Abstract: An organic EL display unit is manufactured in an efficient manner. A light emission device (1000) is manufactured by bonding together a driving circuit substrate (100) formed with driving circuit constituted by thin film transistors 11, and a light emission substrate (300) comprising a successively laminated transparent electrode layer 31, bank layer 32 made from insulating material, positive hole injection layer 33, organic EL layer 34 and cathode layer 36.

Abstract: There is provided a method of manufacturing a light modulation device that does not produce scattered reflection comprising: a step of forming a release layer whereby a release layer that produces separation in response to irradiation with incoming light is formed on a heat-resistant substrate having the capability of withstanding heat; a step of forming a piezoelectric layer whereby a piezoelectric layer is formed on the release layer; a patterning step whereby an electrode pattern is formed in respect of the piezoelectric layer and mirror elements are formed at each pixel; a connection step of electrically connecting the active element substrate wherein active elementary elements are provided for each pixel and the piezoelectric layer laminated on the heat-resistant substrate such that the active elements correspond to mirror elements; and an irradiating separation step whereby separation is produced in the release layer by irradiating the release layer with irradiating light from the side of the heat-resis

Abstract: An EL driving circuit which can operate at a satisfactory operation speed is disclosed. A voltage higher than the voltage for operating the EL element is input, and the input voltage is stepped down by the voltage step-down circuit (2) which is provided in each unit block (1). The stepped-down voltage is then supplied to a transistor (3) functioning as the driving element for driving the EL element. Therefore, even when the number of EL elements increases, sufficient source voltage can be supplied to each unit block.

Abstract: A high quality printing of images such as photographs, designs, and the like, is effected without using special paper. The following is provided: a supply mechanism for supplying a recording medium; means for applying a surface modified for coating the surface modifier on the surface modification area, which is the area to be modified of the recording medium supplied with the aforementioned means for supplying; and means for drying for drying the surface modification area coated on the aforementioned surface modification area. An area can be printed on the surface modification area with high quality. As such, high quality printing is made possible with regular paper, without using special paper, as before.

Abstract: An information recording method for recording desired information, wherein a control circuit (150) identifies a characteristic of light corresponding to information to be recorded, in accordance with table data stored in a table memory (151), indicating a corresponding relationship between the information to be recorded and the wavelength of the light and selects a light emitting material which emits the identified characteristic of the light in response to energy (electricity or light) supplied thereto, and a recording head (110) forms a light emitting element by supplying the light emitting material on a substrate (10) of a recording medium. Furthermore, energy is supplied to the recording medium on which the information is written so that the light emitting material emits light, the characteristic of the light is identified and the information is reproduced in accordance with the identified characteristic. The security of the information is enhanced with a new and easy method of information recording.

Abstract: Provided is a method of forming a silicon thin-film which comprises a step of arranging in one or more parts of a liquid arranging surface liquid which contains a silicide comprising ring silane and/or a derivative thereof, such ring silane comprising silicon and hydrogen, and a step of forming a silicon thin-film by vaporizing silicide from liquid and supplying the silicide to a thin-film-forming surface.

Abstract: A method for producing the piezoelectric thin film is based on a sol-gel process and comprises the steps of: coating a substrate with a sol composition comprising a sol, of a metal component for constituting a piezoelectric film, and a polymer compound and then drying the coating to form a film; pre-sintering the film to form a porous thin film of gel comprising an amorphous metal oxide; pre-annealing the porous thin film of gel to convert the film to a film of a crystalline metal oxide; repeating the steps at least once to form laminated films of a crystalline metal oxide; and annealing the films thus prepared to grow crystal grains of perovskite type in the film into a larger size.

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 by CVD methods.

Abstract: A method of manufacturing an organic EL element according to the present invention comprises the steps of forming pixel electrodes (801), (802), (803) on a transparent substrate (804) and forming on the pixel electrodes by patterning luminescent layers (806), (807), (808) made of an organic compound by means of an ink-jet method. According to this method, it is possible to carry out a high precise patterning easily and in a short time, thereby enabling to carry out optimization for a film design and luminescent characteristic easily as well as making it easy to adjust a luminous efficiency.

Abstract: A solar battery is provided having a structure in which at least two semiconductor thin-films are disposed one over the other between a pair of electrodes, each semiconductor thin-film differing from the other in the impurity concentration thereof and/or the type of semiconductor. Formation of at least one of the semiconductor thin-films consists of coating a liquid coating composition containing a silicon compound so as to form a coating film and a step of converting the coating film into a silicon film by heat treatment and/or light treatment.

Abstract: A liquid-crystal projection device includes an organic electroluminescent element that is sandwiched by an organic thin-film layer between an electrode layer that reflects light and a transparent electrode layer that transmits light, and a transparent liquid crystal panel that controls passage of light emitted from the surface of the organic electroluminescent element and also includes a half-mirror layer arranged on the side where light is output from the transparent electrode layer. Some of the incoming light is reflected through the transparent electrode layer to another electrode layer and the rest of the light is transmitted the distance between the half-mirror layer. The electrode layer is set to the optical distance of resonance of the light.

Abstract: A liquid-crystal projection device includes an organic electroluminescent element that is sandwiched by an organic thin-film layer between an electrode layer that reflects light and a transparent electrode layer that transmits light, and a transparent liquid crystal panel that controls passage of light emitted from the surface of the organic electroluminescent element and also includes a half-mirror layer arranged on the side where light is output from the transparent electrode layer. Some of the incoming light is reflected through the transparent electrode layer to another electrode layer and the rest of the light is transmitted the distance between the half-mirror layer. The electrode layer is set to the optical distance of resonance of the light.

Abstract: A self-assembled monolayer (SAM) is fabricated using either a semi-fluorinated sulphur containing compound, or a sem-fluorinated silane derivative and compressed carbon dioxide (CO2) as the solvent medium. The temperature and/or pressure of the compressed CO2 may be varied during the fabrication process to improve the molecular packing density of the monolayer.

Abstract: An ink jet printer head having a base, an ink reservoir, an ink pressure generating chamber, a piezoelectric element separating the reservoir and chamber and having a hole connecting the reservoir and chamber, and a transistor formed opposite the piezoelectric element relative to the ink reservoir for operating the piezoelectric element.

Abstract: A self-assembled monolayer (SAM) is fabricated using either a semi-fluorinated sulphur containing compound, or a sem-fluorinated silane derivative and compressed carbon dioxide (CO2) as the solvent medium. The temperature and/or pressure of the compressed CO2 may be varied during the fabrication process to improve the molecular packing density of the monolayer.

Abstract: An object is to efficiently manufacture an organic EL display. A circuit substrate 10 in which is set microstructures 12 and which is formed with wiring 14, and a transparent substrate 20 formed with a transparent electrode 21, an emissive layer 25 and a cathode layer 26, are stuck together with the side formed with the wiring 14 and the side formed with the cathode layer 26 facing the inside, to thereby manufacture an organic EL display 30. In the sticking together of the circuit substrate 10 and the transparent substrate 20, an anisotropic conductive paste or an anisotropic conductive film can be used.

Abstract: A method of manufacturing an organic EL element according to the present invention comprises the steps of forming pixel electrodes (801), (802), (803) on a transparent substrate (804) and forming on the pixel electrodes by patterning luminescent layers (806), (807), (808) made of an organic compound by means of an ink-jet method. According to this method, it is possible to carry out a high precise patterning easily and in a short time, thereby enabling to carry out optimization for a film design and luminescent characteristic easily as well as making it easy to adjust a luminous efficiency.

Abstract: An object is to easily realize a display which is precise and yet large size. A display 10 is constructed with a plurality of display blocks 20 linked together so as to be continuous in the vertical direction. Each display block 20 comprises a display portion 21 of flat rectangular shape with a plurality of pixels which emit light using organic EL elements, arranged over the entire face in matrix form, and a terminal portion 22 provided continuous with one of the short sides of the display portion 21 for relaying signals or power supply from the outside to each pixel. Each display block 20 is attached on a synthetic resin or glass transparent substrate 100 via a transparent adhesive 101 so that long side pairs of the display portion 21 are contacted and are continuous vertically. A proviso is that the display surface of the display portion 21 (the surface on the side which the emitted light in the organic EL element illuminates) faces towards the transparent substrate 100 side. As a result, as shown in FIG.

Abstract: A method of producing a transmissive screen having a structure including light-absorption-material patterns formed on locations corresponding to locations of lens members, which are provided side by side on a light-transmissive substrate, and to locations of boundary portions between the corresponding lens members. In the method, lens compositions are discharged onto and are caused to land on the light transmissive substrate, and, by drops of the lens compositions, very small lens members or precursors thereof are formed. It is possible to provide a method of producing a transmissive screen, which makes it possible to realize at a low cost a bright transmissive screen which has high contrast ratio and which can display a high-quality image having no moiré and no speckles.

Abstract: A method of manufacturing an organic EL element according to the present invention comprises the steps of forming pixel electrodes (801), (802), (803) on a transparent substrate (804) and forming on the pixel electrodes by patterning luminescent layers (806), (807), (808) made of an organic compound by means of an ink-jet method. According to this method, it is possible to carry out a high precise patterning easily and in a short time, thereby enabling to carry out optimization for a film design and luminescent characteristic easily as well as making it easy to adjust a luminous efficiency.