Low-power-consumption heat insulation and preservation strengthening process of LCD module

A heat insulation and low power consumption technology, which is applied in nonlinear optics, instruments, optics, etc., can solve problems such as poor heat preservation effect, improve heating effect, reduce heating power consumption, and reduce or block heat loss Effect

Active Publication Date: 2016-03-30
NO 55 INST CHINA ELECTRONIC SCI & TECHNOLOGYGROUP CO LTD
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

[0004] The purpose of the present invention is to provide a low-power heat insulation and heat preservation reinforcement process for LCD modules to solve the problem of poor heat preservation effect in the existing optical composite bonding technology

Method used

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  • Low-power-consumption heat insulation and preservation strengthening process of LCD module
  • Low-power-consumption heat insulation and preservation strengthening process of LCD module

Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0021] Such as figure 1 shown.

[0022] A low-power heat insulation and heat preservation reinforcement method for an LCD module. First, a heat preservation groove is processed at each of the four corners of the metal front shell, and the inner surface of the heat preservation groove is frosted to form a frosted surface; the heat preservation groove is 15mm long, 5mm wide, and deep 0.2mm, secondly, prepare an airgel composite thermal insulation felt, the airgel composite thermal insulation blanket is formed by lapping glass fibers with a diameter of 3 μm, and the skeleton gap is evenly filled with airgel particles with a particle size of 100nm. The thermal conductivity of the thermal insulation blanket is 0.024W / m·K; thirdly, the airgel composite thermal insulation blanket is glued to the heat preservation tank by using a thermal insulation coating with hollow glass microspheres as the core.

Embodiment 2

[0024] Such as figure 2 shown.

[0025] A method for reinforcing LCD modules with low power consumption and heat insulation, which is realized by coating a transparent heat insulation and heat preservation optical composite glue 22 with a thickness of 0.2-0.3 mm between a liquid crystal display screen 21 and a glass 23 . The transparent thermal insulation optical composite glue 22 is made of nano SiO 2 Composed of airgel slurry, water-based acrylate resin, dispersant, initiator and other fillers, the mass percentages of each component are: nano-SiO 2 Airgel slurry 15%~25%, water-based acrylate resin 60%~75%, dispersant 2%~5%, initiator 1%~5%, other fillers 1%~3%, the sum of each component 100%; the nano-SiO 2 The airgel slurry mainly includes 60%~80% tetraethyl orthosilicate silica sol, 5%~10% infrared opacifying agent, 5%~20% reinforcing fiber; the infrared opacifying agent is based on alcohol Indium tin oxide ITO nano alcohol paste or ITO and TiO as dispersant 2 Nano-c...

Embodiment 3

[0028] refer to figure 1 , a low-power heat insulation and heat preservation reinforcement method for an LCD module. At first, a heat preservation groove is processed at each of the four corners of the metal front shell, and the inner surface of the heat preservation groove is frosted to form a frosted surface; the length of the heat preservation groove is 15mm, and the width is 5mm. The depth is 0.2mm. Secondly, the airgel composite thermal insulation blanket is prepared. The airgel composite thermal insulation blanket is formed by lapping glass fibers with a diameter of 3 μm. , the thermal conductivity of the thermal insulation blanket is 0.024W / m·K; third, the airgel composite thermal insulation blanket is glued to the heat preservation tank by using the thermal insulation coating with hollow glass microspheres as the core; finally, in A layer of transparent heat-insulating optical composite glue with a thickness of 0.2~0.3mm is coated between the liquid crystal screen and ...

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Abstract

Provided is a low-power-consumption heat insulation and preservation strengthening process of an LCD module. The low-power-consumption heat insulation and preservation strengthening process is characterized in that the aim of local heat preservation of the module is achieved through the combined action of heat preservation grooves in a front shell of a metal structure and transparent heat insulation and preservation optical composite glue. The heat preservation grooves are located in the four corners of the front metal shell, the inner surfaces of the grooves are frosted surfaces, heat preservation materials are pasted in the grooves, and the heat conductivity is smaller than 0.03 W / m.K. The transparent heat insulation and preservation optical composite glue is prepared from nano SiO2 aerogel slurry, water-based acrylate resin, a dispersing agent, an initiator, other filter and the like. The heat conductivity of the transparent heat insulation and preservation optical composite glue is smaller than 0.09 W / m.K, and the light transmissivity of the transparent heat insulation and preservation optical composite glue is larger than 97%. According to the process, the display quality of the module at low temperature can be improved, low temperature power consumption can be reduced, and the low temperature failure occurrence rate can be lowered.

Description

technical field [0001] The invention relates to a liquid crystal display technology, in particular to a technology for reinforcing a liquid crystal display in a low temperature state, in particular to a low power consumption heat insulation and heat preservation reinforcement process for an LCD module. Background technique [0002] Thin film transistor liquid crystal display (TFT-LCD) needs to have the function of displaying at extremely low temperature in some special cases. The existing technology mainly expands the lower temperature limit of low-temperature work by installing a convenient and reliable heating system. Two heating schemes are mostly used: ITO transparent heating sheet technology and front screen glass and rear heating film co-heating technology. At present, the general-purpose heating film is a light-transmitting, heat-conducting, and electrically-conducting material with a certain resistivity. ITO is coated on a transparent heating sheet and then closely a...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): G02F1/1333G02F1/13
CPCG02F1/1303G02F1/133382
Inventor 王璐王绪丰樊卫华杨斌吴金华李忠良张小芸徐飞
Owner NO 55 INST CHINA ELECTRONIC SCI & TECHNOLOGYGROUP CO LTD
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