Kabushiki Kaisha Toshiba

Other

Nippon Steel Corporation

Daicel Chemical Industries, Ltd.

Ricoh Company, Ltd.

National Institutes of Health, a Component of the US Dept. of Health & Human Services

Nichia Corporation

Spansion Llc.

Fujitsu Corporation

Siemens Aktiengesellschaft

Cypress Semiconductor Corporation

Denso Corporation

Stanley Electric Co., Ltd

Nippon Steel & Sumitomo Metal Corporation

Asahi Kasei Kabushiki Kaisha

Takashi Sato

Soichi Inoue

Kazuya Fukuhara

Keiji Matsumoto

Shoji Mimotogi

Shinichi Ito

Satoshi Tanaka

Tadahito Fujisawa

Hiroaki Hazama

Makoto Nakase

Akiko Mimotogi

Dennis M Klinman

Keiji Horioka

Tsukasa Azuma

Shuichi Tamamushi

Tatsuhiko Higashiki

Yoshiaki Hanyu

Takashi Sakamoto

Toshio Fujita

Masafumi Asano

Hiroyuki Miura

Takahiro Ikeda

Ryoichi Inanami

Koji Hashimoto

Kazunori Watanabe

Masaru Suzuki

Toshiya Kotani

Katsuhiko Hieda

Masahiko Shimizu

Tsuyoshi Shibata

Yuji Kobayashi

Yasushi Hasegawa

Shinya Inagaki

Tomoaki Takeyama

Hiroshi Nomura

Koichi Kokubun

Richard J Penneck

Daisuke Kawamura

Seiji Miyoshi

Katsuro Kuroki

Hiroshi Miyairi

Kan Tomita

Ichiro Mori

Hiroaki Okuchi

Kenji Takato

Keiko Sasaki

Shigeki Takayama

Masaki Sano

Masahiro Sasagawa

Haruki Komano

Ayako Nakano

Yoko Tomofuji

Shin-ichi Ito

Masato Yamada

Satoshi Shirahama

Bernhard Poschenrieder

Shigeru Hasebe

Keita Asanuma

Shuhei Sato

Kohji Tamura

Hitomi Kumazaki

Toshiaki Saruwatari

Ken Ryu

Yoshiyuki Shioyama

Yumi Nakajima

Yongfang Li

Junichiro Iba

Kenzo Iwayama

Shinichi Sekikawa

Hiroyuki Mimura

Go Tanaka

Hiroki Kubozono

Kentaro Kasa

Hisashi Naoi

Masahiro Kagotani

Toru Ozaki

Hitomi Hanyu

Masato Saito

Masaki Satake

Yoshiaki Morimoto

Hirohide Oikawa

Takuya Kouno

Yoshihiro Kojima

Naofumi Ueda

George Frederick Hopper

Hiromi Nakafutami

Yuji Komori

Kazunari Tsubaki

Jun Yonezawa

Yozo Iketani

Manabu Yamada

Sigeru Sasaki

Takumichi Sutani

Noboru Yokoya

Shojiro Kawakami

Hiroyuki Ujiie

Takayuki Kawashima

Wataru Ishikawa

Shuheui Sato

Masanori Furuta

According to an embodiment, a core catcher has: a main body including: a distributor arranged on a part of a base mat in the lower dry well, a basin arranged on the distributor, cooling channels arranged on a lower surface of the basin connected to the distributor and extending in radial directions, and a riser connected to the cooling channels and extending upward; a lid connected to an upper end of the riser and covering the main body; a cooling water injection pipe open, at one end, to the suppression pool, connected at another end to the distributor; and chimney pipes connected, at one end, to the riser, another end being located above the upper end of the riser and submerged and open in the pool water.

Core catcher and boiling water nuclear plant using the same

According to an embodiment, an emergency core cooling system has: three active safety divisions each including only one motor-driven active safety system; one passive safety division including a passive safety system; an emergency power source disposed in each of the active safety divisions to supply electric power to the motor-driven active safety system; and an advanced passive containment cooling system disposed in the passive safety division. Only two active safety divisions each includes a low pressure flooder system that is commonly used with a residual heat removal system as the only one motor-driven active safety system. The other active safety division includes an air-cooled injection system as the only one motor-driven active safety system.

Emergency core cooling system and boiling water reactor plant using the same

An operating floor confinement has an operating floor, a sidewall that surrounds the operating floor, a ceiling that is provided on an upper portion of the sidewall, a reactor well, a fuel pool, a dryer and separator pit, an equipment hatch that is provided on the sidewall, an air lock that is provided on the sidewall, and an isolation valve that is provided in a penetration line. The operating floor confinement forms a pressure boundary having pressure resistance and a leakage protection function. The operating floor confinement is separated from an equipment area of the reactor building and has no blowout panel.

Operating floor confinement and nuclear plant

A passive containment cooling and filtered venting system includes: an outer well; a scrubbing pool arranged in the outer well; a cooling water pool installed above the dry well and the outer well; a heat exchanger partly submerged in the cooling water; a gas supply pipe that is connected to the inlet plenum of the ruin of the heat exchanger at one end and connected to a gas phase region of the containment vessel at the other end; a condensate return pipe that is connected to the outlet plenum of the heat exchanger at one end, and connected to inside the containment vessel at other end; and a gas vent pipe that is connected to the outlet plenum of the heat exchanger at one end and is submerged in the scrubbing pool at other end.

Passive containment cooling and filtered venting system, and nuclear power plant

A nuclear power plant according to an embodiment comprises: a reactor well; a reactor well upper lid; an operation floor; an operation floor area wall; a standby gas treatment system; and a reactor well exhaust section to release the gas inside the reactor well to the environment without releasing the gas into the operation floor area in an event of a predetermined accident, e.g., causing diminished cooling of a containment vessel or otherwise increasing its temperature. The standby gas treatment system includes: a suction pipe to take in gas inside the reactor building; an exhaust fan; a standby gas treatment system exhaust pipe; a heater that is disposed between the suction pipe and the standby gas treatment system exhaust pipe; and a filter to filter the gas heated by the heater and to send the gas to the standby gas treatment system exhaust pipe.

Nuclear power plant and reactor building gas treatment system

According to one embodiment, a pattern transfer mold includes a base body, first and second stacked bodies, first and second electrodes. The base body includes a base unit including a first surface, a first protrusion provided on the first surface and having a first side surface, and a second protrusion provided on the first surface, separated from the first protrusion, and having a second side surface opposing the first side surface. The first stacked body is provided on the first side surface, and includes first conductive layers and a first insulating layer. The second stacked body is provided on the second side surface, separated from the first stacked body, and includes second conductive layers and a second insulating layer. The first electrode is electrically connected to at least one of the first conductive layers. The second electrode is electrically connected to at least one of the second conductive layers.

Pattern transfer mold and pattern formation method

Methods are disclosed herein for treating a subject with a lung cancer. The lung cancer can be small cell carcinoma of the lung or non-small cell carcinoma of the lung. The methods include locally administering to the subject a therapeutically effective amount of the polyketal particle comprising a CpG oligodexoynucleotide. Optionally, the polyketal particle can include an imidazoquinoline compound.

Polyketal particles including a CpG oligodeoxynucleotide for the treatment of lung cancer

A method and apparatus store a command in a command register and set, with a control circuit, a first operation mode associated with a split transaction for freeing a bus in a time period between a command transfer request and a command transfer operation. The method and apparatus set, with the control circuit, a second operation mode in which a split transaction is not issued and transfer, with the control circuit, the command to a processing unit via the bus in response to the command transfer request when in the second operation mode where after the processing unit executes the command and issues a subsequent command transfer request to the control circuit, the control circuit performs the split transaction when in the first and second operation modes.

Debug control circuit

A method for manufacturing a light emitting device having a light emitting element and a resin layer containing fluorescent material particles and a filler which reflects light comprises a fluorescent material precipitation process for precipitating the fluorescent material particles in advance of the filler. A light emitting device comprises a base body; a light emitting element mounted on an upper surface of the base body via a mounting portion; and a sealing resin for sealing the light emitting element. The sealing resin comprises: a fluorescent material-containing first layer for covering the light emitting element on and above the mounting portion, a fluorescent material-containing second layer formed on an upper surface of the base body around the mounting portion, and a filler-containing layer formed on the fluorescent material-containing second layer around the mounting portion.

Light emitting device and method for manufacturing a light emitting device

According to one embodiment, a pattern formation method includes preparing a mask pattern for interference, producing Talbot interference, and forming a pattern by blocking a part of interference light. The mask pattern for interference is arranged periodically a plurality of light transmissive portions. The Talbot interference is based on a transmitted light. The transmitted light is transmitted through the light transmissive portions by applying a light to the mask pattern for interference. The part of interference light is produced by the Talbot interference by means of a mask pattern for light blocking and applying another part of the interference light transmitted through the mask pattern for light blocking to an exposure object member.

Pattern formation method, mask for exposure, and exposure apparatus

A current measurement unit measuring power supply currents each consumed in a plurality of circuit blocks of which at least one of the circuit blocks includes a processor, and outputting the measurement result as the power supply current values. A selection unit selecting at least one of the power supply current values according to selection information. A trace buffer sequentially holding the power supply current values being selected by the selection unit together with execution information of the processor, and sequentially outputting the held information. By selecting the power supply current values of the circuit blocks required for debugging according to the selection information, the number of external terminals of a semiconductor integrated circuit required for the debugging which includes tracing the power supply current values may be reduced. As a result, a chip size of the semiconductor integrated circuit with a debug function may be reduced.

Semiconductor integrated circuit, operating method of semiconductor integrated circuit, and debug system

A method for manufacturing a light emitting device that comprises a light emitting element and a phosphor layer to absorb at least a part of light emitted from the light emitting element to emit a light having a different wavelength from that of the absorbed light comprises a first resin layer forming step of forming a first resin layer with a first resin in which viscosity is adjusted to a first viscosity on a light emitting face of the light emitting element to define a predetermined shape of the phosphor layer; a second resin layer forming step of forming a second resin layer with a second resin containing a phosphor in which viscosity is adjusted to a second viscosity lower than the first viscosity on the first resin layer before curing the first resin layer; and a curing step of curing the first resin layer and the second resin layer.

Method for manufacturing light emitting device and light emitting device

An emergency core cooling system is provided with a hybrid safety system composed of an active safety system and a static safety system for ensuring the safety against a severe natural phenomenon such as a giant earthquake and a mega hurricane. An emergency core cooling system for a boiling water reactor includes four safety divisions in total: three safety divisions for an active safety system having a high pressure reactor core cooling system, a low pressure reactor core cooling system, a residual heat removal system, and an emergency diesel generator; and one safety division for a static safety system having an isolation condenser, a gravity drop reactor core cooling system, and a static containment vessel cooling system.

Emergency core cooling system

Growing community of inventors

Yokohama, Japan

Takashi Sato