Abstract:
A method of fabricating a distributed reflection multilayer mirror having thin layers (102, 103) with different refractive indices formed by an ink-jet liquid-phase film forming method. The film forming method comprises applying a thin layer material for forming thin layers, and setting the material. Thin layers are formed of a fine arrangement pattern simply in a short time, and a high-precision high-reliability multilayer film is formed. Therefore, the film thickness and reflection characteristics such as the reflectivity of the mirror are easily controlled.
Abstract:
A projection liquid crystal display has an organic field emission device (12) which is composed of an electrode layer (126) which reflects light, a transparent electrode layer (123) which transmits light and an organic thin film layer (125) provided between the electrode layers (126 and 123), a transmission-type liquid crystal panel (20) which controls the transmission of light emitted from the surface of the organic field emission device (12) and a half-mirror layer (121) which is provided on the emission side of the transparent electrode layer (123), reflects a part of the incident light to the electrode layer (126) through the transparent electrode layer (123) and transmits the rest of the incident light. The distance between the half-mirror layer (121) and the electrode layer (126) is so determined as to be an optical distance at which the light is resonated.
Abstract:
A donor sheet for transferring an image pattern to an image-receiving element by thermal imaging process using a laser beam comprises a base, a photothermal transducing layer, and a transfer layer containing an image component heated and fused by the action of the photothermal transducing layer and transferred in a pattern to the image-receiving element. The layers are formed on the base in order. The image component contains an optimized amount of compound having an ink or solvent repellency. By using this donor sheet, a separation rib of a color filter and a partition member of a black matrix of a liquid crystal display are easily and precisely produced in a short production process. The partition member can be given an excellent ink repellency.
Abstract:
A solution containing a cyclic silane compound, which does not contain carbon, and/or a silane compound modified by boron or phosphorus is applied onto a substrate and a silicon precursor film is formed, and the film is then transformed into semiconductor silicon by heat and/or light treatment. Thereby, it is possible to easily produce a silicon film having satisfactory characteristics as an electronic material at low costs, differing from the vacuum process, such as in CVD methods.
Abstract:
An information recording method for recording desired information by feeding a luminous material on a substrate (10) of a recording medium by means of a recording head (110), the luminous material being so selected as to be capable of emitting light having specific characteristics when irradiated with energy (electric energy or light energy), the specific characteristics being so specified by a control circuit (150) as to correspond to information which is stored in a table memory (151) and is to be recorded on the basis of data in a table showing the correspondence of the information to the light emitted. In order to reproduce information, energy is given to the recording medium on which information is recorded, the luminous material emits light, the characteristics of the light are examined and identified, and from the characteristics specific information is found, novel information recording is provided and security is improved.
Abstract:
A flat source of light, comprising a periodic array of red, green and blue EL elements (100R, 100G, 100B) with an optical resonator structure on a glass substrate (103), is provided on the back of an optical modulation panel (101) including no color filter. The optical modulation panel (101) modulates light from each of the EL elements (100R, 100G, 100B) to form color images.
Abstract:
A method for manufacturing a transmission screen comprising lens bodies juxtaposed on a light transmitting substrate, and a pattern of light absorbing material formed at a position corresponding to the boundary part of respective lens bodies, wherein a composition for lens is ejected to hit the light transmitting substrate and micro lens bodies or precursors thereof are formed of liquid drops of the composition for lens. A method for manufacturing a transmission screen displaying a high-quality image having a high contrast ratio and no moiré pattern nor speckle at low cost can be provided.
Abstract:
A projection display apparatus employing organic EL elements is presented that is light in weight, is small in size, and can be practically implemented. In particular, the apparatus suppresses light-emission performance degradation caused by generated heat, thereby extending useful life, stabilizing brightness, and securing continual maximum brightness. The apparatus comprises: liquid crystal panels 12R, 12G, and 12B; light emitting units 13R, 13G, and 13B, positioned at the back of the liquid crystal panels and provided with organic EL elements as light emitting layers; and cooling bodies 14R, 14G, and 14B, positioned at the back of the light emitting units, for dispersing the heat generated by the light emitting layers. The cooling bodies 14R, 14G, and 14B may, for example, be electronic cooling elements that employ the Peltier effect to absorb and radiate the generated heat. Alternatively, the cooling bodies may be configured as heat-dispersing fins that guide and disperse generated heat.
Abstract:
PROBLEM TO BE SOLVED: To increase the yield during manufacture of an organic electroluminescent display device by repairing a defective pixel by a simple method.SOLUTION: The manufacturing method of an organic electroluminescent display device includes a step for depositing an HIL 102 and an EML 103 on an ITO positive electrode 101, a step for detecting a defective pixel A, a step for performing hydrophilic treatment of a dust 200 on the defective pixel A and the periphery thereof, a step for coating the dust 200 and the periphery thereof with an ink 302 containing an insulating material, and a step for hardening the ink 302 containing an insulating material thus applied.