Heat insulation Low-E glass structure

Abstract

The utility model provides a heat insulation Low-E glass structure which comprises an aluminum alloy frame, first Low-E glass, hollow glass and second Low-E glass, a first gap is formed between the first Low-E glass and the hollow glass, and a second gap is formed between the hollow glass and the second Low-E glass; the hollow glass is filled with an inert gas layer; a sound insulation film layer is attached to the side, close to the first Low-E glass, of the hollow glass, and a glass fiber mesh layer and a first indium tin oxide film layer are sequentially stacked on the side, close to the second Low-E glass, of the hollow glass from inside to outside; the first Low-E glass comprises a first glass base layer, and a niobium oxide film layer, a first silver film layer, a second indium tin oxide film layer and a first anti-oxidation film layer are sequentially stacked on the side face, close to the hollow glass, of the first glass base layer from inside to outside; an explosion-proof film layer and a first silicon oxide film layer are sequentially stacked on one side surface, far away from the hollow glass, of the first glass base layer from inside to outside; good sound insulation and heat insulation functions are realized.

Description

TECHNICAL FIELD

[0001] The utility model relates to Low-E glass technical field especially relates to a heat insulation Low-E glass structure. BACKGROUND

[0002] China authorized announcement number CN 221942270U, the authorized announcement day is November 1, 2024, and it specifically relates to a novel high-strength sound insulation Low-E glass, including metal outer frame, the metal outer frame inside is provided with mounting groove, the mounting groove is sequentially fixed with outer layer tempered glass, middle Low-E glass and inner layer tempered glass, the middle Low-E glass is hollow in the inside, and it is filled with inert gas, the middle Low-E glass is provided with solid sound insulation seal between the metal outer frame, the outer layer tempered glass and inner layer tempered glass are provided with mesh water absorption sealing strip between the metal outer frame, the utility model, by setting up outer layer tempered glass and inner layer tempered glass on the both sides of middle Low-E glass, protect middle Low-E glass from being destroyed, improve the overall strength, simultaneously, the mesh water absorption sealing strip set up on the both sides of outer layer tempered glass and inner layer tempered glass can enhance the sealing property, and the built-in drier can filter water vapor, avoid the inside fogging of glass. The defect that the above-mentioned prior art exists is: in the actual application process, the prior art in sound insulation, heat insulation needs to be improved. In view of this situation, it is urgent to improve. SUMMARY

[0003] Based on this, the utility model discloses a kind of heat insulation Low-E glass structures, with good sound insulation, heat insulation function.

[0004] The utility model provides a kind of heat insulation Low-E glass structure, including aluminium alloy frame, first Low-E glass, hollow glass, second Low-E glass, the aluminium alloy frame is formed with three receiving spaces, the first Low-E glass, hollow glass, second Low-E glass are sequentially arranged and distributed in receiving space, first gap is formed between the first Low-E glass and hollow glass, second gap is formed between the hollow glass and the second Low-E glass;Inert gas layer is filled in the hollow glass;

[0005] Sound insulation film layer is attached to the side of the hollow glass to the first Low-E glass, glass fibre mesh layer and first indium tin oxide film layer are sequentially stacked from inside to outside to the side of the hollow glass to the second Low-E glass;

[0006] The first Low-E glass comprises a first glass base layer, and a niobium oxide film layer, a first silver film layer, a second indium tin oxide film layer and a first anti-oxidation film layer are sequentially arranged from inside to outside on a side of the first glass base layer close to the hollow glass.

[0007] The second Low-E glass comprises a second glass base layer, and an infrared reflection film layer, a third indium tin oxide film layer and a second silicon oxide film layer are sequentially arranged from inside to outside on a side of the second glass base layer close to the hollow glass.

[0008] The first gap and the second gap are sequentially provided with a waterproof sealing rubber strip, a sound insulation sealing strip and a desiccant layer from outside to inside on two sides in the width direction.

[0009] Preferably, the infrared reflection film layer is a polyurethane-NPBO film layer.

[0010] Preferably, a first self-cleaning film layer is attached to a side of the first silicon oxide film layer away from the explosion-proof film layer.

[0011] Preferably, a second self-cleaning film layer is attached to a side of the first anti-oxidation film layer away from the second indium tin oxide film layer.

[0012] Preferably, a third self-cleaning film layer is attached to a side of the heat reflection film layer away from the second anti-oxidation film layer.

[0013] The utility model discloses the beneficial effects are: through hollow glass, first gap, second gap, inert gas layer, sound insulation film layer, heat reflection film layer, infrared reflection film layer, sound insulation sealing strip mutual cooperation, make this structure have good sound insulation, heat insulation function, through the glass fiber net layer and explosion -proof film layer mutual cooperation of setting, make this structure have good explosion -proof, impact -resistant function, through the setting anti -oxidation film layer, make this structure have good anti -oxidation function to promote the service life, through the setting indium tin oxide film, make this structure have ultraviolet ray absorption function. BRIEF DESCRIPTION OF DRAWINGS

[0014] Figure 1 It is the perspective view of the utility model.

[0015] Figure 2 It is the sectional view of the first Low-E glass.

[0016] Figure 3 It is the sectional view of the second Low-E glass.

[0017] Figure 4It is a sectional view of hollow glass.

[0018] The reference signs are: aluminum alloy frame 10, sound insulation sealing strip 11, desiccant layer 12, second gap 13, first gap 14, first Low-E glass 17, hollow glass 16, second Low-E glass 15, inert gas layer 18, first glass base layer 19, explosion-proof film layer 20, first silicon oxide film layer 21, niobium oxide film layer 22, first silver film layer 23, second indium tin oxide film layer 24, first oxidation-resistant film layer 25, second glass base layer 26, second silver film layer 27, second oxidation-resistant film layer 28, infrared reflective film layer 29, third indium tin oxide film layer 30, second silicon oxide film layer 31, heat reflective film layer 32, sound insulation film layer 33, glass fiber mesh layer 34, first indium tin oxide film layer 35, waterproof sealant strip 36. DETAILED DESCRIPTION

[0019] In order to further understand the features, technical means and specific purposes and functions achieved by the utility model, the utility model will be described in further detail below in combination with specific embodiments and drawings.

[0020] In the utility model, unless there are explicit provisions and limitations, the terms "mounting", "connection", "connection", "fixing" and other terms should be understood broadly, for example, it can be fixed connection, or detachable connection, or integrally connected; it can be mechanical connection, or electrical connection; it can be directly connected, or indirectly connected through intermediate medium, or the communication inside two elements. For ordinary skilled in the art, the specific meaning of the above terms in the utility model can be understood according to specific circumstances.

[0021] Please refer to Figures 1-4 The reference signs are: aluminum alloy frame 10, sound insulation sealing strip 11, desiccant layer 12, second gap 13, first gap 14, first Low-E glass 17, hollow glass 16, second Low-E glass 15, inert gas layer 18, first glass base layer 19, explosion-proof film layer 20, first silicon oxide film layer 21, niobium oxide film layer 22, first silver film layer 23, second indium tin oxide film layer 24, first oxidation-resistant film layer 25, second glass base layer 26, second silver film layer 27, second oxidation-resistant film layer 28, infrared reflective film layer 29, third indium tin oxide film layer 30, second silicon oxide film layer 31, heat reflective film layer 32, sound insulation film layer 33, glass fiber mesh layer 34, first indium tin oxide film layer 35, waterproof sealant strip 36.

[0022] The side of hollow glass 16 close to first Low-E glass 17 is attached with sound insulation film layer 33, and the side of hollow glass 16 close to second Low-E glass 15 is sequentially attached with glass fiber mesh layer 34 and first indium tin oxide film layer 35 from inside to outside;

[0023] The first Low-E glass 17 comprises a first glass base layer 19, and the first glass base layer 19 is sequentially stacked with a niobium oxide film layer 22, a first silver film layer 23, a second indium tin oxide film layer 24 and a first anti-oxidation film layer 25 from inside to outside of one side of the first glass base layer 19 close to the hollow glass 16; and the first glass base layer 19 is sequentially stacked with the explosion-proof film layer 20 and the first silicon oxide film layer 21 from inside to outside of one side of the first glass base layer 19 away from the hollow glass 16;

[0024] The second Low-E glass 15 comprises a second glass base layer 26, and the second glass base layer 26 is sequentially stacked with an infrared reflection film layer 29, a third indium tin oxide film layer 30 and a second silicon oxide film layer 31 from inside to outside of one side of the second glass base layer 26 close to the hollow glass 16; and the infrared reflection film layer 29 is a polyurethane-NPBO film layer. The second glass base layer 26 is sequentially stacked with a second silver film layer 27, a second anti-oxidation film layer 28 and a heat reflection film layer 32 from inside to outside of one side of the second glass base layer 26 away from the hollow glass 16.

[0025] The first gap 14 and the second gap 13 are sequentially provided with a waterproof sealing rubber strip 36 and a sound insulation sealing strip 11 from outside to inside of two sides of the width direction.

[0026] Preferably, the first silicon oxide film layer 21 is attached with a first self-cleaning film layer on one side away from the explosion-proof film layer 20. The first anti-oxidation film layer 25 is attached with a second self-cleaning film layer on one side away from the second indium tin oxide film layer 24. The heat reflection film layer 32 is attached with a third self-cleaning film layer on one side away from the second anti-oxidation film layer 28. Through such a structure, the embodiment has good self-cleaning function.

[0027] In the embodiment, the hollow glass, the first gap, the second gap, the inert gas layer, the sound insulation film layer, the heat reflection film layer, the infrared reflection film layer and the sound insulation sealing strip cooperate with each other, so that the structure has good sound insulation and heat insulation functions. The glass fiber mesh layer and the explosion-proof film layer cooperate with each other, so that the structure has good explosion-proof and impact-resistant functions. The anti-oxidation film layer is arranged, so that the structure has good anti-oxidation function, thereby prolonging the service life. The indium tin oxide film is arranged, so that the structure has ultraviolet absorption function.

[0028] The above-mentioned embodiments only express two kinds of embodiments of the utility model, and the description is more specific and detailed, but it cannot be understood as the limitation of the patent range of the utility model. It should be pointed out that for ordinary skilled persons in the art, some modifications and improvements can be made without departing from the concept of the utility model, and these all belong to the protection range of the utility model. Therefore, the protection range of the utility model patent should be subject to the appended claims.

Claims

1. A heat-insulating Low-E glass structure, comprising an aluminum alloy frame (10), a first Low-E glass (17), a hollow glass (16), and a second Low-E glass (15), three receiving spaces are formed in the aluminum alloy frame (10), the first Low-E glass (17), the hollow glass (16), and the second Low-E glass (15) are arranged in the receiving spaces in sequence, a first gap (14) is formed between the first Low-E glass (17) and the hollow glass (16), and a second gap (13) is formed between the hollow glass (16) and the second Low-E glass (15); the hollow glass (16) is filled with an inert gas layer (18); characterized in that a sound insulation film layer (33) is attached to a side of the hollow glass (16) close to the first Low-E glass (17), and a glass fiber mesh layer (34) and a first indium tin oxide film layer (35) are sequentially stacked from inside to outside on a side of the hollow glass (16) close to the second Low-E glass (15); the first Low-E glass (17) comprises a first glass base layer (19), a niobium oxide film layer (22), a first silver film layer (23), a second indium tin oxide film layer (24), and a first oxidation-resistant film layer (25) are sequentially stacked from inside to outside on a side of the first glass base layer (19) close to the hollow glass (16); and a blast-resistant film layer (20) and a first silicon oxide film layer (21) are sequentially stacked from inside to outside on a side of the first glass base layer (19) away from the hollow glass (16); the second Low-E glass (15) comprises a second glass base layer (26), an infrared reflective film layer (29), a third indium tin oxide film layer (30), and a second silicon oxide film layer (31) are sequentially stacked from inside to outside on a side of the second glass base layer (26) close to the hollow glass (16); and a second silver film layer (27), a second oxidation-resistant film layer (28), and a heat reflective film layer (32) are sequentially stacked from inside to outside on a side of the second glass base layer (26) away from the hollow glass (16); waterproof sealing rubber strips (36) and sound insulation sealing strips (11) are sequentially arranged from outside to inside on both sides of the first gap (14) and the second gap (13) in the width direction.

2. A thermally improved Low-E glass structure according to claim 1, characterized in that: The infrared reflective film layer (29) is a polyurethane-NPBO film layer.

3. The thermally improved Low-E glass structure of claim 1, wherein: A first self-cleaning film layer is attached to a side of the first silicon oxide film layer (21) away from the blast-resistant film layer (20).

4. The thermally improved Low-E glass structure of claim 1, wherein: A second self-cleaning film layer is attached to a side of the first oxidation-resistant film layer (25) away from the second indium tin oxide film layer (24).

5. The thermally improved Low-E glass structure of claim 1, wherein: A third self-cleaning film layer is attached to a side of the heat reflective film layer (32) away from the second oxidation-resistant film layer (28).

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