Anti-dazzle glass panel

Abstract

The anti-dazzle glass panel comprises a panel body, a plurality of micropores which are formed in the surface of the panel body and are integrated are formed in the surface of the panel body, and an integrated coarse structure layer is further arranged on the surface where the micropores exist. The utility model has the beneficial effects that the panel body adopts the mode of firstly forming the micropores, then performing rough treatment and finally performing soaking treatment, so that the panel body does not need to be separated from the panel body while the required transmittance and definition are achieved, and meanwhile, the panel body has good hardness, so that the durability of the panel body can be ensured.

Description

TECHNICAL FIELD

[0001] The utility model relates to glass panel technical field especially a kind of anti-glare glass panel. BACKGROUND

[0002] Glass panel is one of the key components of electronic products, which can be used as the shell of electronic products to protect the internal structure, and also as the appearance of electronic products, directly determining the visual aesthetic degree of electronic products.

[0003] The existing glass panel usually adheres a nanometer optical layer on the surface of glass panel by roll coating, which reduces diffuse reflection through the nanometer optical layer, so that the glass panel has higher transmittance and clarity, and has better anti-glare performance. However, this method causes the coating to be attached to the surface of the panel, which will gradually separate from the panel at high temperature, thereby causing the diffuse reflection effect of the glass panel to deteriorate, i.e., the transmittance and clarity of the glass panel are also reduced. SUMMARY

[0004] The utility model solves the above-mentioned problems of the prior art by providing an anti-glare glass panel.

[0005] The utility model solves the technical problems by adopting the following technical scheme: the anti-glare glass panel includes a panel body, the surface of the panel body has a plurality of micropores formed on the surface of the panel body and integrated, and the surface of the micropores also has an integrated rough structure layer.

[0006] Further improvement, the micropores are obtained by stamping forming method.

[0007] Further improvement, the micropores are filled with nanometer sand.

[0008] Further improvement, the rough structure layer is a concave-convex structure, which is prepared by hydrofluoric acid etching, and the surface roughness is 0.01-0.025 μm.

[0009] Further improvement, the refractive index of the panel body is 1.5-1.52.

[0010] Further improvement, the panel body is immersed in liquid potassium nitrate to form a stress protection layer on the surface of the panel body.

[0011] The utility model has the beneficial effects that:

[0012] The panel body of the utility model is formed with micropores first, then roughened, and finally immersed, which achieves the required transmittance and clarity without worrying about separation from the panel body, and also makes the panel body have good hardness to ensure the durability of the panel body. BRIEF DESCRIPTION OF DRAWINGS

[0013] Figure 1 The utility model discloses a structure schematic diagram. PREFERRED EMBODIMENT

[0014] The utility model will be further explained in connection with the drawings:

[0015] Referring to the drawings: this anti-dazzle glass panel, including panel body 1, the surface of panel body 1 has the micro hole 2 of being shaped on the surface of panel body 1 and being integrated, the surface where micro hole 2 exists also has integrated rough structure layer 3. The principle of the utility model lies in, micro hole 2 is shaped on the surface of panel body 1, and it is obtained by processing equipment, so it can be integrated in panel body, and its effect purpose is consistent with the effect purpose of nanometer optical layer, and when reaching the required transmittance and definition, it also does not need to worry that nanometer optical layer will separate from panel body 1, so that the durability of panel body 1 can be increased, rough structure layer 3 is used to increase the stability and wear resistance of panel body 1, that is, maintain transmittance and definition, and rough structure layer 3 is also directly shaped on panel body 1, forming integration.

[0016] Micro hole 2 is obtained by stamping forming method, micro hole 2 is filled with nanometer sand, and micro hole 2 is realized by precision sand blasting machine, the precision sand blasting machine has the function of shaping micro hole 2 on panel body 1, and fills nanometer sand into micro hole 2 while shaping micro hole 2, and nanometer sand can be used to improve the optical performance of panel body 1, that is, the transmittance and definition can be improved.

[0017] Rough structure layer 3 is a concave-convex structure, the concave-convex structure is prepared by hydrofluoric acid etching, and the surface roughness is 0.01-0.025 μm, the hydrofluoric acid is sprayed on panel body 1 by foamable spray gun, and acts on panel body 1 in the form of foam, compared with the water droplet-shaped liquid sprayed by ordinary straight spray gun, the effect is better, because the coverage area of foam is larger, so it can act more uniformly on panel body 1, so that the structure of rough structure layer 3 is better, and the stability and wear resistance of panel body 1 are improved.

[0018] The refractive index of panel body 1 is 1.5-1.52, which can better focus or disperse light, and can separate different colored light, so as to carry out color correction, and the light propagates in the panel body almost without loss, and is not easy to deform, crack or discolor in high-temperature environment.

[0019] The panel body 1 is soaked in liquid potassium nitrate, so that a stress protection layer 4 is formed on the surface of the panel body 1, and the hardness of the panel body 1 is improved, that is, potassium ions are exchanged with sodium ions by soaking in liquid potassium nitrate, so that a hard stress protection layer 4 is formed on the surface of the panel body 1, the depth of the stress protection layer 4 is greater than or equal to 35 μm, and the bending strength can reach more than 600 MPa, which is more than 5 times the strength of ordinary glass.

[0020] Although the utility model has been illustrated and described by referring to preferred embodiments, it should be understood by those skilled in the art that various changes in form and details can be made within the scope of the claims.

Claims

1. An anti-glare glass panel comprising a panel body (1), characterized in that: The surface of the panel body (1) has a plurality of micro-holes (2) formed on the surface of the panel body (1) and integrated, and the surface where the micro-holes (2) exist also has a rough structure layer (3) integrated.

2. The anti-glare glass panel of claim 1, wherein: The micro-holes (2) are obtained by a punching forming method.

3. The anti-glare glass panel of claim 2, wherein: The micro-holes (2) are filled with nano-sand.

4. The anti-glare glass panel of claim 1, wherein: The rough structure layer (3) is a concave-convex structure, which is prepared by hydrofluoric acid etching, and the surface roughness is 0.01-0.025 μm.

5. The anti-glare glass panel of claim 1, wherein: The refractive index of the panel body (1) is 1.5-1.

52.

6. The anti-glare glass panel of claim 1, wherein: The panel body (1) is soaked in liquid potassium nitrate, so that a stress protection layer (4) is formed on the surface of the panel body (1).

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