Kabushiki Kaisha Toshiba

Mitsubishi Denki Kabushiki Kaisha

Toyota Jidosha Kabushiki Kaisha

Mitsubishi Electric Corporation

Sony Corporation

Other

Canon Kabushiki Kaisha

Fuji Photo Film Company, Limited

Nec Corporation

Nippon Telegraph and Telephone Corporation

Oki Electric Industry Co., Ltd.

Mitsui Minings & Melting Co., Ltd.

Sun Medical Technology Research Corporation

Toshiba Home Appliances Corporation

Toshiba Lifestyle Products & Services Corporation

Takashi Nishimura

Kazuyuki Seino

Eiji Kamohara

Hiroaki Urushibata

Shigeru Aihara

Hisashi Shiota

Daigo Takemura

Jun Aragane

Makiko Kise

Shigeo Takenaka

Zixun Mei

Hiroyuki Kobayashi

Shoji Yoshioka

Takashi Enomoto

Yuuji Haraguchi

Masahiro Yokota

Hirotaka Murata

Syoji Yoshioka

Toru Takahashi

Yasue Sato

Masaru Kamio

Hisanori Tsuda

Ihachiro Gofuku

Tohru Takahashi

Seiki Hiramatsu

Hironori Kuriki

Hiromasa Mitani

Ken Takahashi

Yasuhiro Yoshida

Takeo Ito

Hidemi Matsuda

Kozo Harada

Hiroyuki Harada

Tsuyoshi Oyaizu

Hisatoshi Fukumoto

Osamu Hiroi

Kei Yamamoto

Hiroki Shiota

Kenji Mimura

Osamu Ono

Akiyoshi Yamada

Hiroyuki Uchiyama

Hisashi Tsukamoto

Tatsuo Saishu

Mitsuhiko Kitagawa

Kazuki Taira

Kenji Kawaguchi

Masaaki Tamatani

Ko Aosaki

Michio Murai

Kouji Hamano

Kouhei Suzuki

Motoharu Miyashita

Shoichi Karakida

Masaharu Moriyasu

Hiroya Ikuta

Mamoru Terai

Masaki Taya

Satoshi Koide

Hideo Ichimura

Shinji Nakadeguchi

Tatsuo Ota

Motoki Masaki

Hideo Oota

Atsuko Fujino

Hiroshi Yoshida

Kenichi Hayashi

Satoshi Ishikawa

Syotaro Ono

Yusuke Kawaguchi

Hiroshi Nishimura

Koji Yamada

Shuichi Matsumoto

Keisuke Matsumoto

Toshiaki Shinohara

Tatsuya Kimura

Hiroshi Adachi

Hideo Maeda

Norio Hayafuji

Satoshi Arimoto

Takashi Motoda

Shinichiro Kawabata

Hirotaka Kizuki

Yoshiaki Aizawa

Hajimu Yoshiyasu

Hiromi Ito

Hajime Tanaka

Kazuhiro Tada

Nobutake Taniguchi

Hiroaki Ibuki

Jiro Shimokobe

Hiroyuki Wada

Takayuki Mogi

Kotaro Mitsui

Toshimi Chiba

Tomoya Kitano

Sachiko Hirahara

Sadao Tachibana

Yoshihiro Shimada

Yuji Kuwabara

Walking support machine for cane

A product delivery system includes: a center server; a store server; a driver configured to be coupled with and decoupled from a carriage; and a terminal. A processor of the center server is configured to: acquire a scheduled loading time representing a completion time of loading of a product onto the carriage at the store, when order information on the product is output from the terminal to the store server; output, to the driver, an instruction for causing the driver to depart from a current position to the store in time for the scheduled loading time; and output, to the driver, an instruction for causing the driver coupled with the carriage to depart from the store to a delivery destination of the product, when acquiring, from the store server, a loading completion notification indicating that loading of the product onto the carriage has been completed at the store.

Product delivery system, product delivery device, and computer readable recording medium

A semiconductor device includes a semiconductor module, an insulating resin layer, a frame member, and a heat sink. Insulating resin layer is bonded to semiconductor module and contains a first resin. Frame member is disposed to surround insulating resin layer, and includes a porous material. Heat sink and semiconductor module sandwich insulating resin layer and frame member. Frame member is compressed while being sandwiched between semiconductor module and heat sink. Insulating resin layer is filled in a region surrounded by semiconductor module, heat sink, and frame member. The first resin enters pores of the porous material.

Frame member with a porous material between a semiconductor module and heat sink

Provided is a flow analyzer and a flow analysis method each of which makes it possible to stably and continuously measure a sample. The flow analyzer and the flow analysis method each include: a marker introducing device () which is for introducing a marker into a tube (); and a marker detecting device () which detects the marker and outputs a detection signal to an analyzing device (), the analyzing device () acquiring analysis data on the basis of the detection signal.

Flow analysis device and flow analysis method

Delivery robot

Vehicle for delivery robot

A product conveyance system includes: a storage box in which a product is stored; and a product conveyance robot including a travel portion and a holding portion provided above the travel portion and configured to hold the storage box. The holding portion includes a pair of support columns provided in a standing manner with an interval between the support columns in the width direction. Each of the support columns includes: one or more support rails configured to support the storage box in the height direction, the storage box being placed between the support columns; and one or more lock pins provided on a facing surface of the each of the support columns, the facing surface facing the other one of the support columns, the one or more lock pins being configured to protrude and retract in the width direction.

Product conveyance system, product conveyance robot, and storage box

Rack for delivery robot

The object of the present invention is to provide a novel flow analysis method and a novel flow analyzer each of which makes it possible to improve accuracy of an analysis. A flow analysis method in accordance with an embodiment of the present invention attains the above object by including: a sample introducing step of introducing a sample into a tube (); a reagent adding step of adding a reagent to the sample which is transferred through the tube (); and an analyzing step of quantitatively or qualitatively analyzing the sample to which the reagent has been added and further including, after the reagent adding step and before the analyzing step, a gas-liquid separating step of sequentially removing gas which is present in the tube ().

Flow analysis method, and flow analysis device

There is provided a separation method in which a target component in a solution can be separated simply but safely and efficiently without contamination from the environment. This method includes: providing a solution containing a target component, and a reaction reagent; while continuously feeding the solution and the reaction reagent to a flow path, intermittently injecting bubbles into the flow path to produce a gas-liquid slug flow in which a mixed liquid containing the solution and the reaction reagent is segmented into a plurality of droplets by the bubbles; continuing the feed of the gas-liquid slug flow in the flow path, thereby facilitating the mixing of the solution and the reaction reagent, and the gasification of the target component by the mixing, in each droplet, and the movement of a target component-derived gas produced by the gasification to the bubbles; and recovering the target component-derived gas with an absorbing liquid.

Method and device for isolating and analyzing target substance in solution

Steering wheel for an automobile

A semiconductor device includes: an insulating substrate having an upper surface on which a semiconductor element is mounted; a base plate joined to a lower surface of the insulating substrate; a case member that surrounds the insulating substrate and that is in contact with a surface of the base plate to which the insulating substrate is joined; a sealing resin provided in a region surrounded by the base plate and the case member; a cover member facing a surface of the sealing resin and fixed to the case member; and a holding plate, a lower surface of the holding plate and a portion of a side surface of the holding plate being in close contact with the surface of the sealing resin, an upper surface of the holding plate being fixed to and protruding from a surface of the cover member facing the surface of the sealing resin.

Semiconductor device and method for manufacturing same

Growing community of inventors

Tokyo, Japan

Takashi Nishimura