Showa Denko K.k.

Hitachi Global Storage Technologies Netherlands B.v.

Nissan Motor Company Limited

International Business Machines Corporation

Western Digital Technologies, Inc.

Sony Corporation

Kyorin Pharmaceutical Co., Ltd.

National Institute of Advanced Industrial Science and Technology

Hgst Netherlands, B.v.

Aska Pharmaceutical Co., Ltd.

Toyota Jidosha Kabushiki Kaisha

Ajinomoto Co., Ltd.

Osaka University

Deed Corporation

Hiroshi Uchida

Isao Yoneda

Tetsuo Semba

Toshio Fujita

Naoyuki Kagami

Tetsuo Ueda

Akira Tokizono

Shinichiro Takemoto

Hideki Ohzeki

Kazuhiko Sato

Masanao Hara

Hidehiko Numasato

Katsutoshi Morinaka

Shrey Khanna

Kentaro Kono

Nobutoshi Sasaki

Ritsuko Azuma

Masataka Hanada

Yuji Kobayashi

Tetsuya Tamura

Kexiu Liu

Tadashi Iino

Kazuyuki Ishibashi

Akira Asagarasu

Mirei Hosono

Kazuhisa Shishida

Yoshikazu Arai

Etsuko Kadowaki

Chikako Sakagami

Terutoshi Kumaki

Kentaro Seki

Ritsuko Hirakawa

Yoshikazu Miyazaki

Masanori Ookoshi

Katsutoshi Ohno

Masashi Kisaka

Katsuaki Suganuma

Naoya Fukumoto

Kazuya Kimura

Nobuyuki Nagato

Gaku Ikedo

Takashi Toyooka

Yoshiaki Sonobe

Kenji Okada

Satoshi Noda

Matthew Taylor White

Takeshi Saito

Kenji Tomida

Kazuhiko Ooga

Masaharu Yoshida

Craig N Fukushima

Takenori Atsumi

Hirotoshi Kamata

Shigetaka Uehara

Takashi Kuroda

Takeshi Chawanya

Kevin Tzou

Takamitsu Kobayashi

Masaru Ihara

Mitsuhiro Imaizumi

Kazunari Tsuchimoto

Teruaki Matsui

Toyokazu Kaneko

Hiroshi Oshikawa

Takayuki Kinoshita

Jiro Abe

Kazuaki Usui

Minoru Takaishi

Masao Shimizu

Tomokazu Umezawa

Tomoyuki Oyama

Yoshihiro Kon

Akinori Yuba

Chikako Sasaki

Takeshi Onoda

Yoshihiro Ikeda

Yuko Sakata

Satoru Ishigaki

Tomofumi Yoshinaga

Yoshio Miyajima

Noboru Suzuki

Kenji Takada

Tadayoshi Takahara

Tomoaki Eto

Tsuyoshi Fujiwara

Isao Odaka

Katsura Horikoshi

Yifan Tang

Kenichiro Takiguchi

Masahito Nitta

Susumu Itoh

Katsuhiko Kuroda

Yoshiuki Tagashira

Akira Yokozuka

Yosuke Takenaka

Kuniaki Ohtsuka

Shinichi Masubuchi

Koichiro Murahashi

Norihito Isomura

Yasutaka Takemura

A control method for controlling a fuel cell system includes: setting a fuel composition and a fuel flow rate to a combustor as unknown numbers and setting conditions of an air flow rate to the combustor; estimating composition ratios of the components constituting the mixed gas based on simultaneous equations including at least one of a first characteristic equation based on a relationship between an amount of air supplied to and an oxygen concentration in an exhaust gas discharged from the combustor and a second characteristic equation based on a relationship between the amount of air supplied to and a temperature of the exhaust gas discharged from the combustor, and a composition equation representing a sum of the composition ratios of the types of the components of the mixed gas; and adjusting a flow rate of the fuel supplied to the fuel cell based on the estimated composition ratios.

Method for controlling fuel cell system and fuel cell system

Various illustrative aspects are directed to a data storage device, method, and one or more processing devices that are configured to: select a seek time model from a plurality of seek time models based at least in part on an operational characteristic of an access command, the operational characteristic relating to an off-track susceptibility of executing the access command; determine an access time for the access command using the selected seek time model; and select a next access command for execution based on the determined access time for the access command and determined access times for other ones of a plurality of access commands.

Data storage device sorting access commands based on performance and off-track mitigation optimization

A method produces a high-pressure gas storage container that includes a liner and a reinforcing layer. The liner houses a high-pressure gas. The reinforcing layer is formed by winding a plurality of strip-shaped reinforcing members around an outer perimeter surface of the liner. The method includes irradiating plasma on at least a portion of the reinforcing fibers, and adjusting an irradiation intensity of the plasma such that an irradiation amount of the plasma with respect to the reinforcing fibers becomes constant in accordance with changes in a transport speed of the reinforcing fibers.

Method for producing high-pressure gas storage container

A structure includes a reinforcing member made up of reinforcing fibers that are impregnated with a resin. The reinforcing member includes a first region and a second region. The first region is formed by irradiating the reinforcing fibers with plasma. The second region is formed by irradiating the reinforcing fibers with a smaller amount of the plasma than the first region. The reinforcing member is provided such that the first region is positioned in a location where more strength is required than the second region.

Structure and method for manufacturing structure

A high-pressure gas storage container includes a liner and a reinforcing layer. The liner houses a high-pressure gas. The reinforcing layer is formed by winding a plurality of strip-shaped reinforcing members around an outer perimeter surface of the liner. The reinforcing members are made of a plurality of reinforcing fibers that are impregnated with a resin. At least a portion of the reinforcing fibers is irradiated with plasma.

High-pressure gas storage container and method for producing high-pressure gas storage container

A data storage device comprising a first actuator configured to actuate a first head over a first disk surface, and a second actuator configured to actuate a second head over a second disk surface. A plurality of access commands are received from a host, and a cost metric is computed for executing a seek to execute each access command of the plurality of access commands, wherein the cost metric is based on an access latency of the seek, a power consumption of the seek, and an estimated combined current draw of the first and second actuators during the seek. The access commands are sorted into an execution order based on the cost metrics computed for the access commands.

Data storage device sorting access commands based on peak current for multiple actuators

A data storage device is disclosed comprising a first actuator configured to actuate a first head over a first disk surface, and a second actuator configure to actuate a second head over a second disk surface. A first seek of the first head over the first disk surface is initiated during a first seek time based on a first seek profile. A second seek of the second head over the second disk surface is initiated during a second seek time based on a second seek profile. When the second seek time at least partially overlaps the first seek time and at least the second seek profile is a de-rated seek profile, the second seek profile is adjusted to avoid an overcurrent condition.

Data storage device managing peak current for multiple actuators

Provided is a process for producing a compound, which has an oxo group specifically introduced on the 15-position of a steroid skeleton and which is useful as an intermediate, with a high yield without complicated steps. A compound represented by the formula (2) is allowed to react with an oxidant (e.g., a hypervalent iodine compound) and a co-oxidant (e.g., a peroxide) to produce a 15-oxosteroid compound represented by the formula (1), which is useful as an intermediate: wherein Rto Rare the same or different and each represent a halogen atom, an alkyl group, a haloalkyl group, an alkoxy group, or a haloalkoxy group, Rrepresents a hydrogen atom, a halogen atom, an alkyl group, an alkoxy group, an acyl group, or an alkoxycarbonyl group, Rrepresents a hydrogen atom, an alkyl group, or an acyl group, Rrepresents a hydrogen atom, an alkyl group, an acyl group, or a sulfonyl group, X represents an oxygen atom (O) or a methylene group (CH).

15-oxosteroid compound and process for producing the same

A fuel gas filling system detects at least one of a pressure of fuel gas supplied from a filling device and a temperature of the fuel gas in a fuel tank of a vehicle and determines whether or not there is a gas state fluctuation in which the pressure or temperature of the fuel gas suddenly changes. The fuel gas filling system executes either one of a first filling control of filling the fuel gas into the vehicle on the basis of at least one of the fuel gas pressure and the fuel gas temperature and a second filling control according to the gas state fluctuation. This system executes the first filling control in normal time and executes the second filling control of filling the fuel gas without using a fuel gas pressure detected by fuel gas state detection unit or the second filling control of filling the fuel gas without using a fuel gas temperature detected by the fuel gas state detection unit when it is determined by gas state fluctuation determination unit that there is the gas state fluctuation.

Fuel gas filling system and fuel gas filling method

A high-pressure gas container () includes an inner layer () configured such that high-pressure gas is filled inside, a boss part (--) provided at least at one position of the inner layer and configured to cause the gas to flow in and out, and an outer layer () configured to cover an outer periphery of the inner layer to reinforce the inner layer and having a higher gas barrier property than the inner layer. A gas discharge port (--) is provided between the boss part and the outer layer, and a gas ventilation part () is formed between the inner layer and the outer layer such that the gas having permeated through the inner layer is discharged into atmosphere through the gas discharge port.

High-pressure gas container

[Problem] To provide a novel pharmaceutical composition which can suppress delayed, release of the compound represented in general formula (1) or a salt thereof. [Solution] This solid pharmaceutical composition contains the compound represented in general formula (1), or a salt thereof, and a salting-out agent.

Solid pharmaceutical composition

A data storage device comprising a head actuated over a disk comprising a plurality of tracks. The head is positioned over a target track, and a sampled position error signal (PES) is generated representing a position of the head relative to the target track. The sampled PES is filtered with a servo compensator to generate a sampled control signal, and the sampled control signal is upsampled to generate an upsampled control signal. The sampled PES is upsampled to generate an upsampled PES, and the upsampled PES is processed to generate compensation values. The upsampled control signal is combined with the compensation values to generate a compensated control signal, and the position of the head over the target track is adjusted based on the compensated control signal.

Data storage device employing upsampling to compensate for high frequency repeatable runout

[Problem] To provide a novel pharmaceutical composition which contains a medically active component and which can suppress delays in the release of said component due to gelling. [Solution] This solid pharmaceutical composition contains a compound represented by general formula (1), or a salt thereof, a cellulosic excipient, and a salting-out agent.

[Problem] To provide a solid pharmaceutical composition which contains a compound represented by general formula (1) or a salt thereof and suppresses decomposition of said compound or salt thereof, and a production method of said solid pharmaceutical composition. [Solution] This solid pharmaceutical composition contains a compound represented by general formula (1) or a salt thereof, a cellulosic excipient, and an acidic substance of pH 4.0 or less.

Provided is a transparent conductive ink which contains metal nanowires and/or metal nanotubes as a conductive component and can form a coating film which has good conductivity and a high light transmittance property, and also provided is a transparent conductive pattern forming method wherein this transparent conductive ink is used for forming a transparent conductive pattern by simple production steps, to thereby suppress the production cost and environmental load. At least one of metal nanowires and metal nanotubes are dispersed in a dispersion medium containing a shape-holding material which contains an organic compound having a molecular weight in the range of 150 to 500 and which has a viscosity of 1.0&#xd7;10to 2.0&#xd7;10mPa&#xb7;s at 25&#xb0; C., to prepare a transparent conductive ink. A transparent conductive pattern is formed by printing a pattern having an arbitrary shape on a substrate using this transparent conductive ink, subjecting the pattern to a heating treatment to dry the pattern, and subjecting the pattern which has been dried to pulsed light irradiation.

Transparent conductive ink and transparent conductive pattern forming method

Growing community of inventors

Kanagawa, Japan

Hiroshi Uchida