172results about How to "Improve color reproducibility" patented technology

A photoelectric conversion device comprising: an inorganic photoelectric conversion film; and an organic photoelectric conversion film, wherein an insulating film between the inorganic photoelectric conversion film and the organic photoelectric conversion film has a thickness of from 1 to 6 μm, wherein the organic photoelectric conversion film has a multilayer structure comprising four or more layers, or wherein a protective film having a multilayer structure comprising three or more layers is provided on the organic photoelectric conversion film.

An imaging apparatus for imaging an image using a solid-state image pickup device includes a first linear matrix operation unit configured to perform matrix conversion upon a color component of an image signal obtained by imaging using coefficients capable of improving color reproducibility; a second linear matrix operation unit configured to perform matrix conversion upon the color component using coefficients capable of achieving noise component reduction; a signal combining unit configured to combine image signals output from a plurality of signal processing systems each of which includes one of the first or second linear matrix operation units; and a combination ratio setting unit configured to set a combination ratio so that, when a subject is bright, an image signal output from the signal processing system that includes the first linear matrix operation unit can be combined in an amount larger than the image signals output from the other signal processing systems.

It is an object of the present invention to provide a display device that can improve the color reproductivity on a displayed image and improve the display quality. A liquid crystal display device (1) is provided with a backlight device (3) and a liquid crystal panel (2) configured to have capability of color display of information by using illumination light from the backlight device (3). The backlight device (3) has a plurality of illumination areas (Ha) with respect to a plurality of display areas provided on the liquid crystal panel (2), and light-emitting diodes (light sources) of RGB (8r, 8g, 8b) mixable with white light are provided for each illumination area (Ha). Its control part is provided with a backlight control part that determines for each of the light sources a luminance value of light emitted from each of the plural illumination areas (Ha) to a corresponding display area by using an inputted picture signal and that controls the drive of a backlight part, so that an area active backlight drive is carried out. The light-emitting diodes (light sources) of RGB (8r, 8g, 8b) have offset luminances that are set independently from each other.

An organic light emitting device includes first, second, and third pixels each displaying a different color. Each pixel includes a first electrode, a second electrode facing the first electrode, and an emission layer between the first and second electrodes. The first electrodes of the first and second pixels respectively include a first transparent conductive layer and a translucent conductive layer disposed on at least one of lower and upper portions of the first transparent conductive layer and forming microcavities together with the second electrodes, and the first electrode of the third pixel includes a second transparent conductive layer that is different from the first transparent conductive layer and a translucent conductive layer disposed on at least one of upper and lower portions of the second transparent conductive layer and forming a microcavity together with the second electrode.

A toner is provided including a colorant; a first binder resin; and a second binder resin, wherein an amount of the first binder resin and an amount of the second binder resin are phase separated from each other in the toner, and wherein a phase of the first binder resin is partially or completely covered with a phase of the second binder resin; and a method of preparing the toner, and a developer, an image forming method, an image forming apparatus, and a process cartridge using the toner.

An image photographing apparatus, method and medium that can enhance color reproducibility and sensitivity. The image photographing apparatus includes a filter unit having a first filter region to pass at least one band of an incident light signal corresponding to a complementary color of a first color, and a second filter region to pass all bands of the incident light signal, wherein the first filter region and the second filter region are each formed in one of two adjacent pixels, and an image sensor unit to sense an image from the incident light signal that passes through the filter unit, the image sensor unit including a plurality of photoelectric conversion layers each having a different spectral sensitivity.

A method of driving a display panel is provided. The display panel includes a first scan group including first to third scan lines, and a plurality of data lines which intersect the first to third scan lines, and first display cells of a first color which are connected with the first scan line, second display cells of a second color which are connected with the second scan line, third display cells of a third color which are connected with the third scan line. The method is achieved by precharging the data lines to a predetermined voltage in a first horizontal period; and by supplying a data signal to the first to third display cells through the data lines driving of the first to third display cells after the data lines are precharged in the first horizontal period. In the driving of the first to third display cells, one of the first to third display cells corresponding to one of said first to third colors, having a maximum spectral luminous efficacy, is first driven.

An organic light emitting diode display panel includes a transparent substrate on which a matrix array of pixels is formed with each pixel including an organic light emitting diode (OLED). The OLEDS include light emitting regions sandwiched between pixel electrodes or anodes made of transparent conductive material and a common electrode made of a conductive material. The refractive index of the pixel electrodes is higher than the refractive index of the insulating layer on which the pixel electrodes are disposed so that light undergoes multiple reflections at the interface between the pixel electrodes and the insulating layer and also at the interface between the light emitting regions and the common electrode. The thickness of the pixel electrodes is chosen so that light that eventually exits the pixel electrodes after multiple reflections contains a relatively strong component of a chosen primary color.

Provided is a liquid crystal display device in which color reproducibility and brightness are improved. The liquid crystal display device includes a backlight that emits unpolarized blue light, a quantum rod layer which is provided on an emission side of the backlight and converts some of blue light to red linearly polarized light and green linearly polarized light using multiple quantum rods, a reflective polarizing layer which is provided on a side from which the red linearly polarized light and the green linearly polarized light of the quantum rod layer are emitted, and a liquid crystal panel disposed on a blue linearly polarized light emission side of the reflective polarizing layer, and a long axis direction of the quantum rods in the quantum rod layer and a polarization direction of the blue linearly polarized light emitted from the reflective polarizing layer are parallel to each other.

A light emitting diode (LED) package includes: an LED; a stack structure including a light-scattering structure spaced apart from the LED, and a light conversion layer disposed on at least one surface selected from an inner surface and an outer surface of the light-scattering structure and configured to convert light emitted from the LED into white light, wherein the light conversion layer includes a semiconductor nanocrystal; and an organic barrier layer disposed on a surface of the light conversion layer.

Disclosed is a nanocomposite. The nanocomposite includes a wax particle, at least one nano light-emitting body positioned inside the wax particle, and a silicon oxide protective layer for coating the nano light-emitting body. The nanocomposite can improve light stability and heat / moisture stability of the nano light-emitting body.

A light source device includes a wavelength conversion element adapted to emit a second light in a first wavelength range due to irradiation of a first light, and a wavelength separation element to which the second light is input, and the wavelength separation element generates a third light reduced in light intensity of a component in a second wavelength range among a component in the first wavelength range compared to the second light.

Disclosed herein is a solid-state image pickup device, including: a first pixel for receiving a visible light of an incident light to subject the visible light to photoelectric conversion; a second pixel for receiving the visible light and a near-infrared light of the incident light to subject each of the visible light and the near-infrared light to the photoelectric conversion; a color filter layer; and an infrared light filter layer for absorbing or reflecting an infrared light, and transmitting the visible light.

There is provided a light emitting module including: a circuit board; at least one light source part disposed on the circuit board; a wavelength conversion part coupled with the circuit board, the wavelength conversion part covering alight emitting surface of the light source part and converting a wavelength of light; and a coupling part coupling the wavelength conversion part to the circuit board.

An optical filter includes a coloring matter which has an absorption peak in a wavelength range of 570 to 600nm. The optical filter is mounted in the front of a PDP. The spectrums of the PDP shall be corrected by the filter, so that the PDP can be improved in color purity and color reproducibility.

An inkjet recording apparatus includes: a treatment liquid deposition device which deposits a treatment liquid insolubilizing or aggregating inks of a plurality of colors, onto a recording medium; a recording head which has a plurality of nozzles ejecting the inks onto the recording medium on which the treatment liquid has been deposited; a data acquisition device which acquires density data of an image with respect to each color, the density data corresponding to the plurality of colors; a higher-order color correction device which corrects the density data, wherein when the inks of different colors are ejected in ejection order so that a preceding ink ejected precedingly to form a lower layer and a subsequent ink ejected subsequently to form an upper layer overlap each other, the higher-order color correction device corrects the density data for a nozzle ejecting the subsequent ink according to the density data for a nozzle ejecting the preceding ink; and an ejection controller which controls ejection of the inks from the recording head according to the density data that the higher-order color correction device has corrected in such a manner that the image is formed on the recording medium.

The ink composition for ink jet textile printing according to the invention is an ink composition which includes each dye satisfying the following conditions A, B, and C, two or more kinds of solvent having a boiling point of 190° C. or higher and lower than 260° C. under a pressure of 1 atm, and water, in which the solvent includes 5% by mass or greater of a nitrogen-containing heterocyclic compound with respect to the total mass of the ink composition and 5% by mass or greater of an alkyl polyol with respect to the total mass of the ink composition.A: Maximum absorption wavelength is in a range of 550 nm and 750 nmB: Maximum absorption wavelength is in a range of 450 nm or greater and less than 500 nmC: Maximum absorption wavelength is in a range of 400 nm or greater and less than 450 nm

The invention relates to yellow phosphor with a red wavelength region thereof reinforced and a white light emitting device incorporating the same. The yellow phosphor has a formula of Mx(Al, Ga)5O12:Cey,Euz, in which M is at least one selected from a group consisting of Tb, Y, Gd, La and Sm, where 2.4≦x≦2.998, 0.001≦y≦0.3 and 0.001≦z≦0.3.

A liquid crystal display device includes a backlight that emits unpolarized blue light, a reflective polarizing layer which is provided on an emission side of the backlight and converts blue light to linearly polarized light, a quantum rod layer which is provided on a blue linearly polarized light emission side of the reflective polarizing layer and converts blue linearly polarized light to red linearly polarized light and green linearly polarized light using multiple quantum rods, and a liquid crystal panel disposed on a red linearly polarized light and green linearly polarized light emission side. In the quantum rod layer, a polarization direction of the blue linearly polarized light emitted from the reflective polarizing layer and a long axis direction of the quantum rods are parallel to each other.

The ink set includes a yellow ink composition and either a magenta ink composition or a cyan ink composition, or both, wherein a coloring agent of the yellow ink composition is one which includes an azo pigment represented e.g. by the following formulaor its tautomers or their salts or hydrates, the magenta ink composition contains as a coloring agent at least one pigment selected from the following: C.I. Pigment Violet 19, C.I. Pigment Red 122, C.I. Pigment Red 202 and C.I. Pigment Red 209, and the cyan ink composition contains as a coloring agent at least one pigment selected from the following: C.I. Pigment blue 15:1, C.I. Pigment Blue 15:2, C.I. Pigment Blue 15:3, C.I. Pigment Blue 15:4 and C.I. Pigment Blue 15:6.

A liquid crystal display according to an exemplary embodiment of the inventive concept includes a display panel and a color conversion panel disposed on the display panel, in which the color conversion panel includes a color conversion media layer and a scattering layer including a scatterer and at least one of a pigment and a dye adsorbed on the scatterer.

An organic light emitting diode (“OLED”) display includes first to third pixels each displaying a different color, wherein each pixel includes a first electrode, a second electrode facing the first electrode, and an emission layer positioned between the first and second electrodes, wherein first electrodes of first and second pixels are a single layer including a conductive oxide, respectively. A first electrode of the third pixel includes a lower first electrode including a conductive oxide, an intermediate first electrode formed on the lower first electrode and including a semitransparent conductor which forms microcavities with the second electrode, and an upper first electrode formed on the intermediate first electrode and including a conductive oxide. A method for manufacturing the OLED is also disclosed.

According to a color imaging element and an imaging device of the present invention, because one or more pixels of first filters corresponding to transparence are disposed within a pixel line of each direction of a first direction to a fourth direction of a color filter array, it is possible to acquire brightness information in a high frequency range with high precision and reduce occurrence of a false color (color moire), thereby obtaining image data with excellent resolution. Further, because one or more pixels of the first filters corresponding to transparence are disposed within the pixel line of each direction of the first direction to the fourth direction, it is possible to realize color filters with excellent optical sensitivity.

A color substrate and a display device including the same. The color substrate includes: a substrate including first and second pixel regions spaced apart from each other, and a light shielding region between the first and second pixel regions; a first color conversion layer over the first pixel region and configured to convert incident light into first color light; a second color conversion layer over the second pixel region and configured to convert the incident light into second color light; and a retroreflective layer over the light shielding region and configured to retroreflect incident light through the first and second color conversion layer.

The invention discloses an inorganic colorful electrolysis coloring technology for an aluminium profile anodic oxide film, which is characterized by comprising the following working procedures of: removing oil, etching by alkaline, oxidizing an anode, carrying out intermediate treatment and electrolysis coloring, and sealing holes, wherein the intermediate treatment working procedure is set between the working procedures of oxidizing an anode and electrolysis coloring and comprises three steps: a. DC (Direct Current) section: setting a supply voltage into a direct-current output mode, cleaning the micropores of the anodic oxide film, and reducing the thickness of a barrier layer, wherein a voltage value is 8-14V, and time is 20-50 seconds; b. AC (Alternating Current) section: setting the supply voltage into an alternating-current output mode, and generating a second layer of oxide film in the anodic oxide film; c. DC section: switching the supply voltage to the direct-current output mode, generating a third layer of film on the basis of the second layer of oxide film, wherein the voltage value is 10-20V, and operation time is controlled to 60-500s. According to the inorganic colorful electrolysis coloring technology, the existing electrolysis coloring equipment can be utilized to finish the full-color colorful electrolysis coloring aluminium or aluminium alloy in short time, and the inorganic colorful electrolysis coloring technology has the advantages of low production cost and good coloring quality.

The invention discloses a dyeing and finishing processing technique of memory T400 fabric based on a biological based material. The technique sequentially includes: pretreating, dyeing and shaping; the pretreating process sequentially includes: first-time open-width desizing, cold pad-batching and second-time open-width desizing, and a dyeing agent adopted in the dyeing process is composed of a dyeing aid and dye which is disperse dye; the dyeing process utilizes a high-temperature high-pressure liquid flow dyeing machine for dyeing, and the dyeing aid and the disperse dye are started to be injected respectively when temperature of a dyeing vat of the dyeing machine reaches 45 DEG C; the shaping process utilizes shaping treatment liquid to shape fabric greige cloth after being dyed througha shaping machine. By formulating proper pretreating, dyeing and shaping processes, processed fabric is enabled to be free of defects like crepe mark and scratch while dyeing quality is ensured, andthe fabric is endowed with high elasticity, memorability and additional functional function.

The present invention provides a highly practicable color purity improving sheet that while preventing unevenness in color and brightness from occurring, allows light with an improved color purity to be used for an image display efficiently and can improve color reproducibility of the image display. The color purity improving sheet includes a light-emitting layer which improves the purity of a color in a target wavelength range by absorbing light in a specific wavelength range other than the target wavelength range and converts the absorbed light to emitted light in the target wavelength range. The surface of the light-emitting layer on at least the light outgoing side is roughened so as to have an arithmetic average surface roughness Ra defined in JIS B 0601 (1994 version) in the range of 0.1 to 100 mum.

The invention provides a colored composition for color filter, capable of forming color filter with high contrast, good dispensability, fluidity and dispersion stability, when forming filter with little foreign matter thereinto. The composition contains pigment carriers composed of transparent resin, forebody and their mixtures, pigments, phthalocyanine derivatives D1 having substituents shown in one general formula (1) and phthalocyanine derivatives D2 having substituents shown in two general formulas (1) relative to the phthalocyanine residue, the weight ratio D1:D2 is 85:15 to 56:44, in the general formula (1), X denotes 2+ linking group selected from CO, SO2, CH2 and CH2NHCOCH2, Y denotes direct connection or NH(CH2)n, R1, R2 each independently denotes hydrogen atom, alkyl having substituents with C1-6, R1 and R2 can also combine with each other to form heterocycle which can further contain nitrogen atom or oxygen atom, n denotes 1-6 integer.