Sony Corporation

Fuji Jukogyo Kabushiki Kaisha

Nec Corporation

Japan Display Inc.

Nippon Electric Co., Ltd.

Koninklijke Philips Corporation N.v.

Mitsubishi Denki Kabushiki Kaisha

Asahi Kasei Kabushiki Kaisha

Other

Matsushita Electric Industrial Co., Ltd.

Panasonic Corporation

Nippon Telegraph and Telephone Corporation

Omron Corporation

Calsonic Kansei Corporation

Mitsubishi Heavy Industries Limited

Hiroshi Ogawa

Shinichi Kawamura

Kiyoshi Abe

Kenichi Motomura

Hideo Saito

Tamotsu Yamagami

Cornelis Marinus Schep

Yoichiro Sako

Kazuo Kuroda

Hiroshi Igarashi

Takao Nakamura

Shinya Abe

Yasuhiro Yamamoto

Shigeru Furumiya

Makoto Takeuchi

Hiromichi Ishibashi

Yasuhiro Suzuki

Keiji Sato

Toshio Suzuki

Hiroyuki Tanaka

Junichi Minamino

Kentaro Odaka

Masanobu Yamamoto

Shunsuke Furukawa

Hiroshi Sakai

Aalbert Stek

Takeshi Inoue

Toshio Sato

Jakob Gerrit Nijboer

Shin-ichi Tanaka

Yoshiyuki Akiyama

Hideyoshi Horimai

Hitoshi Okada

Masahide Ogawa

Shinichiro Iimura

Fumiaki Sano

Takashi Sonoda

Takayuki Hagita

Yuichiro Kamino

Kazuhide Watanabe

Shin Masuhara

Akiyoshi Inoue

Norihide Kobayashi

Katsuhiro Fujita

Yasuhiro Iida

Takashi Tsuchiya

Susumu Kawaguchi

Takayuki Kuwahara

Mamoru Murakami

Kiyoharu Ikeda

Keiichi Morishita

Atsuki Tomioka

Nobuo Imai

Kazuhiko Suzuki

Kaichi Fukuda

Jacobus Petrus Josephus Heemskerk

Yoshinobu Komatsu

Yuya Yamamoto

Hideyuki Nakagawa

Masaya Miyazaki

Hitoshi Ishida

Yoshihiro Tsukamura

Yukio Michishita

Tatsushi Sano

Takefumi Nakanishi

Yoshihide Ogawa

Takeshi Fushiki

Naoki Kiyohara

Youichi Takashima

Minoru Ishii

Kornelis A Immink

Koya Mori

Minemasa Ota

Noboru Masuda

Jun Nakayama

Kazuhiro Murakami

Takaharu Kitada

Tetsu Sato

Yasuyuki Ukon

Shouji Taniguchi

Takashi Sebata

Masayuki Hanadate

Masafumi Hamasaki

Heitaro Nakajima

Madoka Minagawa

Koh Inamura

Takaharu Maeguchi

Kazuki Yokokawa

Hidekazu Ono

Masaki Kawasaki

Kouji Inoue

Yorihito Okuda

Ryutaro Kawamura

Katsumi Kawamoto

Kenji Ota

Toshihiko Ichikawa

Yukio Koike

Hiroo Inoue

Michinori Nakamura

Naruhiko Ito

According to one embodiment, a display device includes a lower electrode, a rib including an aperture overlapping the lower electrode, a partition on the rib, an upper electrode which is in contact with the partition, an organic layer between the lower electrode and the upper electrode, and a sealing layer above the upper electrode. The partition includes a lower portion provided on the rib, and an upper portion provided on the lower portion and including an end portion protruding from a side surface of the lower portion. The upper portion contains at least one of a conductive oxide and titanium.

Display device having a partition provided on a rib covering a part of a lower electrode and manufacturing method thereof

According to one embodiment, a manufacturing method is to manufacture a display device in which a partition including a lower portion and an upper portion arranged on the lower portion to protrude from a side surface of the lower portion is arranged on a boundary between adjacent sub-pixels, and the method comprises forming a metal layer above a substrate, forming the upper portion on the metal layer, reducing a thickness of a first portion of the metal layer exposed from the upper portion by anisotropic etching, and forming the lower portion by reducing a width of a second portion of the metal layer located under the upper portion by isotropic etching.

Method of manufacturing a display device in which a partition is arranged on a boundary between adjacent sub-pixels

According to one embodiment, a manufacturing method of a display device includes providing a processing substrate in which a lower electrode is formed on a stage inside a chamber, forming a first insulating layer overlapping the lower electrode in a state where a first distance is formed between the stage and a counter-electrode, and subsequently forming a second insulating layer on the first insulating layer in a state where a second distance greater than the first distance is formed between the stage and the counter-electrode, forming a rib by patterning the first insulating layer and the second insulating layer, forming a partition, forming an organic layer, forming an upper electrode, forming a cap layer, and forming a sealing layer.

Manufacturing method of display device

According to one embodiment, a display device includes a lower electrode, a rib formed of an inorganic insulating material and including an aperture overlapping the lower electrode, a partition including a lower portion and an upper portion, an organic layer provided on the lower electrode in the aperture, an upper electrode provided on the organic layer, a cap layer provided on the upper electrode, and a sealing layer. An edge of the aperture includes a first linear portion, a second linear portion and a curved portion connected to the first linear portion and the second linear portion. An angle between the first linear portion and the second linear portion is greater than or equal to 90°.

Display device

According to one embodiment, a method of manufacturing a display device includes forming a lower electrode, forming an insulating layer covering the lower electrode, forming a partition including a lower portion on the insulating layer and an upper portion protruding from a side surface of the lower portion, forming, after the forming of the partition, a pixel aperture in the insulating layer, forming an organic layer in contact with the lower electrode via the aperture, forming an upper electrode which covering the organic layer and patterning the organic layer and the upper electrode to form a display element.

Method of manufacturing display device

According to one embodiment, a display device comprises a first lower electrode, a rib including a first pixel aperture, a partition including a lower portion on the rib and an upper portion protruding from a side surface of the lower portion, a first upper electrode, and a first organic layer between the first lower electrode and the first upper electrode. The lower portion includes a bottom layer and a stem layer on the bottom layer. The bottom layer is formed of a material which has a smaller etching rate to a mixed acid containing phosphoric acid, nitric acid, and acetic acid than the stem layer and which is conductive.

The present invention includes a memory and a processor configured to store, in a storage, a first digital twin in which at least one model defining at least one function of an entity at a given time, and at least one piece of second data that includes, as a constituent element, first data for realizing the function of the entity due to being input to the model are included, create at least one second digital twin by performing predetermined first computation using, as a computation target, at least one first digital twin stored in the storage, and execute computation for arranging the second digital twin in a sandbox for which a predetermined time axis has been set, and realizing a function of an entity indicated by the second digital twin in the sandbox in accordance with the time axis.

Digital twin computing apparatus, digital twin computing method, program and data structure

A flexographic printing raw plate comprising at least a support, a photosensitive resin composition layer, an intermediate layer, and an infrared ablation layer sequentially stacked, wherein

Flexographic printing raw plate and manufacturing method of flexographic printing plate

There is provided a method for heating a thermoplastic plate to be subjected to bending which is horizontally arranged while holding at least part of a peripheral edge portion of the thermoplastic plate, causing a portion inside the peripheral edge portion to sag under a self-weight, and bending the thermoplastic plate to a desired curvature. The method includes applying tension in a planar direction of the thermoplastic plate at the time of holding at least the part of the peripheral edge portion of the thermoplastic plate in a molding frame defining a peripheral edge shape in a shape as a goal for reshaping. Since the thermoplastic plate is pulled in the planar direction during the heating of the thermoplastic plate, moderate tension acts on the thermoplastic plate to prevent breakage. The degree of curvature of the thermoplastic plate can be adjusted by adjusting the mass of each weight.

Thermoplastic plate bending method, working jig, and concave thermoplastic plate

The present invention provides a photosensitive resin composition for a flexographic printing plate, the photosensitive resin composition including at least a hydrophilic copolymer (A), a thermoplastic elastomer (B), a photo-polymerizable monomer (C), a photo-polymerization initiator (D), a plasticizer (E), and an acidic group-containing polymer (F), wherein the photosensitive resin composition for the flexographic printing plate has an acid value of 1 to 100 mgKOH/g, as measured by neutralization titration.

Photosensitive resin composition for flexographic printing plate, flexographic printing original plate, flexographic printing plate, and copolymer

A method for manufacturing a compressor scroll that appropriately impinges cavitation bubbles on target regions of a scroll. The method includes the step of water jet peening by jetting cavitation bubbles generated underwater by a water jet at a first side of an end plate (A) of the scroll (), with a center (P, P, P) of the cavitation bubbles being offset from a center (O) of the spiral shape of a wall portion (B) on the end plate (A) and the step portion (Aa) and the stepped portion (Ba) positioned at an outer peripheral portion of the cavitation bubbles (C).

Method and device for manufacturing compressor scrolls, compressor scroll, and scroll compressor

A front-wheel speed is calculated as a wheel speed of driving wheels, a rear-wheel speed is calculated as a wheel speed of driven wheels, a rear-wheel acceleration is calculated as a wheel acceleration of the driven wheels, a front-wheel-speed difference value is calculated as a driving-wheel-speed difference value, a rear-wheel-speed difference value is calculated as a driven-wheel-speed difference value, a rear-wheel-acceleration difference value is calculated as a driven-wheel-acceleration difference value, and a front-wheel ground load is calculated as a ground load acting on the driving wheels. Based on these calculated values, a gradient of a tire-characteristic curve indicating an amount of change in road-surface friction coefficient with respect to an amount of change in slip rate is calculated, and the calculated gradient of the tire-characteristic curve is compared with preset threshold values, whereby a road-surface friction coefficient as a road-surface condition can be determined.

Road-surface condition estimating device

In a driving apparatus for a hybrid vehicle, a travel motor is provided on a rear end of the power unit such that power from the travel motor is transmitted to a differential mechanism from a motor shaft via a gear train and a pinion shaft. Further, an engine is provided on a front end of the power unit, and a generator is provided in the center of the power unit. The engine and the generator are coupled via a gear train, and a generator shaft is disposed above a crankshaft. Thus, a space can be secured below the generator so that the pinion shaft can be disposed below the generator.

Driving apparatus for hybrid vehicle

Growing community of inventors

Tokyo, Japan

Hiroshi Ogawa