

Description

Technical Field

[0001] This utility model relates to the field of glass production technology, and more specifically, to a new type of environmentally friendly and energy-saving insulated glass. Background Technology

[0002] Insulating glass is a composite glass product made of two or more panes of glass separated by a spacer, forming a sealed, dry gas cavity (air or inert gas) between the glass panes, and then double-sealed. Its core advantages are high-efficiency heat insulation and sound insulation, while also having safety and anti-condensation properties. It is the mainstream energy-saving material for modern building doors, windows, curtain walls, and skylights.

[0003] Currently, for non-aesthetic insulated glass units, their energy-saving performance mainly relies on the sealing of the hollow section and the gas filling it to achieve thermal insulation and energy saving. This single, mainstream thermal insulation method has poor stability. If the side seal is broken during prolonged use, gas leakage will occur, reducing the thermal insulation performance based on the hollow structure and affecting the energy-saving effect. Therefore, we propose a new type of environmentally friendly and energy-saving insulated glass. Utility Model Content

[0004] The purpose of this utility model is to overcome the shortcomings of the existing technology, adapt to the needs of reality, and provide a new type of environmentally friendly and energy-saving insulated glass to solve the technical problem that the current insulated glass is prone to reduced energy-saving performance when the sealing state is broken.

[0005] To solve the above-mentioned technical problems, this utility model provides the following technical solution: a novel environmentally friendly and energy-saving insulated glass, comprising an outer frame and an outer glass structure and an inner glass structure connected thereto, with a hollow section between the outer glass structure and the inner glass structure, the inner glass structure comprising an inner glass and an outer glass, with two corresponding sets of dimming positioning plates on opposite sides of the inner and outer glass, a positioning light strip on the inner side of the dimming positioning plate, an adhesive layer between the two dimming positioning plates, a side partition at the external connection between the outer frame and the outer and inner glass structures, and a pressure block on the side partition that cooperates with the outer and inner glass structures.

[0006] Preferably, the outer frame and the corresponding positions of the outer glass structure and the inner glass structure are respectively provided with side positioning cavities and hollow positioning cavities, and a sealing partition is provided between the side positioning cavities and the hollow positioning cavities.

[0007] Preferably, the side partition corresponds to the opposite side of the outer glass structure and the inner glass structure, and is installed on the outer frame. The pressure block protrudes under normal pressure, and the height of both sides of the outer frame is higher than the height of the sealing partition.

[0008] Preferably, the bottom of the outer glass structure and the inner glass structure are provided with an arc-shaped inner groove, the outer frame is provided with an arc-shaped bottom plate corresponding to the arc-shaped inner groove, the hollow positioning cavity is provided with a sealing block for positioning, and the sealing block is provided with a through reverse tube.

[0009] Preferably, the outer glass is provided with an inner retaining strip that cooperates with the dimming positioning plate, the dimming positioning plate is provided with an outer positioning groove that cooperates with the outer glass, and the dimming positioning plate is also provided with an inner arc-shaped groove that cooperates with the positioning light strip.

[0010] Preferably, the positioning light strip has an elliptical cross-section, and the two dimming positioning plates are joined together based on the adhesive layer to form a rhomboid structure, with elliptical grooves for fixing the positioning light strip formed inside the dimming positioning plates.

[0011] Compared with the prior art, the beneficial effects of this utility model are: 1. This utility model, through the setting of an inner glass structure, is based on a relatively symmetrical structure of the laminated layer. From the inside out, a dimming positioning plate, an outer glass, and an inner glass are symmetrically arranged based on the positioning light strip. At the same time, based on the outer glass structure and the traditional hollow part, the external light is blocked from transmission by gas, thereby increasing the heat insulation performance. After passing through the hollow part, the light is output into the inner glass structure. The light output from the inner glass passes through the dimming positioning plate and is refracted before being output to the position of the positioning light strip for focusing and output to the dimming positioning plate on the other side. After refraction and reflection, it is output to the outer glass and then to the backlight surface, thus achieving the operation of physical heat insulation by gas. Through multiple heat insulation methods, this invention solves the technical problem that the current hollow glass is prone to reduced energy-saving performance when the sealing state is broken.

[0012] 2. This utility model also uses an outer frame, which, through side partitions on both sides and pressure blocks connected to the outer and inner glass structures, provides a pressurized seal at the joints of the outer and inner glass structures. This reduces gas leakage in the hollow positioning cavity, improves the integrity between the outer and inner glass structures, and reduces the reduction in gas-based thermal insulation performance caused by gas leakage in the hollow positioning cavity due to poor external sealing performance. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of the cross-sectional structure of the present invention; Figure 2 This is a schematic diagram of the outer frame connection structure of this utility model; Figure 3 This is a schematic diagram of the inner glass structure of this utility model; Figure 4 This is a schematic diagram of the unfolded inner glass structure of this utility model.

[0014] Explanation of the numbers in the diagram: 100, outer frame; 110, hollow positioning cavity; 120, side positioning cavity; 130, sealing partition; 140, side partition; 150, pressure block; 160, arc-shaped bottom plate; 170, sealing block; 180, reverse tube; 200, outer glass structure; 210, hollow section; 300, inner glass structure; 310, inner glass; 320, outer glass; 321, inner edge strip; 330, dimming positioning plate; 331, outer positioning groove; 332, inner arc-shaped groove; 340, positioning light strip; 350, laminated layer. Detailed Implementation

[0015] like Figures 1 to 4 As shown, this utility model relates to a novel environmentally friendly and energy-saving insulated glass unit, comprising an outer frame 100 and an outer glass structure 200 and an inner glass structure 300 connected thereto. A hollow section 210 is provided between the outer glass structure 200 and the inner glass structure 300. The inner glass structure 300 includes an inner glass 310 and an outer glass 320. Two sets of corresponding dimming positioning plates 330 are provided on opposite sides of the inner glass 310 and the outer glass 320. A positioning light strip 340 is provided on the inner side of the dimming positioning plate 330. An adhesive layer 350 is provided between the two dimming positioning plates 330. A side partition 140 is provided at the external connection between the outer frame 100 and the outer glass structure 200 and the inner glass structure 300. A pressure block 150 is provided on the side partition 140 to cooperate with the outer glass structure 200 and the inner glass structure 300.

[0016] This invention features an inner glass structure 300, which is symmetrically arranged based on the interlayer 350. From the inside out, a dimming positioning plate 330, an outer glass 320, and an inner glass 310 are symmetrically arranged based on the positioning light strip 340. Simultaneously, the outer glass structure 200 and the traditional hollow section 210 block external light transmission through gas, increasing heat insulation performance. After passing through the hollow section 210, the light is output into the inner glass structure 300. The light output from the inner glass 310 is refracted by the dimming positioning plate 330 before being focused at the position of the positioning light strip 340 and output to the dimming positioning plate 330 on the other side. After further refraction and reflection, the light is output to the outer glass 320 and then to the backlight surface. This achieves heat insulation through both gas and physical means. By using multiple heat insulation methods, this invention solves the technical problem that the current insulated glass is prone to reduced energy-saving performance when the seal is broken.

[0017] This utility model also features an outer frame 100, which, through side partitions 140 positioned on both sides of the outer glass structure 200 and the inner glass structure 300 and their connected pressure blocks 150, provides pressurized sealing at the joints of the outer glass structure 200 and the inner glass structure 300. This reduces gas leakage at the hollow positioning cavity 110, improves the overall integrity between the outer glass structure 200 and the inner glass structure 300, and reduces the reduction in gas-based thermal insulation performance caused by gas leakage within the hollow positioning cavity 110 due to poor external sealing performance.

[0018] Specifically, the outer frame 100 and the corresponding positions of the outer glass structure 200 and the inner glass structure 300 are respectively provided with side positioning cavities 120 and hollow positioning cavities 110. A sealing partition 130 is provided between the side positioning cavities 120 and the hollow positioning cavities 110. The outer glass structure 200 and the inner glass structure 300 are respectively installed on the two side positioning cavities 120, which realizes a relatively sealed operation and ensures the spatial sealing performance within the outer frame 100. The hollow positioning cavity 110 is used to realize the relatively hollow operation based on the outer glass structure 200 and the inner glass structure 300, and fills the interior with gas to achieve the purpose of normal heat insulation and energy saving.

[0019] Furthermore, the side partition 140 corresponds to the opposite side of the outer glass structure 200 and the inner glass structure 300, and is installed on the outer frame 100. The pressure block 150 protrudes under normal pressure. The height of the two sides of the outer frame 100 is higher than the height of the sealing partition 130. The opposite sides of the outer glass structure 200 and the inner glass structure 300 correspond to the light-facing side and the backlight side, respectively. Their sides have more contact time with the environment. By setting the side partition 140 and the pressure block 150, the sealing performance at the joint between the outer glass structure 200 and the inner glass structure 300 and the outer frame 100 is effectively improved, and the pressure resistance is increased. This facilitates the subsequent operation of injecting air and pressurizing in the hollow positioning cavity 110, and reduces the occurrence of air leakage.

[0020] It is worth noting that the bottom of the outer glass structure 200 and the inner glass structure 300 are provided with arc-shaped inner grooves, and the outer frame 100 is provided with an arc-shaped bottom plate 160 corresponding to the arc-shaped inner grooves. The hollow positioning cavity 110 is provided with a sealing block 170 for positioning, and the sealing block 170 is provided with a through reverse pipe 180. The arc-shaped bottom plate 160 assists in the sealing performance between the outer glass structure 200 and the inner glass structure 300 and the outer frame 100, reducing the occurrence of horizontal air leakage between the outer glass structure 200 and the inner glass structure 300 and the outer frame 100. The arc-shaped bottom plate 160 increases the air flow distance, reducing the occurrence of gas leakage. At the same time, the installation of the sealing block 170 increases the contact surface between the outer glass structure 200 and the inner glass structure 300 at the top of the sealing partition 130, improving the pressure resistance.

[0021] It is worth mentioning that the outer glass 320 is provided with an inner retaining strip 321 that cooperates with the dimming positioning plate 330, the dimming positioning plate 330 is provided with an outer positioning groove 331 that cooperates with the outer glass 320, and the dimming positioning plate 330 is also provided with an inner arc-shaped groove 332 that cooperates with the positioning light strip 340; the outer glass 320 is fixed to the outside of the dimming positioning plate 330 by the inner retaining strip 321, and the outer positioning groove 331 on the dimming positioning plate 330 improves the integrity of the dimming positioning plate 330, the inner glass 310, and the outer glass 320.

[0022] It is worth noting that the positioning light strip 340 has an elliptical cross-section, and the two dimming positioning plates 330, after being bonded together based on the interlayer 350, have a rhomboid structure. The interior of the two plates forms an elliptical groove for fixing the positioning light strip 340. The elliptical structure of the positioning light strip 340, together with the rhomboid structure of the dimming positioning plate 330, enables the light to be reflected and then refracted into the positioning light strip 340. The positioning light strip 340 enables the light to converge again, and together with the dimming positioning plate 330 at the other end, it enables secondary reflection and refraction before being output to the backlight surface. This effectively reduces the heating caused by direct light and improves energy efficiency.

[0023] Working Principle: This embodiment provides a new type of environmentally friendly and energy-saving insulated glass. In use, the sealing block 170 is installed at the position of the insulated positioning cavity 110. Then, the outer glass structure 200 and the inner glass structure 300 are respectively installed at the positions of the two side positioning cavities 120 on the outer frame 100. When the outer glass structure 200 and the inner glass structure 300 are passed through the side partition 140, they contact and are pressed against the pressure block 150 until their bottoms contact the bottom of the side positioning cavities 120. At this time, the opposite sides of the outer glass structure 200 and the inner glass structure 300 are... The sealing partition 130 contacts the corresponding part, and then the bottom of the arc-shaped base plate 160 is connected to the side positioning cavity 120. The top is located in the arc-shaped groove at the bottom of the outer glass structure 200 and the inner glass structure 300, and a sealing operation is performed on it. After completion, the reverse tube 180 is squeezed to fill the gas, and the installation is completed. The light output through the inner glass 310 passes through the dimming positioning plate 330 and undergoes refraction and other operations before being output to the position of the positioning light strip 340 for focusing and output to the dimming positioning plate 330 on the other side. After refraction and reflection, the light is output to the outer glass 320 and then to the backlight surface.

[0024] The embodiments disclosed herein are preferred embodiments, but are not limited thereto. Those skilled in the art can readily grasp the spirit of this utility model based on the above embodiments and make different extensions and variations. However, as long as they do not depart from the spirit of this utility model, they are all within the protection scope of this utility model.

Claims

1. A novel environmentally friendly and energy-saving insulating glass, characterized in that, It includes an outer frame (100) and an outer glass structure (200) and an inner glass structure (300) connected thereto, with a hollow section (210) between the outer glass structure (200) and the inner glass structure (300). The inner glass structure (300) includes an inner glass (310) and an outer glass (320). Two sets of dimming positioning plates (330) are provided on opposite sides of the inner glass (310) and the outer glass (320). A positioning light strip (340) is provided on the inner side of the dimming positioning plate (330). An adhesive layer (350) is provided between the two dimming positioning plates (330). The outer frame (100) is provided with a side partition (140) at the external connection between the outer glass structure (200) and the inner glass structure (300), and the side partition (140) is provided with a pressure block (150) that cooperates with the outer glass structure (200) and the inner glass structure (300).

2. The novel environmentally friendly and energy-saving insulating glass according to claim 1, characterized in that, The outer frame (100) and the outer glass structure (200) and the inner glass structure (300) are respectively provided with side positioning cavities (120) and hollow positioning cavities (110) on both sides, and a sealing partition (130) is provided between the side positioning cavity (120) and the hollow positioning cavity (110).

3. The novel environmentally friendly and energy-saving insulating glass according to claim 2, characterized in that, The side partition (140) corresponds to the opposite side of the outer glass structure (200) and the inner glass structure (300), and is installed on the outer frame (100). The pressure block (150) is in a protruding state under normal pressure. The height of the two sides of the outer frame (100) is higher than the height of the sealing partition (130).

4. The novel environmentally friendly and energy-saving insulating glass according to claim 3, characterized in that, The bottom of the outer glass structure (200) and the inner glass structure (300) are provided with an arc-shaped inner groove. The outer frame (100) is provided with an arc-shaped bottom plate (160) corresponding to the arc-shaped inner groove. The hollow positioning cavity (110) is provided with a sealing block (170) for positioning. The sealing block (170) is provided with a through reverse tube (180).

5. The novel environmentally friendly and energy-saving insulating glass according to claim 1, characterized in that, The outer glass (320) is provided with an inner edge strip (321) that cooperates with the dimming positioning plate (330). The dimming positioning plate (330) is provided with an outer positioning groove (331) that cooperates with the outer glass (320). The dimming positioning plate (330) is also provided with an inner arc-shaped groove (332) that cooperates with the positioning light strip (340).

6. A novel environmentally friendly and energy-saving insulating glass according to claim 5, characterized in that, The positioning light strip (340) has an elliptical cross-section, and the two dimming positioning plates (330) are bonded together based on the adhesive layer (350) to form a rhomboid structure. An elliptical groove for fixing the positioning light strip (340) is formed inside the dimming positioning plate (330).

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