Taiyo Yuden Co., Ltd.

Rohm Co., Ltd.

Mitsubishi Electric Corporation

Kabushiki Kaisha Toshiba

Honda Motor Co., Ltd.

3m Innovative Properties Company

Ebara Corporation

Mitsubishi Denki Kabushiki Kaisha

Kao Corporation

Renesas Electronics Corporation

Other

Tokyo Shibaura Denki Kabushiki Kaisha

Nintendo Co., Ltd.

Nec Corporation

Kohshoh Limited

Koji Saito

Taro Yasuda

Kikuji Fukai

Masaru Imaizumi

Yuji Motomura

Mizuki Ogawa

Ryohei Takamatsu

Hozumi Yasuda

Takehiko Tojo

Takashi Yoshida

Akihito Saito

Fumio Sato

Atsuo Kamimura

Tetsuji Togawa

Osamu Nabeya

Makoto Fukushima

Hideo Kobayashi

Hidetoshi Abe

Toshiya Inubushi

Hiroyuki Matsui

Satoru Uchiumi

Toshiya Hirata

Masahiko Masuzaki

Mamoru Otake

Keisuke Tanaka

Yoshitsugu Uedaira

Kazuhiro Maruyama

Katsumi Sameshima

Mikio Ishihara

Masaya Takei

Yoshitaka Tamura

Daisuke Oya

Susumu Enjoji

Tomoshi Inoue

Takahiro Sato

Wakana Ohori

Tatsuya Iwasa

Tsutomu Suyama

Masaharu Wakamatsu

Satoshi Kanbayashi

Kazushige Koyama

Yuki Wakabayashi

Mitsuru Katayama

Kiyofumi Koya

Nobutaka Sakai

Tomishi Takahashi

Norio Kimura

Naoki Matsuda

Keisuke Namiki

Takao Saito

Yuuichi Mikata

Shingo Togashi

Tsutomu Inoue

Satoru Yamaki

Toshio Watanabe

Kiyoshi Murase

Satoshi Tsuchiya

Yorinobu Takamatsu

Naoya Matsunaga

You Ishii

Masaru Aoki

Yoshinori Araki

Michael R Kesti

Ken Egashira

Takuro Ono

Naota Sugiyama

Toshitaka Nakajima

Shiro Mishima

Haruomi Enomoto

Satoshi Okamoto

Takeo Yamamoto

Naomi Amari

Shigeaki Wakana

Kenta Mukai

Katsuya Ono

Shinji Ikeda

Takahiro Kitahara

Takuro Yoshimura

Masako Watase

Nobuki Kudo

Shinsuke Kondo

Ikuo Fukuda

Masao Kume

Tomofumi Akiba

Hiroshi Takeda

Saori Ueda

Yohei Kawahara

Shinya Ohtomo

Masakatsu Suzuki

Nobuhiro Asai

Tatsuichi Ito

Hajime Koyama

Masato Ide

Eiji Nakata

Akemi Goto

Manabu Sakashita

Hisashi Furumoto

Hideaki Tago

Shunetsu Yonaiyama

A graphic sheet including: a transparent rigid film substrate; and a receptor layer disposed on the transparent rigid film substrate, the receptor layer containing an acrylic polymer and a white pigment filler; wherein the receptor layer contains not less than 5 parts by mass and not more than 50 parts by mass of the white pigment filler per 100 parts by mass of the acrylic polymer; and a total visible light transmittance of the sheet is not less than 8% and not greater than 50% is described.

Graphic sheet and lighting system using graphic sheet

A housing of an example of an electronic apparatus has a top surface and a bottom surface and has a flat shape, wherein a cross-sectional shape thereof on a reference plane perpendicular to the up-down direction is a circular shape. A rechargeable battery has a rectangular parallelepiped shape. The rechargeable battery is provided inside the housing so that a first long side is at an angle to a direction extending from a first position on the side surface portion at which the charging terminal is exposed toward a second position on the side surface portion that is opposite from the first position. The electronic apparatus includes at least one of a vibrator and a speaker provided at a position that is between the first long side of the rechargeable battery and a portion of the side surface portion opposing the first long side, on the reference plane.

Electronic apparatus

A signal transmission device includes a first pulse transmitting circuit configured to generate a first transmission pulse signal in synchronization with one of a rising edge and a falling edge of a first reference clock signal, a first pulse receiving circuit configured to receive a first reception pulse signal and generate a second reference clock signal, a first insulation communication circuit configured to transmit the first transmission pulse signal as the first reception pulse signal while insulating between the first pulse transmitting circuit and the first pulse receiving circuit, and a drive clock signal generating circuit configured to generate a drive clock signal having a predetermined oscillation frequency and a predetermined duty or a predetermined pulse width in synchronization with the second reference clock signal.

Signal transmission device

An inkjet printing method forming a decorative printed layer having a three-dimensional texture on a printing surface is described. The inkjet printing method includes: printing dots of curable ink that cure under a predetermined condition based on dot pattern data indicative of printed positions of the dots to be printed on the printing surface; and curing the printed dots. The dot pattern data indicates that: a distance between the adjacent dots becomes a distance where the adjacent dots before the curing are allowed to be maintained independently without bonding to one another in a first region; and the distance between the adjacent dots becomes a distance where the adjacent dots before the curing bond to one another in a second region different from the first region. Such a method may allow forming a decorative printed layer having a three-dimensional texture with a desired gloss level.

Inkjet printing method and inkjet printing device

A housing of an example of an electronic apparatus has a top surface and a bottom surface and has a flat shape. A power supply section having a flat shape is a power supply section, which is a housing case capable of accommodating a battery or is a battery, and the power supply section is provided at a position inside the housing that intersects with a reference plane perpendicular to the up-down direction. A first substrate is provided parallel to the reference plane on the top surface side relative to the power supply section. A second substrate is provided parallel to the reference plane on the bottom surface side relative to the power supply section. The electronic apparatus includes at least one of a vibrator and a speaker at a position that intersects with the reference plane.

A construction member of one embodiment of the present disclosure includes a decorative film and a pre-mask: that is laminated to the decorative film and removed alter application of the decorative film is described. The decorative film includes: a transparent resin film having, an embossed first surface and a second surface opposite the first surface; a printed layer disposed on the second surface of the transparent resin: film; and a colored adhesive layer disposed on or above the printed layer. The pre-mask includes: a support film having a first surface and a second, surface opposite: the first surface; and a pressure-sensitive adhesive layer that has an uneven surface and: is disposed on the first, surface of the support film. The first surface of the transparent resin film of the decorative film and the uneven surface of the pressure-sensitive adhesive layer of the pre-mask face each other.

Construction member

A manufacturing method of a laminated sheet having a printed layer includes, given that a table that associates density data of a specific area included in image data with a burnup degree of the printed layer corresponding to the specific area at printing based on the image data is an image-burnup degree conversion table, identifying the image-burnup degree conversion table that satisfies a printing condition for the laminated sheet, acquiring printed image data that is image data for forming the printed layer of the laminated sheet, and calculating the burnup degree of the printed layer based on the image-burnup degree conversion table and the printed image data. Also disclosed is a laminated sheet having a printed layer, a system for manufacturing the laminated sheet, and a program for manufacturing the laminated sheet.

Laminated sheet having printed layer and manufacturing thereof

An over-laminate film applied to a decorative surface is described. In particular the over-laminate film includes: a transparent resin base film having a first surface and a second surface opposite to the first surface; a low gloss layer disposed on the first surface of the transparent resin base film; and a transparent adhesive layer disposed on the second surface of the transparent resin base film, the low gloss layer including a binder containing a resin, resin beads having an average particle size of 4 &#x3bc;m or greater and 20 &#x3bc;m or less, and nanosilica particles, the low gloss layer having surface glossiness of 5 GU or less at 60 degrees.

Over-laminate film and graphic laminate

Disclosed is a taping apparatus including: a tray storage device supplying a designated one of plural kinds of trays on which respective different kinds of parts are scattered; a carrier tape feed device intermittently moving a designated one of plural kinds of carrier tapes which correspond to the respective different kinds of parts; a first camera capturing an image of the scattered parts on the designated tray; a first image recognizing device recognizing respective centers of the scattered parts; a rotary head individually sucking the scattered parts to rotatable suction nozzles; a second camera capturing an image of the parts sucked to the suction nozzles; a second image recognizing device recognizing respective orientations of the sucked parts; and a part inserting device adjusting the orientations of the sucked parts to orientations insertable into part storage recesses defined in the designated carrier tape and then inserting the parts into the part storage recesses, respectively.

Taping apparatus and taping method

A nanofiber sheet includes: a substrate layer; and a nanofiber layer located on one surface side of the substrate layer and containing nanofibers of a polymer compound. A peripheral edge of the nanofiber layer has a thickness of from 0.1 to 10 &#x3bc;m. The nanofiber layer includes a gradation region having a thickness that gradually increases inward from the peripheral edge. The distance Wbetween the peripheral edge of the nanofiber layer and a maximum thickness portion where the thickness becomes the greatest in the gradation region is at least 3 mm. A nanofiber sheet manufacturing method involves depositing nanofibers onto a collecting unit by moving at least either a nozzle or the collecting unit, to thereby manufacture a predetermined nanofiber sheet including a gradation region.

Nanofiber sheet, method for using same, and method for producing same

In a semiconductor-mounting heat dissipation base plate including: an insulating substrate to which a metal circuit layer for mounting a semiconductor chip thereon is fixed; a heat dissipation base formed from the same metal material as the metal circuit layer at a side opposite to the metal circuit layer across the insulating substrate and fixed to the insulating substrate similar to the metal circuit layer; and a strengthening member provided in the heat dissipation base so as to be separated from the insulating substrate, the sizes of crystal grains of a metal structure at a part of the heat dissipation base or the metal circuit layer are reduced by a crystal size reducing material adhered to a mold, thereby preventing an adverse effect of a columnar crystal structure.

Semiconductor-mounting heat dissipation base plate and production method therefor

A culture device and a culture method by which a substance to be cultured can be three-dimensionally cultured, and the substance thus cultured can be removed as an integrated product with multiple tubes; and a cultured organ produced by the culture method. The culture device comprises a sealed container () which contains the substance to be cultured (A) and is disassembled after the culture is completed; multiple ducts () arranged in the sealed container () and having a plurality of micropores formed on the outer peripheral surface; a culture medium-feeding device () for feeding/circulating the culture medium (B) to at least one duct (or); an excretory device () connected to at least one duct () for excreting the waste product (C)permeating into the duct () through the micropores of the duct () from the substance to be cultured to the outside of the sealed container.

Culture device, culture method and cultured organ produced by the culture method

A method for producing ultrafine fibers of the present invention includes forming an electric field between an discharging nozzle from which a raw resin is discharged and a charging electrode which is disposed apart from the discharging nozzle, and supplying the raw resin which has been heated and melted into the electric field from the discharging nozzle to spin the raw resin. The raw resin is a resin mixture which contains a resin having a melting point and an additive, and satisfies a relation (I) below:&#x2265;1.0&#xd7;10&#x2003;&#x2003;(I)wherein A represents the absolute value (&#x3a9;) of electrical impedance of the raw resin at 50&#xb0; C., and B represents the absolute value (&#x3a9;) of electrical impedance of the raw resin at a temperature 50&#xb0; C. higher than a melting point of the raw resin.

Ultrafine fiber production method

A taping device includes a device base with a tape traveling groove in a front surface of the device base; a parts conveying disk including parts housing grooves in an outer circumferential surface of the parts conveying disk at regular angular intervals and a rear surface disposed to face the front surface of the device base; a disk rotating mechanism for intermittently rotating the parts conveying disk; a parts feeding mechanism for feeding, in a parts feeding zone, the parts into the parts housing grooves; and a parts inserting mechanism for inserting, at a parts insertion position, the parts from the parts housing grooves into the parts housing recessed portions.

Taping device and taping method

Growing community of inventors

Tokyo, Japan

Koji Saito