35results about How to "Suppresses color shift" patented technology

Provided is an optical member that can realize a liquid crystal display apparatus that is excellent in mechanical strength and suppressed in color shift. The optical member includes: a polarizing plate; a reflective polarizer; a low refractive index layer having a selected refractive index; and a prism sheet.

The present invention relates to an imaging device and an imaging method. The object of the present invention is to form, quickly and at low cost, a high-quality image on a medium formed with a curved surface. In order to achieve this object, the imaging device is equipped with: an ink-jet head (2); a pre-curing ultraviolet irradiation device (3); a head unit (4) in which is installed the ink-jet head (2) and the pre-curing ultraviolet irradiation device (3); a medium holding unit (5) that holds a medium (M); a transfer sheet unit holding unit (9) that holds a transfer sheet unit (8), in which a transfer sheet (6) is mounted to a transfer sheet holder (7); an elastic pad unit (10); a final curing ultraviolet irradiation device (11); a cleaning unit (12); and a control unit (13). The ink-jet head (2) applies ink to the transfer sheet (6) and the pad unit (10) pushes the transfer sheet (6) against the medium (M), thus providing a pressure transfer of the ink applied to the transfer sheet (6) to the medium (M).

The invention provides an organic EL (ElectroLuminescent) device, a method of manufacturing an organic EL device, and an electronic apparatus free from color shift or change of brightness even when an observer sees it from front or at wide angles. Of the organic electroluminescent device 1A equipped with pixels XB, XG, XR each having a light-emitting function layer pinched by a first electrode 23 and a second electrode 50, and a unit pixel group Px consisting of a plurality of pixels XB, XG, XR, selected pixels out of the unit pixel group Px are provided with a dispersion part 21 for dispersing emission light L of the light-emitting function layer 110.

To restrain color variation in light emitted from a light-emitting device. A method for producing a light-emitting device includes the steps of: (a) die-bonding a chip onto a substrate so as to prepare a die-bonded substrate; (b) preparing a mold having a cavity; (c) setting the die-bonded substrate such that the chip is placed in the cavity; and (d) injecting sealing resin into the cavity via a runner section. In the method, the runner section is capable of maintaining its temperature at a low temperature lower than a temperature of the mold and the step (d) injecting the sealing resin that is maintained at the low temperature in the runner section, into the cavity via the runner section.

A polarizing plate with an optical compensation layer capable of contributing to its thinning, realizing high contrast with viewing angle characteristics improved, preventing interference non-uniformity and thermal non-uniformity, being limited in color shift, delivering a good color reproducing feature, and favorably preventing light leakage at black displaying; and a liquid crystal panel, a liquid crystal display unit and an image display unit using such a polarizing plate with an optical compensation layer. The polarizing plate with an optical compensation layer comprises a polarizer, a first optical compensation layer, an adhesive layer, and a second optical compensation layer sequentially in the order mentioned, wherein the first optical compensation layer has a refractive index distribution, nx>ny=nz, with its in-plane phase difference Re1 exhibiting wavelength dispersion characteristics that gradually decrease toward a short-wavelength side and with its in-plane phase difference Re1 being 90-160 nm, and the second optical compensation layer is a coating layer, has a refractive index distribution, nx=ny>nz, with its in-phase difference Re2 being 0-20 nm, its phase difference Rth2 in thickness direction being 30-300 nm and its thickness being 0.5-10 [mu]m.

An image forming apparatus sets one of a plurality of modes including a monochrome mode of forming a monochrome image, converts a multivalued luminance signal into signal values of color material amounts to be used to form the image and forms the image using color materials based on the signal values. The color materials used in the forming when the monochrome mode is set include an achromatic color material and at least two auxiliary color materials which have hues opposite to each other and a chroma larger than that of the achromatic color material.

A light emitting device includes: a substrate; a first light emitting element and a second light emitting element that are mounted above the substrate; and a heat transfer pattern that is formed on the substrate. A rate of decrease in light output with respect to a temperature increase is greater for the second light emitting element than for the first light emitting element. The second light emitting element is mounted above the substrate via the heat transfer pattern, and the first light emitting element is mounted above the substrate without the heat transfer pattern

The invention provides a liquid crystal display device which can restrain color offset of a normally white displayed vertical oriented liquid crystal display device in observation in a left-and-right direction. The liquid crystal display device is provided with a first substrate, a second substrate, a liquid crystal layer, a first polarizing plate, a second polarizing plate, a first optical board, a second optical board and a third optical board. The absorption axes of the polarizing plates are configured approximately perpendicular with one another. Furthermore each polarizing plate is configured at an angle of approximate 45 DEG relative to the orienting direction of an approximately central part in the layer thickness direction of the liquid crystal layer when an electric field is applied. The first optical board is a 1/4 wavelength board, and the in-surface slow axis is configured at an angle of approximate 45 DEG relative to the absorption axis of the first polarizing plate. The second optical board is a 1/4 wavelength board, and the in-surface slow axis is configured at an angle of approximate 45 DEG relative to the absorption axis of the second polarizing plate. The third optical board has negative biaxial optical anisotropy, and the in-surface slow axis is configured to be approximately perpendicular with the absorption axis of the first polarizing plate.

An illumination device and a light-emission module suppressing a change in color temperature when light emitted from a light-emission unit passes through an optical member. The illumination device (3) has a lighting apparatus that includes: a first light-emission part (12a) emitting light of a daylight color temperature; a second light-emission part (12b) emitting light of an incandescent lamp color temperature; and the optical member (50), which is disposed on an optical path of the light emitted from the light-emission parts (12a, 12b). A correlated color temperature of the light emitted from the second light-emission part (12b) is set to 2238 K. Due to this, in a spectrum of the light emitted from the second light-emission part (12b), a maximum intensity within a wavelength range from 400 nm to 500 nm is no greater than one-tenth of a maximum intensity within a wavelength range from 300 nm to 800 nm.

The present invention relates to a phase difference film, a polarizing plate and a liquid crystal display device. The phase difference film 13 is the phase difference film of a cellulose ester system of which the delay Ro in an in-plane direction is more than 20 nm, is used as an additive, and contains a first nitrogenous heterocyclic compound having the solubility less than 2% relative to the dichloromethane and a second nitrogenous heterocyclic compound having the solubility more than 15% relative to the dichloromethane.