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Processing method of high-intensity explosion-proof glass

A technology of explosion-proof glass and processing method, which is applied in the processing field of glass, can solve the problems of user injury, insufficient safety performance, easy breakage, etc., and achieve the effects of improving mechanical resistance, avoiding explosion, and improving surface impact resistance.

Inactive Publication Date: 2018-12-11
DONGGUAN TAISHENG GLASS CO LTD
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

In the prior art, the tempering operation is mainly performed on the glass. Although the tempered glass has increased hardness and can withstand greater pressure, it is brittle and is easily broken when it is impacted by high pressure. The tempered glass is broken. Although countless small fragments will be formed immediately, under a strong impact, if the small fragments burst out, it is easy to cause harm to the user, and the safety performance is not high enough.

Method used

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  • Processing method of high-intensity explosion-proof glass
  • Processing method of high-intensity explosion-proof glass

Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0039] Embodiment one, comprises the following steps:

[0040] A, prepare two glass substrates, the thickness of the glass substrates is 2mm, each glass substrate is ultrasonically cleaned and heated and dried;

[0041] B. Evaporate graphene on both surfaces of each glass substrate to form reinforcement layers on both sides;

[0042] C. Sputtering titanium dioxide on one of the reinforcing layers of each glass substrate to form an anti-fouling and heat-insulating layer;

[0043] D. Put two glass substrates into the heating furnace, heat at 500°C for 1.5h, then raise the temperature to 650°C for 0.5h, then cool down to 35°C at 9°C / min;

[0044] E. Evenly print UV glue on the reinforcement layer on the side away from the anti-pollution heat insulation layer of each glass substrate, and then cure the UV glue through a UV curing lamp to form a number of unconnected buffer bumps;

[0045] F. Place two glass substrates in parallel, set the buffer bumps of the two glass substrates ...

Embodiment 2

[0048] Embodiment two, comprises the following steps:

[0049] A, prepare two glass substrates, the thickness of the glass substrates is 2mm, each glass substrate is ultrasonically cleaned and heated and dried;

[0050] B. Evaporate graphene on both surfaces of each glass substrate to form reinforcement layers on both sides;

[0051] C. Sputtering titanium dioxide and indium tin oxide on one of the reinforcement layers of each glass substrate to form an anti-pollution and heat insulation layer, the mass ratio of carbon dioxide to indium tin oxide is 1:1;

[0052]D. Put two glass substrates into the heating furnace, heat at 520°C for 1.8h, then raise the temperature to 670°C for 0.8h, then cool down to 40°C at 8°C / min;

[0053] E. Evenly print UV glue on the reinforcement layer on the side away from the anti-pollution heat insulation layer of each glass substrate, and then cure the UV glue through a UV curing lamp to form a number of disconnected buffer bumps;

[0054] F. Pla...

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Abstract

The invention provides a processing method of high-intensity explosion-proof glass. The method comprises the following steps of covering graphene onto the two surfaces of a glass base plate to form areinforcing layer; covering an anti-stain heat isolation material on one reinforcing layer of the glass base plate to form an anti-stain heat isolation layer; putting the two glass base plates into aheating furnace; performing uniform point printing of UV glue onto the reinforcing layer at one side, far away from the anti-stain heat isolation layer, of the glass base plate; parallelly putting thetwo glass base plates; enabling buffer convex blocks of the two glass base plates to be in butted arrangement; performing peripheral edge sealing between the two glass base plates through PVB glue; inflating inert gas into a cavity; stopping the inflation into the cavity when the air pressure in the cavity is higher than 130 kPa; extracting air in the cavity until the air pressure in the cavity is lower than 70kPa; The graphene layer structure capable of enhancing the toughness is arranged at the two sides of the glass base plate; the surface anti-impact performance of the glass base plate can be effectively improved; the infrared radiation can be effectively reflected through the oil-stain-resistant heat isolation layer structure.

Description

technical field [0001] The invention relates to the field of glass processing and specifically discloses a processing method for high-strength explosion-proof glass. Background technique [0002] Glass is an amorphous inorganic non-metallic material. It is generally made of a variety of inorganic minerals as the main raw material and a small amount of auxiliary raw materials. Its main components are silicon dioxide and other oxides. Glass is widely used in automotive, construction, industrial and other fields. [0003] With the continuous improvement of people's quality of life, the performance requirements for glass are also continuously improved. In production and life, glass plate mainly plays the role of partition and interface, so people have higher and higher requirements for the mechanical strength and explosion-proof performance of glass. In the prior art, the tempering operation is mainly performed on the glass. Although the tempered glass has increased hardness a...

Claims

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Application Information

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IPC IPC(8): C03C27/10C03C17/34
CPCC03C17/3441C03C27/10
Inventor 许长松
Owner DONGGUAN TAISHENG GLASS CO LTD
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