Eisai Company, Limited

Panasonic Corporation

Matsushita Electric Industrial Co., Ltd.

Eisai R&d Management Co., Ltd.

Hitachi Construction Machinery Co., Ltd.

Max Co., Ltd.

Alps Alpine Co., Ltd.

Sony Corporation

Koninklijke Philips Corporation N.v.

Renesas Electronics Corporation

Alps Electric Co., Ltd.

Toppan Printing Co., Ltd.

Agency of Industrial Science and Technology

Nagoya University

Director-general of the Agency of Industrial Science and Technology

Shinya Abe

Isao Yamatsu

Takeshi Suzuki

Hiroyuki Yoshimura

Koukichi Harada

Kazuo Okano

Mitsuaki Miyamoto

Shuhei Miyazawa

Kouji Nakamoto

Shigeru Souda

Takashi Ishida

Hiroshi Ogawa

Kouji Yamada

Yuichi Inai

Tetsuya Kawahara

Kouichi Katayama

Naoyuki Shimomura

Katsuya Tagami

Kenji Hayashi

Takashi Yamanaka

Masahiko Tsukuda

Yoshimasa Machida

Shigeki Hibi

Osamu Asano

Akiharu Kajiwara

Tohru Fujimori

Mitsuo Nagai

Hironori Ikuta

Kenzo Muramoto

Manabu Murakami

Morio Tomiyama

Richard S Clark

Kouichi Kikuchi

Takayuki Hida

Kozo Akasaka

Eiji Ohno

Youji Yamagishi

Satoshi Katayama

Seiichi Kobayashi

Ieharu Hishinuma

Junichi Nagakawa

Hiroshi Obaishi

Kazuo Hirota

Satoshi Inoue

Keigo Tanaka

Shizumasa Kijima

Hisashi Shibata

Masayuki Matsukura

Toshiji Igarashi

Yoshimasa Takahara

Kazutaka Nakamoto

Makoto Asada

Makoto Okita

Yorihisa Hoshino

Tsutomu Kawata

Hideaki Watanabe

Kazuhiro Hayashi

Takashi Inoue

Kiyoshi Oketani

Hideaki Fujisaki

Noboru Yamada

Yasunori Watanabe

Kazuya Hisada

Yasushi Okamoto

Shinichi Kitamura

Koichi Abe

Kenichi Nishiuchi

Tamotsu Yamagami

Naoyasu Miyagawa

Shinpei Sugihara

Shigehisa Hagura

Ken'ichi Nagata

Kazuhiko Hiraoka

Shin-ichi Tanaka

Tomoyuki Miyata

Cornelis Marinus Schep

Norihiro Ueda

Tetsuya Akiyama

Satoshi Suzuki

Hideo Kusada

Hiroshi Udagawa

Jun Niijima

Hideki Kitaura

Keiji Nishikiori

Nobuhisa Watanabe

Hiroshi Suzuki

Katsuya Hakozaki

Hideyuki Adachi

Tomohiro Matsushima

Nozomu Koyanagi

Haruhiko Habuta

Yasuhiro Kabasawa

Itaru Tsukada

Naoyuki Hatano

Toru Haneda

Atsushi Kamada

Jacobus Petrus Josephus Heemskerk

Katsura Hata

Hiroki Ishihara

An input apparatus includes at least one operating area on an operating surface, at least one first sensing electrode corresponding to the operating area, a plurality of electrodes around the first sensing electrode, and a control unit configured to, when contact of an operating body with the operating area is detected by the first sensing electrode, make control different according to a contact operation on the one operating area according to a sum of capacitance values of electrodes of the plurality of peripheral electrodes around the operating area where the contact of the operating body is detected.

Input apparatus

A motor control system includes a first MCU and a second MCU. The first MCU includes an error detection unit, a resolver digital converter, and a first PWM generation unit. The resolver digital converter includes an encoder unit, which generates encoder pulses based on angle information and outputs the encoder pulses to the second MCU. The error detection unit outputs an error signal to the second MCU, when an error is detected in the first MCU. The first MCU controls the resolver digital converter to operate using a backup clock supplied from the second MCU.

Motor control system and semiconductor device

A touch sensor false detection preventing structure for use in an electronic device is provided. The electronic device includes a housing that is provided with a through-hole provided area through which a sensor sheet passes, a circuit board that is mounted inside the housing, and a touch panel that is electrically connected to the circuit board by the sensor sheet. The touch sensor false detection preventing structure includes protruding portions formed on an inner surface at both ends of the through-hole provided area in planar view so as to protrude a predetermined distance, such that movement at a part of both side ends of the sensor sheet is restricted.

Touch sensor false detection preventing structure and electronic device having same

A coordinate input device includes an operation detecting unit for detecting an input operation performed by an operation body and a calculation unit for computing a calculation result from the input operation, wherein, in a case where the input operation detected by the operation detecting unit continues for a predetermined time, the calculation unit acquires a first position coordinate at a first time and a second position coordinate at a second time is detected after the first time, calculates an input vector from the first position and directed toward the second position, calculates a movable distance between an end and another end of the operation detecting unit on a line connecting the first position and the second position, and computing an output vector by increasing a correction value for correcting a value of the input vector so that the shorter the movable distance, the larger the correction value is.

Coordinate input device

The present invention provides a device and a method for image reconstruction at different X-ray energies that make it possible to achieve image reconstruction with higher accuracy. A device for image reconstruction at different X-ray energies includes: an X-ray sourcethat irradiates a specimen to be imagedwith X-rays; an energy-dispersive detectorthat detects a characteristic X-ray emitted from the specimen to be imaged; a signal processing means that quantifies the peak of the characteristic X-ray detected by the detector; and an image reconstruction means that reconstructs an image on the basis of a signal from the signal processing means.

Device and method for image reconstruction at different X-ray energies, and device and method for X-ray three-dimensional measurement

Provided are an image acquisition device and an image acquisition method capable of acquiring the internal and external contours of a measured object with a high degree of accuracy. An image acquisition deviceincludes: a first X-ray sourcethat applies X-rays having a first focal point size; a first detectorthat detects X-rays applied from the first X-ray sourceand having passed through a measured object O; a first image generation meansthat generates a first X-ray CT image on the basis of the X-rays detected by the first detector; a second X-ray sourcethat applies X-rays having a second focal point size smaller than the first focal point size; a second detectorthat detects X-rays applied from the second X-ray source and having passed through the measured object O; a second image generation meansthat generates a second X-ray CT image on the basis of the X-rays detected by the second detector; and an image correction meansthat corrects the first X-ray CT image generated by the first image generation meanson the basis of the second X-ray CT image generated by the second image generation means

Image acquisition device, image acquisition method, and image correction program

A normal suction pipeline () through which urea water that is sucked from a urea water tank () toward a urea water pump () flows and a heater-equipped return pipeline () through which the urea water that is returned from the urea water pump () toward the urea water tank () flows are connected between the urea water tank () and the urea water pump (). A supply pipeline () through which the urea water that is supplied toward a urea water injection valve () by the urea water pump () flows is connected between the urea water pump () and the urea water injection valve (). The heater-equipped return pipeline () is equipped with a heating wire (B) adapted to heat the urea water therein. The normal suction pipeline () is formed as a pipeline that is not equipped with the heater. The heater-equipped return pipeline () and the normal suction pipeline () are disposed in a state of contact with each other.

Construction machine

A device and a method for image reconstruction at different X-ray energies that make it possible to achieve image reconstruction with higher accuracy. A device for image reconstruction at different X-ray energies includes: an X-ray sourcethat irradiates a specimen to be imagedwith X-rays; an energy-dispersive detectorthat detects a characteristic X-ray emitted from the specimen to be imaged; a signal processor that quantifies the peak of the characteristic X-ray detected by the detector; and an image reconstruction device that reconstructs an image on the basis of a signal from the signal processor.

Hydraulic excavator

An exhaust pipe (A) in an engine () is provided with an exhaust gas purifying device () with a urea selective reduction catalyst (A) removing nitrogen oxides in an exhaust gas. The exhaust gas purifying device () is provided with a urea water injection valve () that injects urea water as a reducing agent to the upstream side of the urea selective reduction catalyst (A). The urea water injection valve () is connected to a urea water tank () through a urea water pump (). The urea water pump () is arranged in an upper side to the urea water tank (). A return conduit line () in which the urea water flows from the urea water pump () toward the urea water tank () is disposed in an upper-lower direction between the urea water pump () and the urea water tank ().

A cab rear extension beam () that is positioned in a front side to a heat exchanger () to support a rear side of said cab () is provided. The cab rear extension beam () includes a rising plate part (A) that rises from a bottom plate (), an upper horizontal plate part (B) that is bent from an upper end of the rising plate part (A) and extends to the rear side, and a space part (C) that is formed of the rising plate part (A) and the upper horizontal plate part (B), and is formed in a reverse L-letter shape as a whole. A urea water tank () is formed with a vertical tank part () that is positioned in a rear side and extends in an upper-lower direction and a lateral tank part () that extends from a lower part of the vertical tank part () to the front side, and is formed in an L-letter shaped vessel as a whole. Besides, the lateral tank part () of the urea water tank () is disposed in the space part (C) in the cab rear extension beam ().

A vehicle includes a vehicle side device having a vehicle side transmitting-receiving section performing wireless communicating with a seat belt side and a control section (determination section) determining an installation state, based on a signal from the seat belt side; and a seat belt side device having a seat belt side transmitting-receiving section performing wireless communicating with the vehicle side, a first switching unit of which switches the state according to detaching and installing of the seat belt and an output unit which outputs a detaching-installing signal to the seat belt side transmitting-receiving section in response to the state of the first switching unit. A power is fed to the seat belt side transmitting-receiving section and the output unit, and the signal is output and transmitted by the signal form the vehicle side transmitting-receiving section.

Vehicle including seat belt

An object of the present invention is to provide an antifungal agent which has excellent antifungal effects and is superior in terms of its physical properties, safety and metabolic stability. According to the present invention, there is disclosed a compound represented by the following formula (I), or a salt thereof: wherein R, R, X, Y, ring A, Z, Rand Rare as defined in the specification.

Heterocycles substituted pyridine derivatives and antifungal agent containing thereof

The information recording mediumcomprises an information layer having a metal layeron a substrate, wherein concavo-convex portion is formed in the substrate to give main information such as image and voice, and the metal layer contains Al, Si and M (wherein M is at least one element selected from a group consisting of Cr and Ni) and enables sub-information to be additionally recorded therein at low cost by laser-beamirradiation.

Optical information recording medium and method for producing same

It is an object of the present invention to provide an efficient method for manufacturing heterocycle-substituted pyridine derivatives. The present invention provides a method for manufacturing a compound represented by the following formula (I):   

Method for manufacturing heterocycle substituted pyridine derivatives

Growing community of inventors

Ibaraki, Japan

Shinya Abe