Canon Kabushiki Kaisha

Sony Corporation

Sony Semiconductor Solutions Corporation

Mitsubishi Gas Chemical Company, Inc.

Hitachi-kokusai Electric Inc.

Saturn Licensing LLC

Yokogawa Electric Corporation

Kabushiki Kaisha Toshiba

Mitsubishi Materials Corporation

Asahi Glass Company, Limited

Subaru Corporation

Agc Inc.

Hitachi, Ltd.

Nippon Telegraph and Telephone Corporation

Kobelco Construction Machinery Co., Ltd.

Satoshi Okada

Kazumi Nagano

Yoshihiro Ogawa

Keiichi Nomura

Kazuyuki Takahashi

Takashi Yokokawa

Yuichi Hirayama

Shinichi Takeda

Masato Inoue

Katsuro Takenaka

Yohei Ishida

Lachlan Bruce Michael

Makiko Yamamoto

Satoru Sawada

Takashi Kashiba

Tamotsu Ikeda

Ryoji Ikegaya

Yuji Takebayashi

Chiori Mochizuki

Naoki Yoshimochi

Hiroshi Kumai

Kenichi Kobayashi

Lothar Stadelmeier

Takuya Okamoto

Masakazu Morishita

Kosuke Takagi

Makoto Hasegawa

Tadao Endo

Eisuke Nishitani

Toshikazu Tamura

Hiroki Hotaka

Kazuhiko Shiono

Hirohisa Yamazaki

Minoru Watanabe

Hiroshi Yamamoto

Takamasa Ishii

Masahiro Yoshida

Koji Yamamoto

Hideyuki Matsumoto

Toshiyuki Miyauchi

Hiroyuki Kamata

Kentaro Nakahara

Satoshi Yamamoto

Shinpei Iwamoto

Shinichi Ikeda

Fumihiro Ito

Yoshito Sasaki

Tomoaki Ichimura

Kenichiro Usuda

Tomoyuki Tamura

Tsutomu Kato

Shota Arakawa

Shun Ogawa

Toshiya Takagi

Takeshi Ohno

Masaki Yoda

Akiya Nakayama

Shoshiro Saruta

Keigo Matsuura

Tetsuo Yamamoto

Noriaki Ooishi

Ryosuke Kobayashi

Lui Sakai

Eiichi Takami

Yuichi Mizutani

Akira Tago

Akihiro Yamane

Tatsuyuki Saito

Masataka Tamura

Osamu Shinya

Hiromi Kato

Akira Funakoshi

Takahiro Miura

Akihiro Masuda

Naoyuki Kono

Yukinao Kaga

Makoto Ochiai

Yuken Goto

Hidehiko Kuroda

Masahiro Takeuchi

Takashi Nakagawa

Kazunobu Sato

Kazunobu Maruo

Shintaro Kogura

Takumi Toida

Mitsuaki Shimamura

Hideki Soejima

Koji Naniwada

Hiromichi Nagayama

Hiroyuki Miyasaka

Motohiko Kimura

Itaru Chida

Satoshi Hoshino

Mitsuru Kono

Katsuhiko Hirano

Yoshiaki Ono

Kentaro Tsuchihashi

A system is capable of reducing effects of how much knowledge/experience a user has and making it easy for the user to decide a plan for work by a crane. It is possible to cause a user who has specified first carriage points through a terminal input interface to grasp an arrangement aspect and specifications of a crane for carrying materials to the first carriage points (or from the first carriage points) by the crane while avoiding interference of the crane and the materials with a building, through a secondary work situation image output to a terminal output interface of an information terminal.

Work planning assistance device and work planning assistance method

An optical filter includes: an absorption layer including a first near-infrared absorbing dye (D1), a second near-infrared absorbing dye (D2), and a transparent resin; and a reflection layer including a dielectric multilayer film. The dye (D1) and the dye (D2) are squarylium compounds satisfying following (1) to (3). (1) The dye (D1) has a maximum absorption wavelength λwithin a range of 680 to 730 nm, and the difference between a wavelength at which a transmittance is 80% on the shorter wavelength side than λwhen the concentration is adjusted such that a transmittance at λis 10%, and λis 100 nm or less. (2) The dye (D2) has a maximum absorption wavelength λwithin a range of 720 to 770 nm. (3) A value obtained by subtracting λfrom λis 30 nm or more and 85 nm or less.

Optical filter and imaging device

An icing detector includes an aircraft structure, an exposed member, an optical fiber sensor, and a measuring device. The exposed member is coupled to the aircraft structure and is exposed to an outside of the aircraft structure. The optical fiber sensor is coupled to the exposed member and is covered by one or both of the aircraft structure and the exposed member. The measuring device is configured to measure light received from the optical fiber sensor.

Icing detector

Information processing with flexibility in interpretation of a standard is disclosed. In one example, an output unit adds additional information related to the BB packet to output the BB packet to a baseband (BB) packet after an error correction decoding process. The additional information includes at least one of a delimiter, a precision time protocol (PTP), or BB packet information. The BB packet information includes at least one of information indicating whether or not reception of the BB packet is stable, information indicating whether or not there is an error in the BB packet, a packet length of the BB packet, a relative physical layer pipe (PLP) ID of the BB packet, or an absolute PLPID of the BB packet.

Information processing apparatus, information processing method, and non-transitory computer-readable media that add additional information to baseband packet

Provided is a multilayer vessel excellent in gas barrier performance and transparency and its application. The multilayer vessel contains a layer (X) that contains at least one type of polyolefin resin as the major ingredient; and a layer (Y) that contains a polyamide resin (A) as the major ingredient, the polyamide resin (A) being composed of a structural unit derived from diamine, and a structural unit derived from dicarboxylic acid, 70 mol % or more of the structural unit derived from diamine being derived from metaxylylenediamine, meanwhile 30 to 60 mol % of the structural unit derived from dicarboxylic acid being derived from straight chain aliphatic α,ω-dicarboxylic acid having 4 to 20 carbon atoms, and 70 to 40 mol % being derived from isophthalic acid.

Multilayer vessel, and application thereof

This technology relates to a transmission apparatus, a reception apparatus, and a data processing method for easily implementing circuits on the receiving side. There is provided a transmission apparatus including a processing section configured to process a stream with respect to each of multiple PLPs included in a broadcast signal, the stream being constituted by packets, the processing section further causing a header of each of the packets to include mapping information mapped to identification information identifying the PLP to which each of the packets belongs. This technology may be applied to data transmission methods such as the IP transmission method or the MPEG2-TS method, for example.

Transmission apparatus, reception apparatus, and data processing method

A reception apparatus includes a demodulation circuit configured to demodulate packets obtained with respect to each of multiple PLPs included in a broadcast signal; and a processing circuit configured to process the packets demodulated by the demodulation circuit. The demodulation circuit and the processing circuit are connected with each other via a single interface or interfaces fewer than the number of the PLPs. The demodulation circuit adds identification information to a specific packet among the packets obtained with respect to each of the PLP, the identification information identifying the PLP to which each of the packets belongs. The processing circuit identifies the PLP to which belongs each of the packets input from the demodulation circuit via the single interface or the interfaces fewer than the number of the PLPs, based on the identification information obtained from the specific packet.

Reception apparatus and data processing method

In a receiver that receives signals of the ATSC 3.0 standard, a terrestrial digital broadcasting signal is extracted from the received signals. A reception unit performs reception processing of sequentially receiving a predetermined number of reception target frames, each of which is a transmission unit of the terrestrial digital broadcasting signal. A reception interval acquisition unit obtains, as a reception interval, an interval between respective reception start timings of the predetermined number of reception target frames. A frame length acquisition unit acquires a frame length of each of the reception target frames on the basis of the reception target frames. A reception control unit stops the reception processing for a period of a length of a difference between the reception interval and the frame length.

Receiver and control method for receiver

A conversion apparatus improves utilization of definition information for system migration by including: a first conversion unit converting definition information about first rules for generating first data showing information about an operation of a migration source first system in a form depending on an implementation technique of the first system based on materials of the first system, according to a combination of first environment information showing an environment that the first system depends on and second environment information showing an environment that a migration destination second system depends on; a second conversion unit converting definition information about second rules for generating second data showing the information about the operation in a form not depending on a particular implementation technique based on the first data, according to the combination of the first environment information and the second environment information; and a third conversion unit converting definition information about third rules for generating third data showing the information about the operation in a form depending on an implementation technique of the second system based on the second data and the first data, according to the combination of the first environment information and the second environment information.

Conversion apparatus, conversion method and program

A data processing method is provided in which a transmission frame is received from a transmitting device. The transmission frame is based on a split stream for one of a plurality of channels and channel bonding signaling information. Further, the received transmission frame is processed. The channel bonding signaling information includes signature information that uniquely identifies the input stream, and the signature information is contained in a header of the transmission frame of a plurality of channels and transmits the split streams, for example.

Data processing device and data processing method

An optical filter includes: an absorption layer including a first near-infrared absorbing dye (D1), a second near-infrared absorbing dye (D2), and a transparent resin; and a reflection layer including a dielectric multilayer film. The dye (D1) and the dye (D2) are squarylium compounds satisfying following (1) to (3). (1) The dye (D1) has a maximum absorption wavelength &#x3bb;within a range of 680 to 730 nm, and the difference between a wavelength at which a transmittance is 80% on the shorter wavelength side than &#x3bb;when the concentration is adjusted such that a transmittance at &#x3bb;is 10%, and &#x3bb;is 100 nm or less. (2) The dye (D2) has a maximum absorption wavelength &#x3bb;within a range of 720 to 770 nm. (3) A value obtained by subtracting &#x3bb;from &#x3bb;is 30 nm or more and 85 nm or less.

The present technology relates to a demodulation device, a processing device, a reception device, and a data processing method for more flexibly coping with change in transmission method. A demodulation device includes a demodulation unit configured to demodulate a first transmission packet obtained from a broadcast signal, and an output unit configured to output a divided packet via a predetermined interface, the divided packet being obtained by dividing the first transmission packet that is a variable-length packet used in a first transmission method into a packet length according to a second transmission packet that is a fixed-length packet used in a second transmission method and arranging the first transmission packet in a payload, and adding a header including information for restoring the first transmission packet to the payload. The present technology can be applied to, for example, a demodulation IC incorporated in a television receiver or a set top box.

Demodulation device, processing device, reception device, and data processing method

There is provided a decoding circuit including; a first decoding unit that decodes a first signal from a multiplexed signal in which the first signal and a second signal are multiplexed in an LDM (Layered Division Multiplexing) system; and a second decoding unit that decodes the second signal from the multiplexed signal using the decoding result of the decoded first signal, wherein the second signal is selectively decoded based on noise information related to a reception state of the multiplexed signal.

Decoding circuit

A method for producing a sterilized oxygen-absorbing multilayer body is provided. The method may include: irradiating with radiation an oxygen-absorbing multilayer body comprising at least an oxygen-absorbing layer containing a transition metal catalyst and a thermoplastic resin (a) having a tetralin ring as a structural unit and a layer containing a thermoplastic resin (b); and heating the oxygen-absorbing multilayer body which has been irradiated with radiation in the sterilizing step at a temperature of the glass transition temperature of the thermoplastic resin (a) minus 20&#xb0; C. or more and lower than the glass transition temperature of the thermoplastic resin (a) for 50 hours or more.

Method for producing sterilized oxygen-absorbing multilayer body

To provide a demodulation circuit, a processing circuit, a processing method, and a processing device that are capable of implementing more prompt acquisition of alert information. Provided is a demodulation circuit including a demodulation unit configured to demodulate a broadcast signal received by a reception circuit that receives the broadcast signal, a determination unit configured to determine whether or not acquisition of alert information included in the demodulated broadcast signal is necessary according to a set operation mode, on the basis of first alert notification information indicating an update state of the alert information included in the demodulated broadcast signal, and an output processing unit configured to output second alert notification information corresponding to the operation mode from a predetermined terminal to which a processing circuit having a function to acquire the alert information is electrically connected, in a case where acquisition of the alert information is determined to be necessary.

Demodulation circuit, processing circuit, processing method, and processing device

Growing community of inventors

Tokyo, Japan

Satoshi Okada