CN203048800U - Low-refractive-index titanium dioxide antireflection and lighting transmitting enhancement type lighting lamp coated glass - Google Patents

Low-refractive-index titanium dioxide antireflection and lighting transmitting enhancement type lighting lamp coated glass Download PDF

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CN203048800U
CN203048800U CN 201220466894 CN201220466894U CN203048800U CN 203048800 U CN203048800 U CN 203048800U CN 201220466894 CN201220466894 CN 201220466894 CN 201220466894 U CN201220466894 U CN 201220466894U CN 203048800 U CN203048800 U CN 203048800U
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low
titanium dioxide
refractive
lighting
glass
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CN 201220466894
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赖文贤
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The new technology (China) Co. Ltd.
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New Material Technology (suzhou) Co Ltd
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Abstract

The utility model discloses low-refractive-index titanium dioxide antireflection and lighting transmitting enhancement type lighting lamp coated glass. A porous titanium dioxide coating film on the surface of a lighting lamp has a low refractive index characteristic. According to the principle, the air refractive index is 1, a low-refractive-index material can be obtained by forming the titanium dioxide coating film in a porous structure by adopting a synthetic technique of low-refractive-index titanium dioxide sol, wherein the refractive index at a hole is a proportion combination of the air refractive index being 1 and the refractive index of the low-refractive-index material. The glass has the advantages of antireflection and lighting transmitting enhancement, has relatively good ageing resistance, and has a photocatalytic effect of a photocatalyst, and the lighting lightness of the lighting lamp glass can be greatly improved.

Description

The antireflective of a kind of low-refraction titanium dioxide is anti-reflection optical illumination light fixture coated glass
Technical field
The utility model relates to light fixture coating technique field, particularly relates to a kind of surface through the anti-reflection optical illumination fitting glass of the antireflective of low-refraction TiO 2 sol coating film treatment.
Background technology
Head light is the indispensable daily necessities during people live.At present, the head light that occurs on market and the data mainly by lamp housing, be arranged at the twinkler in the lamp housing and the lampshade that is connected with lamp housing, lampshade is provided with the light penetrating object that the light source for twinkler sees through, usually, light penetrating object is the glass of individual layer, and is in use, even inadequately by the light source that the single-glass body sees through, cause dazzle easily, influenced illuminating effect.
Titanium deoxid film has the high characteristic of specific refractory power, and wherein rutile-type crystallization specific refractory power is about 2.71, and anatase titanium dioxide crystallization specific refractory power is about 2.55, and therefore, titanium deoxid film has bigger reflection and the ability of scattered light.
When incident light passes through the glass surface plated film, there are refraction and reflection to produce, when the light of refraction arrives at glass interface, also have refraction and reflection.The second road reflected light R2 has walked coatings thickness distance twice than the first road reflected light R1 more.The optical thickness of supposing plated film is d, and then the path difference of R1 and R2 is 2d, and when path difference 2d equals the odd-multiple of half wavelength, the catoptrical phase differential of twice will be 180 °, produces destruction interference and cancels each other.From law of conservation of energy, reducing reflected light then can increase and penetrate light.So when the optical thickness of plated film was 1/4th odd-multiple of optical wavelength, the reflection of light rate convergence that just can make its wavelength was zero.Fixedly the thickness of plated film can only be to the light generation interference effect of fixed wave length to one, and the light that is different from this wavelength has higher reflectivity.Except the thickness of plated film, the material of plated film also is very important, the desirable specific refractory power of film N=
Figure DEST_PATH_IMAGE001
, wherein NairBe air refraction, NglassBe glass refraction.
The way of antireflection film is divided into two big classes, and the 1st class is to form multilayered structure with the mutual storehouse of the material of different refractivity together, or by the thickness of control storehouse and the specific refractory power of material.Differ quarter-wave light wave when bumping together when two, will produce complete destruction interference, the light of reflection is offseted.Therefore, if the gauge control of plated film at 1/4th of visible wavelength, can reach anti-reflective effect.The 2nd big class is called low-reflection film, when light during by the air admission glass substrate, the specific refractory power of known air ( Nair=1) and the specific refractory power of glass ( Nglass=1.52), reflect from air and substrate interface, then the reflection that causes of double-sided glass approximately is 7 ~ 8%.
Cellular structure low-refraction antireflective TiO 2 coating film has lower refractive index characteristic, its principle is 1 because of the specific refractory power of air, the method of wanting to obtain than low-index material can be made vesicular structure to material, and the specific refractory power at hole place then is the ratio combination of the specific refractory power of the specific refractory power 1 of air and the material that uses.
Because the technical products of the anti-reflection optical illumination light fixture of low-refraction titanium dioxide antireflective coated glass is not arranged as yet, and the low-refraction titanium deoxid film is that an important technology is broken through in the antireflective Application Areas, therefore, developing the anti-reflection optical illumination light fixture of low-refraction titanium dioxide antireflective coated glass is main purpose of the present utility model.
The utility model content
The technical problem that the utility model mainly solves provides the anti-reflection optical illumination light fixture of a kind of low-refraction titanium dioxide antireflective coated glass, the characteristics that can have antireflective and anti-reflection light, better anti-aging property is arranged, the photochemical catalysis usefulness of tool photocatalyst can promote lighting glass illumination lightness greatly.
For solving the problems of the technologies described above, the technical scheme that the utility model adopts is: the anti-reflection optical illumination light fixture of a kind of low-refraction titanium dioxide antireflective coated glass is provided, comprises glass body, described glass body is covered with TiO 2 coating film on the surface.
Preferably, described TiO 2 coating film is low-refraction titanium oxide antireflective plated film.
Preferably, described low-refraction TiO 2 sol synthesizes in glass body surface formation film.
Preferably, described film thickness is 100~200nm.
Owing to adopted technical scheme as above, the utlity model has following advantage:
1, the utility model lighting coated glass, its TiO 2 coating film layer has the characteristics of antireflective and anti-reflection light.
2, the utility model low-refraction titanium dioxide antireflective lighting coated glass has better anti-aging property.
3, the utility model low-refraction titanium dioxide antireflective lighting coated glass, wherein titanium dioxide contains the anatase titanium dioxide crystal formation, so the photochemical catalysis usefulness of tool photocatalyst can promote lighting glass illumination lightness greatly.
Description of drawings
Fig. 1 is the structural representation of the anti-reflection optical illumination light fixture of a kind of low-refraction titanium dioxide of the utility model antireflective coated glass;
Fig. 2 is the light transmission rate spectrogram of the anti-reflection optical illumination light fixture of a kind of low-refraction titanium dioxide of the utility model antireflective coated glass.
Embodiment
Below in conjunction with accompanying drawing preferred embodiment of the present utility model is described in detail, thereby so that advantage of the present utility model and feature can be easier to be it will be appreciated by those skilled in the art that protection domain of the present utility model is made more explicit defining.
The utility model embodiment comprises:
Referring to Fig. 1, the antireflective of a kind of low-refraction titanium dioxide is anti-reflection optical illumination light fixture coated glass, comprise by lighting glass 1 and low-refraction titanium dioxide antireflective plated film 2, substrate surface at lighting glass 1 is coated with one deck low-refraction TiO 2 sol, can form the anti-reflection smooth plated film of one deck low-refraction titanium dioxide antireflective in the lighting glass surface after this coating drying is solidified, the anti-reflection smooth plated film of this low-refraction titanium dioxide antireflective and lighting glass form imporosity.
Before the coating, through cleaning surfaces program cleaning lighting glass baseplate 1, apply one deck low-refraction TiO 2 sol 2 more earlier.
During coating, the control of the build of the antireflective of low-refraction titanium dioxide is anti-reflection smooth plated film 2 is at 100~200nm.
Embodiment 1:
In reactive tank, add 10 kilograms of deionized waters, get in the titanium tetrachloride 500 gram adding reactive tanks and dilute, form the titanium tetrachloride aqueous solution of about concentration 5%, slowly adding the oxyhydroxide precipitate that carries out neutralization reaction and adularescent titanium with ammoniacal liquor separates out, keep to stir continue observe pH value and change, stopped to add ammoniacal liquor at 7.0 o'clock to pH value.After above-mentioned precipitate cleaned purifying after filtration, forming white filter cake is about 300 grams of oxyhydroxide of titanium, the oxyhydroxide of titanium is inserted in the dispersion slot, add 50% concentration hydrogen peroxide, 878 grams and keep stirring fully reaction, add 2.07 kilograms of tetramethylsilanes in this dispersion liquid and fully stirring, add in this dispersion liquid the oxalic acid of 180 grams and fully stirring, with keeping stirring in about 95 kilograms of these dispersion liquids of adding of pure water the oxyhydroxide of titanium is fully disperseed, the dispersion liquid temperature is heated to 55 ℃, is keeping the lasting ageing of this temperature to be the low-refraction TiO 2 sol after 48 hours.
It is 91.5% lighting glass baseplate surface that above-mentioned TiO 2 sol is coated on average visible light penetration coefficient with spraying method, and with 500 ℃ of hot setting films 5 minutes, can form an average visible light penetration coefficient is 93.1% coating, detect its crystallization shape of this thin-film material with the X ray diffractometer and contain sharp titanium shape, detecting its specific refractory power of this film with elliptic polarization spectrometer is 1.48, much smaller than the specific refractory power 2.55 of pure anatase titanium dioxide, survey the about 103nm of this film thickness.
Embodiment 2:
In reactive tank, add 10 kilograms of deionized waters, get in 5.5 kilograms of addings of titanium tetrachloride reactive tank and dilute, form the titanium tetrachloride aqueous solution of about concentration 35%, slowly the oxyhydroxide precipitate that adds neutralization and adularescent titanium with aqueous sodium hydroxide solution is separated out, keep to stir continue observe pH value and change, stopped to add aqueous sodium hydroxide solution at 9.0 o'clock to pH value.After above-mentioned precipitate cleaned purifying after filtration, about 3.3 kilograms of the oxyhydroxide of formation titanium, filter cake is inserted in the dispersion slot, add 44.872 kilograms of potassium permanganate solutions in this dispersion liquid and fully stirring, add 118.38 kilograms of tetraethyl silanes in this dispersion liquid and fully stirring, add 11.368 kilograms phosphoric acid in this dispersion liquid and fully stirring, with keeping stirring in about 5220 kilograms of these dispersion liquids of adding of pure water the oxyhydroxide of titanium is fully disperseed, the dispersion liquid temperature is heated to 95 ℃, is keeping the lasting ageing of this temperature to be the low-refraction TiO 2 sol after 4 hours.
It is 91.5% lighting glass baseplate surface that above-mentioned TiO 2 sol is coated on average visible light penetration coefficient with crystal pulling method, and with 800 ℃ of hot setting films 2 minutes, can form an average visible light penetration coefficient is 96.8% coating, detect its crystallization shape of this thin-film material with the X ray diffractometer and contain sharp titanium shape, detecting its specific refractory power of this film with elliptic polarization spectrometer is 1.33, much smaller than the specific refractory power 2.55 of pure anatase titanium dioxide, survey the about 197nm of this film thickness.
Embodiment three:
In reactive tank, add 9 kilograms of deionized waters, get in 2.5 kilograms of addings of titanium sulfate reactive tank and dilute, form the titanium sulfate aqueous solution of about concentration 20%, slowly the oxyhydroxide precipitate that adds neutralization and adularescent titanium with potassium hydroxide aqueous solution is separated out, keep to stir continue observe pH value and change, stopped to add aqueous sodium hydroxide solution at 9.0 o'clock to pH value.After above-mentioned precipitate cleaned purifying after filtration, about 1.2 kilograms of the oxyhydroxide of formation titanium, the oxyhydroxide of titanium is inserted in the dispersion slot, add 6.936 kilograms of concentration 50% aqueous hydrogen peroxide solutions in this dispersion liquid and fully stirring, add 29.43 kilograms of tetraallyl silane in this dispersion liquid and fully stirring, add 31.11 kilograms TPAOH in this dispersion liquid and fully stirring, with keeping stirring in about 1495 kilograms of these dispersion liquids of adding of pure water the oxyhydroxide of titanium is fully disperseed, the dispersion liquid temperature is heated to 75 ℃, is keeping the lasting ageing of this temperature to be the low-refraction TiO 2 sol after 24 hours.
It is 91.5% lighting glass baseplate surface that above-mentioned TiO 2 sol is coated on average visible light penetration coefficient with roller painting, and with 300 ℃ of hot setting films 1 hour, can form an average visible light penetration coefficient is 94.1% coating, detect its crystallization shape of this thin-film material with the X ray diffractometer and contain sharp titanium shape, detecting its specific refractory power of this film with elliptic polarization spectrometer is 1.41, much smaller than the specific refractory power 2.55 of pure anatase titanium dioxide, survey the about 148nm of this film thickness.
Owing to adopted technical scheme as above, the utlity model has following advantage:
1, the utility model lighting coated glass, its TiO 2 coating film layer has the characteristics of antireflective and anti-reflection light.
2, the utility model low-refraction titanium dioxide antireflective lighting coated glass has better anti-aging property.
3, the utility model low-refraction titanium dioxide antireflective lighting coated glass, wherein titanium dioxide contains the anatase titanium dioxide crystal formation, so the photochemical catalysis usefulness of tool photocatalyst can promote lighting glass illumination lightness greatly.
The above only is embodiment of the present utility model; be not so limit claim of the present utility model; every equivalent structure or equivalent flow process conversion that utilizes the utility model specification sheets and accompanying drawing content to do; or directly or indirectly be used in other relevant technical fields, all in like manner be included in the scope of patent protection of the present utility model.

Claims (4)

1. the anti-reflection optical illumination light fixture of low-refraction titanium dioxide antireflective coated glass, it is characterized in that: comprise glass body, described glass body is covered with TiO 2 coating film on the surface.
2. the anti-reflection optical illumination light fixture of a kind of low-refraction titanium dioxide according to claim 1 antireflective coated glass, it is characterized in that: described TiO 2 coating film is low-refraction titanium oxide antireflective plated film.
3. the anti-reflection optical illumination light fixture of a kind of low-refraction titanium dioxide according to claim 2 antireflective coated glass is characterized in that: described low-refraction TiO 2 sol synthesizes in the glass body surface and forms film.
4. the anti-reflection optical illumination light fixture of a kind of low-refraction titanium dioxide according to claim 3 antireflective coated glass, it is characterized in that: described film thickness is 100~200nm.
CN 201220466894 2012-09-14 2012-09-14 Low-refractive-index titanium dioxide antireflection and lighting transmitting enhancement type lighting lamp coated glass Expired - Fee Related CN203048800U (en)

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Address after: 215127 Wuzhong District City, Jiangsu province Luzhi Town Economic Development Zone

Patentee after: The new technology (China) Co. Ltd.

Address before: Wuzhong District Luzhi town of Suzhou city Jiangsu province 215127 Fu Cheng Road No. 666 quanyao new material technology (Suzhou) Co., Ltd.

Patentee before: New material technology (Suzhou) Co., Ltd.

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Granted publication date: 20130710

Termination date: 20170914

CF01 Termination of patent right due to non-payment of annual fee