Hitachi, Ltd.

Johns Hopkins University

University of Utah Research Foundation

Maxell, Ltd.

Dai Nippon Printing Co., Ltd.

Sony Corporation

Imperial Chemical Industries Limited

Other

Honda Motor Co., Ltd.

Bridgestone Corporation

Subaru Corporation

The University of Tokyo

Toppan Printing Co., Ltd.

Hitachi High-tech Corporation

Fuji Electric Co., Ltd.

Yusuke Nakamura

Bert Vogelstein

Hiroyuki Minemura

Takuya Tsunoda

Sachiko Yoshimura

Tomohisa Watanabe

Ryuji Ohsawa

Kenneth W Kinzler

Shuichi Nakatsuru

Raymond L White

Toyomasa Katagiri

Ryuji Osawa

Yasuharu Nishimura

Kazuyuki Tajima

Yoichi Furukawa

Takeshi Shimano

Mayumi Nakade

Keisuke Inata

Shinichiro Gomi

Masami Ogata

Naoki Nishimura

Osamu Kawamae

Koji Yamasaki

Hideaki Tahara

Tomoya Kawashima

Masato Ushikusa

Shinji Yamamoto

Toshihiro Tanaka

Mitsuharu Ohki

Takahiro Kurokawa

Kazuhiko Ueda

Hideo Kanai

Hiroki Yoshioka

Hiroshi H Eguchi

Koichiro Nishimura

Megumi Kurachi

Keisuke Miura

Masaru Suzuki

Masayuki Kobayashi

Takashi Nitta

Satoshi Matsushima

Kenji Tanimoto

Yasunori Kanai

Yusuke Abe

Masakazu Ikeda

Tomonori Masuno

Chiyo Ohno

Takeyoshi Ohashi

Yoko Nakamura

Tomoyuki Ozawa

Yusuke Hagiwara

Kazuhiro Koizumi

Hans Albertsen

Alexander Fred Markham

Rakesh Anand

Mary Carlson

Philip John Hedge

Geoff Joslyn

Andrew Thliveris

Joanna Groden

Joel R Walker

Yataro Daigo

Shoji Hisada

Yo Matsuo

Gaku Nakayama

Feryan Ahmed

Raymond Huntley

Motoki Kuhara

Norio Ishii

Takaaki Sato

Helene Decornez

Hideyuki Okamoto

Manabu Katsuki

Isao Miyatani

Ryuji Hamamoto

Wenge Cui

Yasunari Hatasawa

Tomohiro Endo

Kouichi Ozaki

Shungo Chino

Noritomo Hirayama

Hajime Ishihara

Takashi Iida

Keita Yamaguchi

David Jenkins

Hiroyuki Kuroki

Shuichi Akashi

Kumiko Kambara

Ryosuke Goto

Yusuke Tomita

Atsushi Neo

Eiji Kawata

Masatsugu Hori

Makoto Yamaki

Yoshinori Murata

Tomoaki Fujioka

Midori Shida

Eiji Ichihara

Aritoshi Iida

Takao Ikezawa

An organic device includes an outer edge, a wiring area and a display area that includes a first electrode, an organic layer on the first electrode and a second electrode on the organic layer. The wiring area includes a reference electrode connected to the second electrode and defining a reference potential. The display area includes a first area and a second area bordering the first area. The second area includes a normal area including the second electrode and transmission areas not including the second electrode and arranged in a first direction. The second electrode of the normal area includes connecting portions connected to the second electrode of the first area. The connecting portions include a first connecting portion located on the side of the first side in a second direction. The first connecting portion includes a facing connecting portion located between the transmission areas in the first direction.

Organic device and manufacturing method for organic device

A mask group may include two or more masks. When a section in a normal direction is viewed, a region-defining straight line may be defined as a straight line that forms an angle θ together with a first surface. The region-defining straight line may intersect the first surface at a first intersection point. An effective region may be defined as a region inside the first intersection point in the through-hole, and a peripheral region may be defined as a region outside the first intersection point in the through-hole. The angle θ may be 35° or more and 70° or less. The penetration region in the second mask region may include a hole overlapping region in which the through-holes of two masks overlap. The hole overlapping region may include a first hole overlapping region in which the peripheral regions of the through-holes of the two masks overlap.

Mask group, method of manufacturing organic device and organic device

A three-dimensional data processing device according to the present invention detects each of a first area at a first time and a second area at a second time as an area including a subject in three-dimensional data, and calculates a difference of the three-dimensional data between the first time and the second time using coordinate transformation between the first area and the second area.

Three-dimensional grid-based data processing device and three-dimensional grid-based data processing method

The problem to be solved by the invention is to accurately detect a distant object while preventing an increase in cost. An object recognition device includes: an imaging unit configured to acquire a plurality of thermal images having an object captured therein; a stereo matching unit configured to perform stereo matching using the plurality of thermal images and calculate a distance to the object; a specific temperature region extracting unit configured to extract a specific temperature region from the thermal images; and an area ratio estimating unit configured to estimate, based on the distance to the object calculated by the stereo matching unit, a ratio of an area of the object included in a pixel for the specific temperature region.

Object recognition device and object recognition method

A vehicle control apparatus includes an air flow sensor provided in an intake passage of an engine. The vehicle control apparatus includes a control system configured to read an output signal from the air flow sensor as first flow rate data. The control system is configured to calculate a coefficient of variation of the first flow rate data, and subject the first flow rate data to a smoothing process to calculate second flow rate data. The control system is configured to correct the second flow rate data based on the coefficient of variation, to calculate corrected flow rate data indicating the intake air flow rate in the intake passage.

Vehicle control apparatus

An object of the invention is to acquire a high-quality image while maintaining an improvement in throughput of image acquisition (measurement (length measurement)). The present disclosure provides a charged particle beam system including a charged particle beam device and a computer system configured to control the charged particle beam device. The charged particle beam device includes an objective lens, a sample stage, and a backscattered electron detector that is disposed between the objective lens and the sample stage and that adjusts a focus of a charged particle beam with which a sample is irradiated. The computer system adjusts a value of an electric field on the sample in accordance with a change in a voltage applied to the backscattered electron detector.

Charged particle beam system

A vehicle body rear structure includes: a rear wheel house; a rear cross member located on a vehicle width direction inner side of a lower portion of the rear wheel house and extending in a vehicle width direction; a pillar extending upward from an upper portion of the rear wheel house; a wheel house reinforcing member extending along the rear wheel house and connecting between the rear cross member and the pillar; a retractor functioning as a seat belt winding device; and a bracket configured to fix the retractor to a vehicle body. The bracket has one end portion connected to the wheel house reinforcing member. The bracket has another portion extending from the one end portion in the vehicle forward direction or in the vehicle rearward direction and connected to the rear wheel house.

Vehicle body rear structure

A first belt cord made of organic fibers of a spirally wound belt layer extends at an angle of equal to or less than 5° relative to a tire equatorial plane, a second belt cord made of organic fibers of a zigzag belt layer extends at an inclination of an angle of 2° to 45° relative to the tire equatorial plane, to folding back points where the second belt cord is folded back at each width directional end edge of the zigzag belt layer, and a relation of N>Nis satisfied. Nis the number of stacked belt layers of the spirally wound belt layers, at 50% of half the length of a maximum belt width of belt layers from the tire equatorial plane. Nis the number of stacked belt layers of the spirally wound belt layers, at 95% of half the length of the maximum belt.

Aircraft pneumatic tire

The imaging device includes: a modulator configured to modulate a light intensity in accordance with a real pattern; an image sensor configured to create a sensor image in accordance with the modulated light; and a micro lens array including a plurality of micro lenses arranged to correspond to a plurality of pixels of the image sensor. The imaging device has a distribution property of a relative positional difference amount between a center position of a light receiver of each pixel of the plurality of pixels and a center position of each micro lens of the plurality of micro lenses of the micro lens array in a plane of the image sensor. This property has at least one point or more with a changing difference value of the difference amount between the adjacent pixels from a positive value to a negative value or from a negative value to a positive value.

Imaging device and method

An imaging device includes a modulator, a first grating pattern constituted by a plurality of lines, and a second grating pattern having a phase deviating from a phase of the first grating pattern, and modulates light intensity. The imaging device receives a first image signal output by the first grating pattern and a second image signal output by the second grating pattern, calculates difference data and a range of a difference between the first image signal and the second image signal, generates and sets a data conversion parameter at a regular interval from the difference data that is continuously input on the basis of the range of the difference and the difference data, generates compression image data by using the difference data and the data conversion parameter, compresses the generated compression image data, and includes information indicating the range of the difference into the compressed data.

Imaging device having a modulator that includes at least a first grating pattern and a second grating patern having a phase deviating from a phase of the first grating pattern

An interframe difference processorgenerates a difference image between frames of a sensor image, and an image processorgenerates distance information indicating a distance to a photographic subject on the basis of calculation of a difference image and a developing pattern. Thus, since a video display apparatusgenerates the difference image between the frames of the sensor image, it is possible to realize a distance measuring apparatus capable of reducing an influence of a background and generating distance information with high accuracy.

Distance measuring apparatus, imaging device, distance measuring system, distance measuring method, and imaging method

A modulator has a first grating pattern, and a second grating pattern having a phase shifted from the first grating pattern; a sensor processor receives a first image signal outputted by the first grating pattern, and a second image signal outputted by the second grating pattern; a difference processor calculates a difference between the first image signal and the second image signal; and a compression processorcontains information that indicates a range of the difference to first compression image data. Those make it possible to reduce a data amount of images capable of focus adjustment etc. from later, and to lead to reduction in costs of a storage apparatus.

Imaging apparatus and imaging system

A modulator of a distance measuring sensor unithas a photographing pattern that includes a plurality of patterns different from each other, and modulates intensity of light. A gesture detecting unit divides image data obtained by receiving light transmitted through the modulator by the image sensor; restores an image by calculation based on a developing pattern corresponding to the photographing pattern in a divided unit; and obtains an image for detecting gesture of a user. This makes it possible to obtain an image of an object in an outside world without using a lens for forming an image. Therefore, it is possible to reduce a load on a user when the user wears the apparatus.

Image display apparatus and image display method

A method for manufacturing a laminated glass whereby, in a laminated glass comprising a liquid crystal film sandwiched therein and having a three-dimensionally curved surface shape, the formation of wrinkles in the liquid crystal film can be suppressed; and a laminated glass which has a three-dimensionally curved surface shape and in which wrinkles in a liquid crystal film sandwiched therein are suppressed. The method for manufacturing the laminated glass comprises: a heat molding step for heating the liquid crystal film to a temperature higher than the glass transition point of the first base material layer and the second base material layer; and a bonding step for, after completing the heat molding step, heating the laminate, wherein the liquid crystal film is sandwiched between the first glass sheet and the second glass sheet, at a temperature lower than the glass transition point and bonding the same by applying a preset pressure.

Method for manufacturing laminated glass, laminated glass and light control film

Imaging device and imaging system

Growing community of inventors

Tokyo, Japan

Yusuke Nakamura