Patent classifications
C09K2211/00
METHODS AND SYSTEMS ASSOCIATED WITH LUBRICANT FOR OIL SLURRY
A slurry comprised of paraffinic or aromatic hydrocarbons, a viscosifier, a dry friction reducer polymer, and a lubricant.
POLYMER, MIXTURE AND COMPOUND CONTAINING SAME, AND ORGANIC ELECTRONIC DEVICE AND MONOMER THEREOF
Disclosed are a polymer, and a mixture or a formulation and an organic electronic device containing same, and applications thereof, and further a monomer of which the polymer is made; the polymer comprises on its side chain a repeating structure unit E, characterizing in that its (S1(E)−T1(E))≦0.35 eV or even less, which may allow the said polymer having thermally activated delayed fluorescence (TADF) property. Thus a TADF polymer suitable for printing processes is provided, thereby reducing OLED manufacturing costs.
PHOSPHOR COMPOSITION AND LIGHT EMITTING DEVICE USING THE SAME
The present invention provides a phosphor composition and light emitting device using the same. The phosphor composition includes a first phosphor and a second phosphor, the second phosphor includes Phellodendron extract, Phellodendron extract emits lights with wavelength from 450 nm to 750 nm as it is excited by lights with wavelength from 300 nm to 480 nm. The LED device using the phosphor composition could emit warm white lights with wavelength from 400 nm to 800 nm.
COMPOUND, ORGANIC SEMICONDUCTOR LASER AND METHOD FOR PRODUCING SAME
A compound of the formula (1) exhibits high photoluminescence quantum yields, high radiative decay constant and low ASE thresholds from solution-processed neat and blend films. Ar.sup.1 and Ar.sup.2 are aryl groups, L is a divalent group having a group of the formula (2), and R is H or a diarylamino group. At least one alkyl group having at least five carbon atoms which are bonded is present in the formula (1).
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Polymer, and mixture or formulation, and organic electronic device containing same, and monomer thereof
Disclosed are a polymer, and a mixture or a formulation and an organic electronic device containing same, and applications thereof, and further a monomer of which the polymer is made; the polymer comprises on its side chain a repeating structure unit E, characterizing in that its S1(E)T1(E))0.35 eV or even less, which may allow the said polymer having thermally activated delayed fluorescence (TADF) property. Thus a TADF polymer suitable for printing processes is provided, thereby reducing OLED manufacturing costs.
Phosphor composition and light emitting device using the same
The present invention provides a phosphor composition and light emitting device using the same. The phosphor composition includes a first phosphor and a second phosphor, the second phosphor includes Phellodendron extract, Phellodendron extract emits lights with wavelength from 450 nm to 750 nm as it is excited by lights with wavelength from 300 nm to 480 nm. The LED device using the phosphor composition could emit warm white lights with wavelength from 400 nm to 800 nm.
Nanoemulsion optical materials
There are disclosed nanoemulsion optical materials, methods of making nanoemulsion optical materials and optical articles comprising nanoemulsion optical materials. A nanoemulsion optical material includes a polymer matrix and a plurality of nano-droplets, comprising an optically interactive material, directly dispersed within the polymer matrix.
Hot wall scintillator fabrication of strontium halide, calcium halide, cerium halide, and cesium barium halide scintillators
Strontium halide scintillators, calcium halide scintillators, cerium halide scintillators, cesium barium halide scintillators, and related devices and methods are provided.
NANOEMULSION OPTICAL MATERIALS
There are disclosed nanoemulsion optical materials, methods of making nanoemulsion optical materials and optical articles comprising nanoemulsion optical materials. A nanoemulsion optical material includes a polymer matrix and a plurality of nano-droplets, comprising an optically interactive material, directly dispersed within the polymer matrix.
Method for depositing photoluminescent material
A method of depositing a photoluminescent material into a surface of the polymeric material is disclosed. The method comprises dissolving the photoluminescent material in water to create a solution. The temperature of the solution is then controlled at a predetermined temperature. The surface is contacted by the solution at the predetermined temperature for a predetermined time, thereby infusing the surface with the photoluminescent material. Following the predetermined time, the solution is removed from the surface by rinsing the surface with water.