Seiko Epson Corporation

Sony Corporation

Takashi Shinohara

Yuji Shinohara

Goro Hamagishi

Masahide Nakamura

Koichi Terao

Takuya Miyakawa

Yuichi Shimizu

Shigeki Kobayashi

Shigemi Wakabayashi

Masamitsu Shimazu

Masahiko Nakazawa

Naoko Omagari

Masamitsu Uehara

Ryuji Ishii

Takumi Sago

Kazu Kobayashi

Tomohito Kawa

Yasuo Miyamoto

Yuji Ikezaki

A method for manufacturing a molded body, includes a deposition step of depositing a mixture containing fibers and a starch in air; a moisturizing step of applying water to the mixture; and a molding step of forming a molded body by heating and pressurizing the mixture to which the water is applied, and the starch has a value of 2,000 to 10,000, the value being represented by the following expression (I) and being obtained by measurement performed in accordance with the following measurement methods (1) to (4) using a rapid visco analyzer (RVA).5,000−30×−90×()+2×η−15×η  (I)In the expression (I), Trepresents a gelatinization start temperature (° C.), Trepresents a gelatinization peak temperature (° C.), ηrepresents a gelatinization peak viscosity (mPa·s), and ηrepresents a trough viscosity (mPa·s), and the measurement is performed such that (1) after a water suspension containing the starch at 25 percent by mass is charged in the RVA as a measurement sample, the temperature thereof is increased to 50° C. and then maintained for one minute; (2) the temperature of the measurement sample is increased from 50° C. to 93° C. over 4 minutes and then maintained at 93° C. for 7 minutes; (3) the temperature of the measurement sample is decreased from 93° C. to 50° C. over 4 minutes and then maintained at 50° C. for 3 minutes; and (4) in the above (2) and (3), a rotational speed of a measurement paddle of the RVA is set to 960 rpm for 10 seconds after the start of the viscosity measurement and is then set to 160 rpm 10 seconds thereafter.

Method for manufacturing molded body

Provided are a pair of substrates, a seal material disposed between the pair of substrates, an inter-substrate conductive member disposed spaced apart from the seal material, and a moisture-proof film covering a side face of the seal material and a side face of the inter-substrate conductive member.

Electro-optical device comprising an inter-substrate conductive member disposed spaced apart from a seal material and electronic apparatus

In an electro-optic device, a chip provided with a mirror and a drive element adapted to drive the mirror, a cover having a light-transmitting property and adapted to cover the mirror in a planar view, and a spacer located between the cover and the chip are disposed on an interconnection board. Further, a boundary between the cover and the spacer, a boundary between the chip and the spacer, and a part of the interconnection board are covered with an inorganic film such as an aluminum oxide film. The inorganic film also covers a part of a chip-side terminal and an internal terminal, and a conductive member.

Electro-optic device, electronic apparatus, and method of manufacturing electro-optic device

An electro-optical device includes a first substrate, a second substrate, an adhesive agent between the first and second substrates, and an inorganic film. The adhesive agent has a first face stuck to the first substrate, a second face stuck to the second substrate, and a third face between the first and second faces. The inorganic film covers the third face on one side of the electro-optical device, a region of the first substrate between the first face and a side of the first substrate on the one side, and a region of the second substrate between the second face and a side of the second substrate on the one side. A distance between the first substrate and the second substrate is less than a distance between the first face and the side of the first substrate, and a distance between the second face and the side of the second substrate.

Electro-optical device and electronic apparatus

An electro-optical device comprises an element substrate, a counter substrate, and an inorganic film. The counter substrate is arranged so as to face the element substrate. The seal material is arranged between the element substrate and the counter substrate so as to join the element substrate and the counter substrate. The inorganic film covers a side face of the seal material, a peripheral region of the element substrate between the side face of the seal material and a side of the element substrate, and a peripheral region of the counter substrate between the side face of the seal material and a side of the counter substrate.

An electro-optical device includes an element substrate, a counter substrate arranged so as to face the element substrate through a seal material, in which the element substrate, the counter substrate, and the seal material are arranged so that a ratio of a length from a side face of each of the element substrate and the counter substrate to the seal material to a length of an interval between the element substrate and the counter substrate becomes from 50 to 300, and a barrier film is provided so as to cover the seal material and at least a part of side faces of the element substrate and the counter substrate.

In an electro-optical device, an electro-optical material is doubly sealed with a first seal member and a second seal member. In the second seal member, first particles are located in a gap between a first substrate and a second substrate, and second particles are located outside of the gap between the first substrate and the second substrate, so as to cover the opening of the gap.

The electro-optic device of the present invention includes an arrangement of an electro-optic panel and a lenticular lens sheet on one side of the electro-optic panel, wherein the lenticular lens sheet includes multiple cylindrical lenses arrayed parallel to one another and an alignment line extending in such a direction as to intersect with the cylindrical lenses at a predetermined angle. The lenticular lens sheet has cylindrical lenses arrayed so that the longitudinal direction of the cylindrical lenses intersects with the pixel array direction of the electro-optic panel at a predetermined angle, and has an alignment line formed in the lenticular lens sheet that is in alignment with the positioning reference portions of the electro-optic panel.

Electro-optic device and electronic apparatus

The object of the present invention is to provide a composition for conductive materials from which a conductive layer having a high carrier transport ability can be made, a conductive material formed of the composition and having a high carrier transport ability, a conductive layer formed using the conductive material as a main material, an electronic device provided with the conductive layer and having high reliability, and electronic equipment provided with the electronic device. The composition for conductive materials of the present invention comprising a compound represented by the following general formula (A1): wherein eight Rs may be the same or different and each independently represents a hydrogen atom, a methyl group or an ethyl group, Y represents a group containing at least one substituted or unsubstituted aromatic hydrocarbon ring or substituted or unsubstituted heterocycle, and X, X, Xand Xmay be the same or different and each independently represents a substituent represented by the following general formula (A2): wherein n is an integer of 2 to 8 and Zrepresents a hydrogen atom or a methyl group. 

Composition for conductive materials comprising tetra acrylate functionalised arylamines, conductive material and layer, electronic device and equipment

An electro-optical device that displays a multiple viewing point image includes an electro-optical panel that has a plurality of pixels and includes at least a first substrate having transparency, a touch panel that detects contact in accordance with a change in electrostatic capacitance and includes a second substrate having transparency, a barrier layer that is formed on a face of the second substrate which is located on the first substrate side, has an opening part disposed in correspondence with an area between the adjacent pixels, and has a light shielding property, and a detection electrode that is formed on a face of the second substrate which is located on a side apart from the first substrate, has transparency, is used for detecting contact depending on a change in electrostatic capacitance. The second substrate and the first substrate are fixed with the barrier layer interposed therebetween.

Electro-optical device, method of manufacturing electro-optical device, and electronic apparatus

A method for manufacturing an electro-optic device including: a display surface; a plurality of pixels including at least a first pixel for forming a first image and a second pixel for forming a second image and emitting light toward the display surface; a filter that allows, of the light, light emitted from the first pixel to a first range through the display surface to pass through, and light emitted from the second pixel to a second range through the display surface to pass through; and a substrate between the plurality of pixels and the filter. The method includes: providing the filter on the substrate, with the distance between the substrate and the filter kept at a distance set according to the thickness of the substrate.

Method for manufacturing electro-optic device and electro-optic device

A composition for conductive materials comprises a compound represented by the following general formula (A1): wherein: wherein nis an integer of from 2 to 8.

Composition for conductive layers in electronic devices

The object of the present invention is to provide a method of manufacturing a semiconductor element which can produce a semiconductor element provided with a semiconductor layer having a high carrier transport ability, a semiconductor element manufactured by the semiconductor element manufacturing method, an electronic device provided with the semiconductor element, and electronic equipment having a high reliability. In order to achieve the object, the present invention is directed to a method of manufacturing a semiconductor element having an anode, a cathode, and a hole transport layer provided between the anode and the cathode, the method comprising steps of: a first step for forming layers mainly comprised of a hole transport material having polymerizable groups X on the side of one surface of the anode and on the side of one surface of the cathode, respectively, and a second step for obtaining the hole transport layer by integrating the two layers together by polymerizing the hole transport materials via a polymerization reaction through their polymerizable groups in a state that the layer on the side of the anode and the layer on the side of the cathode are made contact with each other.

Method of manufacturing semiconductor element, semiconductor element, electronic device, and electronic equipment

The object of the present invention is to provide a composition for conductive materials from which a conductive layer having a high carrier transport ability can be made, a conductive material formed of the composition and having a high carrier transport ability, a conductive layer formed using the conductive material as a main material, an electronic device provided with the conductive layer and having high reliability, and electronic equipment provided with the electronic device. The composition for conductive materials of the present invention comprising a compound represented by the following general formula (A1): wherein two Rs may be the same or different and each independently represents a straight-chain alkyl group having 2 to 8 carbon atoms, four Rs may be the same or different and each independently represents a hydrogen atom, a methyl group, or an ethyl group, Y represents a group containing at least one substituted or unsubstituted aromatic hydrocarbon ring or substituted or unsubstituted heterocycle, and two Xs may be the same or different and each independently represents a substituent represented by the following general formula (A2): wherein n' is an integer of 3 to 8, ms an integer of 0 to 3, and Zrepresents a hydrogen atom, a methyl group or an ethyl group. 

Composition for conductive materials, conductive material, conductive layer, electronic device, and electronic equipment

An organic EL device with a voltage applied across an anode and a cathode so that holes are moved in a hole transport layer and electrons are moved in an electron transport layer, and the holes and the electrons are recombined in a light emitting layer to emit light. The light emitting layer is formed of light emitting material having one or more kinds of metallic impurities. By using such a light emitting material, the decrease of light-emission luminance of the organic EL device can be suppressed.

Growing community of inventors

Suwa, Japan

Takashi Shinohara