Canon Kabushiki Kaisha

The Yokohama Rubber Co., Ltd.

Kabushiki Kaisha Toshiba

Hitachi, Ltd.

Panasonic Corporation

Matsushita Electric Industrial Co., Ltd.

Nec Corporation

Max Co., Ltd.

Nisshin Steel Co., Ltd.

Ricoh Company, Ltd.

Oki Electric Industry Co., Ltd.

Sony Corporation

Tdk Corporation

Fujitsu Corporation

Panasonic Intellectual Property Management Co., Ltd.

Masaki Sato

Satoshi Mihara

Motoya Ito

Hideo Kobayashi

Tetsuya Itano

Kunio Nobori

Koichiro Iwata

Yu Arishima

Noriyoshi Takahashi

Kei Ochiai

Masatoshi Watanabe

Akihiro Fukutomi

Atsushi Tanaka

Kazuo Yamazaki

Daisuke Kobayashi

Makoto Ashiura

Hirofumi Ishii

Kazufumi Mizusawa

Toshio Oka

Miyoshi Takahashi

Tatsuya Arai

Yasuhiro Oguro

Seiju Suzuki

Akino Inoue

Hironori Okuda

Kotaro Ogawa

Masahiro Kobayashi

Shigeru Atsumi

Kazuhiko Takahashi

Junichi Abe

Kohichi Nakamura

Masayuki Taniguchi

Hiroaki Kameyama

Hidemi Noguchi

Kazuto Kuroda

Kazushi Kimura

Takeo Hattori

Shinichiro Kosugi

Masahiro Sekino

Shigeru Hoashi

Atsushi Ikeno

Tomonao Takamatsu

Mitsunobu Yoshida

Hideki Yamamoto

Satoshi Senga

Makoto Iida

Kazuyoshi Shinada

Toshimasa Takaki

Takafumi Nakahama

Masao Gotoh

Yuichi Obara

Shinji Saito

Kazuhiro Saito

Daisuke Yoshida

Masahiro Matsumoto

Seiichi Mori

Sumio Tanaka

Akira Yoshimura

Kazumi Kimura

Hiroshi Kawamura

Akihiro Suzuki

Shuichi Sugita

Hidekazu Shimomura

Kazunori Hashimoto

Hidetoshi Watanabe

Tatsuya Ryoki

Toshihiro Ohtani

Mineo Uchida

Yuji Segawa

Wataru Nakahori

Noriyuki Shimizu

Osamu Sasaoka

Nobuaki Ohtsuka

Hiroshi Nishikawa

Kenji Yoshioka

Shinichi Ueda

Hirokazu Kageyama

Kuniyoshi Yoshikawa

Hitoshi Ueno

Hiroaki Asano

Tetsuo Furukawa

Naoya Amino

Yoshiaki Takada

Satoru Masuda

Mitsuo Baba

Yoshihiro Kameda

Tomohiko Nakamura

Junji Kajihara

Masatoshi Kuriyama

Tadashi Koga

Kazuya Uenishi

Shuji Nishitani

Eiki Takeshima

Michio Miwa

Hideki Shingu

Toshio Saito

Hiroshi Endo

Yu Shinke

Masatoshi Shimizu

A distortion compensation filter whose filter coefficient is adaptively controlled compensates for a distortion included in a reception signal obtained by performing coherent reception of a signal transmitted from a transmitter in a receiver. A group delay ripple calculation device calculates a group delay included in the reception signal based on a filter coefficient of a distortion compensation filter and calculates group delay ripple from the calculated group delay. The feedback calculation unit calculates a phase response based on the calculated group delay ripple. The feedback calculation unit feeds the calculated phase response back to one or more filters having a phase compensation function disposed in a stage before an adaptive equalization filter included in the receiver, and causes one or more filters to at least partially compensate for the group delay ripple.

Communication system, receiver, compensation amount calculation apparatus, distortion compensation method, and non-transitory computer readable medium

A gas compressor includes a main body portion including a compression unit configured to compress gas, an air blowing unit, and a drive unit configured to drive the compression unit and the air blowing unit, a cover portion covering at least a part of the main body portion and having an air vent through which air flows from the air blowing unit, and a handle portion having a gripping portion. The air vent faces a rotation axis direction of a rotation member of the air blowing unit which is rotated by being driven by the drive unit, and the handle portion includes a protective portion facing the air vent and being apart from the air vent.

Gas compressor

In a photoelectric conversion device, in a first period in which a respective different offset voltage is supplied to a comparator included in each of a plurality of AD conversion circuits, a control unit performs control to bring the offset voltage into a first driving state in which a voltage change amount per unit time of the offset voltage is a first voltage amount, and, in a second period in which a ramp signal is supplied to the comparator included in each of the plurality of AD conversion circuits, the control unit performs control to bring the ramp signal into a second driving state in which a voltage change amount per unit time of the ramp signal is a second voltage amount, wherein the first voltage amount is larger the second voltage amount.

Photoelectric conversion device, driving method for photoelectric conversion device, and apparatus

Reciprocating compressor

A photoelectric conversion device includes pixels each including a plurality of photoelectric conversion elements and arranged in a matrix, and a control circuit that controls the pixels on row-by-row. Each pixel may output a first signal corresponding to charge generated by the first photoelectric conversion element and a second signal corresponding to charge generated by the first and second photoelectric conversion elements. The control circuit performs a first reset operation and a first readout operation for reading out the second signal on pixels in a first row, and performs a second reset operation, a second readout operation for reading out the first signal, and a third readout operation for reading out the second signal on pixels in a second row. The control circuit performs a third reset operation on pixels of any one of rows in a period one before a period during which the second reset operation is performed.

Photoelectric conversion device and method of driving photoelectric conversion device

A laminated film including a barrier layer and at least one adjacent layer that is adjacent to the barrier layer, in which the barrier layer has a barrier base material and a coat layer that is provided on one surface of the barrier base material so as to face the adjacent layer, the coat layer is composed of an aluminum particle layer composed of aluminum particles and a resin composition that is loaded into gaps in the aluminum particle layer, and the barrier base material and the adjacent layer include the same resin.

Laminated film and packaging bag

A photoelectric conversion device includes a pixel array having aperture pixels arranged so as to form rows and columns, signal lines arranged in the pixel array so as to allow readout of signals from the aperture pixels, current sources connected to the signal lines, a first voltage supply line configured to supply a first reference voltage to the aperture pixels, a first pad connected to the first voltage supply line, a bias circuit configured to supply a bias voltage to the current sources, a second voltage supply line electrically separated from the first voltage supply line, and configured to supply a second reference voltage to the bias circuit, and a second pad connected to the second voltage supply line.

Pixel array having separate voltage supply lines for pixels and bias circuitry

The disclosed apparatus includes a plurality of differential transmitters, and a power supply circuit that supplies a power supply voltage to each of the plurality of differential transmitters. The power supply circuit includes a common circuit unit that defines the power supply voltage supplied to the plurality of differential transmitters, and a plurality of individual circuit units provided in association with the plurality of differential transmitters and each connected to the common circuit unit. Each of the plurality of individual circuit units has an output node that outputs the power supply voltage defined by the common circuit unit to a corresponding differential transmitter of the plurality of differential transmitters, and respective output nodes of the plurality of individual circuit units are connected to each other.

Apparatus, power supply circuit, photoelectric conversion device, imaging device and movable object

An image forming apparatus includes an apparatus body and a moveable unit. The apparatus body includes an image forming device and a restriction portion. The moveable unit includes an image reading device and is detachably attached to the apparatus body. The moveable unit is opened and closed with respect to the apparatus body by rotation about a rotation shaft when the moveable unit is attached to the apparatus body. The moveable unit is attached to and detached from the apparatus body by moving in an axial direction of the rotation shaft. The moveable unit further includes a restricted portion that engages with the restriction portion that restricts a movement of the moveable unit in the axial direction. The restriction portion or the restricted portion further includes a deformation portion having elasticity. The deformation portion is deformed so that the moveable unit is attached to and detached from the apparatus body.

Image forming apparatus

An optical signal processing circuit () includes: an FDE-MIMO equalizer () configured to generate, based on continuous subcarrier signals including a target subcarrier signal in an optical multicarrier signal to be received, the continuous subcarrier signals that have been subjected to frequency-domain MIMO equalization processing; and a TDE-MIMO equalizer () configured to generate, based on the continuous subcarrier signals that have been subjected to the frequency-domain MIMO equalization processing, the target subcarrier signal that has been subjected to time-domain MIMO equalization processing.

Optical signal processing circuit, optical reception apparatus, and optical signal processing method

In order to estimate a polarization fluctuation speed with high accuracy independently of the quality of a received signal, a polarization-fluctuation estimating device according to the present invention includes: a polarization de-multiplexing unit that generates a single-polarization optical signal from an input polarization-multiplexed optical signal; a photoelectric converting unit that converts the generated optical signal into an electrical signal; and an estimation unit that estimates the polarization fluctuation speed of the polarization-multiplexed optical signal in accordance with the electrical signal.

Polarization-fluctuation estimating device and polarization-fluctuation estimating method

An object of the present invention is to provide a method of producing a copolymer that produces an aromatic vinyl-diene copolymer having a low glass transition temperature, and a method of producing a rubber composition using the method. The subject method produces an aromatic vinyl-diene copolymer having a content of repeating units derived from an aromatic vinyl in an amount of 18 mass % or greater, and among repeating units derived from a diene, a proportion of a vinyl structure of 8 mol % or less, a proportion of a 1,4-trans structure of 60 mol % or less, and a proportion of a 1,4-cis structure from 40 to 95 mol %, the method including copolymerizing a monomer containing an aromatic vinyl and a diene using an initiator prepared with an organolithium compound, an alkylaluminum, a metal alcoholate, and at least one polar compound selected from the group consisting of water and an alcohol.

Production method for aromatic vinyl-diene copolymer and production method for rubber composition

An image forming apparatus includes an image forming portion, a frame, which is a part of a main assembly frame, extending along a predetermined plane, a cover provided outside of the frame and extending along the predetermined plane and a circuit board, provided between the frame and the cover with in a direction perpendicular to the predetermined plane and extending along the predetermined plane. An opening portion penetrating the circuit board is formed in the circuit board. The frame includes a first abutting portion protruding toward the circuit board and the cover includes a second abutting portion protruding toward the circuit board. The first and second abutting portions are opposite to each other via the circuit board and positioned in an area where the opening portion of the circuit board is sandwiched therebetween in the direction perpendicular to the predetermined plane.

Image forming apparatus having circuit board positioned to minimize damage from drops during shipping

A photoelectric conversion apparatus includes a first substrate including a pixel array including a plurality of pixels, a second substrate layered on the first substrate and including an AD conversion portion including a plurality of AD conversion circuits configured to convert a signal output from the first substrate into a digital signal, wherein the second substrate further includes a plurality of signal processing units including a first signal processing unit and a second signal processing unit both configured to perform machine learning processing, wherein each of a plurality of sets includes a plurality of AD conversion circuits that differ between the plurality of sets, wherein the first signal processing unit is arranged to correspond to one of the plurality of sets, and wherein the second signal processing unit is arranged to correspond to another one of the plurality of sets.

Photoelectric conversion apparatus, photoelectric conversion system, moving body

A photoelectric conversion apparatus includes a second substrate including a signal processing circuit configured to perform signal processing using machine learning on a signal output from the first substrate. The second substrate is disposed on the first substrate in a multilayer structure. The signal processing circuit is so disposed to overlap with a pixel array but not overlap with a light-shielded pixel area as seen in a plan view.

Photoelectric conversion apparatus, photoelectric conversion system, and mobile body

Growing community of inventors

Kanagawa, Japan

Masaki Sato