Nissan Motor Company Limited

Hitachi, Ltd.

Fujitsu Corporation

Kabushiki Kaisha Toshiba

Toyota Jidosha Kabushiki Kaisha

Hitachi Global Storage Technologies Netherlands B.v.

Fuji Xerox Co., Ltd.

Hgst Netherlands, B.v.

Mitsubishi Chemical Corporation

Western Digital Technologies, Inc.

Mitsubishi Kasei Corporation

Nec Corporation

Rohm Co., Ltd.

Canon Medical Systems Corporation

Autoliv Development Ab

Hideaki Tanaka

Masakatsu Hoshi

Tetsuya Hayashi

Shigeharu Yamagami

Yoshio Shimoida

Masayuki Kurita

Saichirou Kaneko

Hidekazu Kohira

Masaaki Matsumoto

Takanori Yamazaki

Yoshihiko Miyake

Kiyoshi Hashimoto

Kenichi Gomi

Tatsuya Haga

Yoshiki Kato

Toshiya Shiramatsu

Teruyoshi Higashiya

Youichi Inomata

Hiroshi Yashiki

Mike Suk

Shozo Saegusa

Masaki Ohura

Wataru Ogihara

Shinji Yamamoto

Remmelt Pit

Junguo Xu

Tatsuo Nitta

Koji Miyake

Atsushi Kato

Mikio Tokuyama

Yohji Maruyama

Yoshinori Takeuchi

Teruyoshi Mihara

Yoshinori Murakami

Hajime Satou

Hiroyuki Miyata

Shigeru Tadokoro

Shinsuke Higuchi

Tatsuro Sasamoto

Takeshi Sumikawa

Isao Ito

Hiroaki Etoh

Kotaro Watanabe

Iwao Soga

Ichiro Oodake

Tooru Fuse

Nobuyuki Ishiwatari

Masahiro Kataoka

Masaaki Suzuki

Shigeo Nakamura

Takuji Matsumoto

Takashi Nakano

Takashi Nakamura

Katsuro Watanabe

Tsuyoshi Tanabe

Yoshihiro Shiroishi

Yoshitada Oshida

Kenji Sato

Takeshi Harada

Tomohiro Okada

Manabu Tanaka

Kraisorn Throngnumchai

Tomoo Kobayashi

Yoshimasa Kobayashi

Hiromitsu Tokisue

Hisato Takemoto

Takayoshi Ohtsu

Akiyoshi Sanada

Masaya Okamoto

Kensuke Yamamoto

Nobuaki Nonoyama

Haruhide Takahashi

Nobumasa Furuya

Hiroki Okabe

Kenji Furusawa

Noriaki Okamoto

Tetsu Mitsuo

Takuya Kurihara

Mineo Miura

Kazuo Mineno

Hidemi Sato

Norikazu Tsumita

Gentaro Kano

Shigehito Ando

Yuki Shimizu

Fumishige Shizuku

Kazuo Maruyama

Noriaki Kawamoto

Shigetaka Hamada

Tsukasa Fujimori

Daisuke Nakai

Shigeru Shimizu

Toshiro Shinohara

Shigeo Ohno

Takao Terabayashi

Fuminori Ishikawa

Makoto Yoshida

Taiyou Uehara

Akira Morinaga

Hiroya Nakaji

Provided is an air-cooled fuel cell system, wherein the air-cooled fuel cell system comprises a fuel cell, an oxidant gas system and a cooling gas system; wherein the fuel cell comprises a fuel cell stack comprising stacked unit fuel cells; wherein each of the unit fuel cells comprises a cathode separator having an oxidant gas flow path in a wavy plate form, a membrane electrode gas diffusion layer assembly, an anode separator having a fuel gas flow path in a wavy plate form, and a cooling fin having a cooling gas flow path in a wavy plate form; and wherein the air-cooled fuel cell system has a cooling ability distribution in an oxidant gas flow direction of the oxidant gas flow path.

Air-cooled fuel cell system

A carbon material may include granulated particles satisfying (1L) and (2L):

Carbon material, method for producing carbon material, and non-aqueous secondary battery using carbon material

A carbon material for a non-aqueous secondary battery containing a graphite capable of occluding and releasing lithium ions, and having a cumulative pore volume at pore diameters in a range of 0.01 μm to 1 μm of 0.08 mL/g or more, a roundness, as determined by flow-type particle image analysis, of 0.88 or greater, and a pore diameter to particle diameter ratio (PD/d50 (%)) of 1.8 or less, the ratio being given by equation (1A): PD/d50 (%)=mode pore diameter (PD) in a pore diameter range of 0.01 μm to 1 μm in a pore distribution determined by mercury intrusion/volume-based average particle diameter (d50)×100 is provided.

According to one embodiment, a recording medium controller includes a recording medium, an input module, a reading module, and a writing module. The recording medium includes a write area and an escape area. The write area includes track groups. Each of the track groups is a unit for writing data and includes tracks. The input module receives a write command for data. The reading module reads data stored in the escape area and data from a first track group of the track groups. The writing module writes data received for the write command to the escape area, and writes merged data obtained by merging the data read from the escape area and the data read from the first track group to each track of a second track group of the track groups by using a shingle recording technique in which adjacent tracks are partly overlapped with each other.

Recording medium controller and method thereof

An image displaying system according to an embodiment includes an observation target device, a display device and processing circuitry. The display device is configured to display an image. The processing circuitry is configured to: arrange a three-dimensional model relating to the observation target device in a virtual space; acquire data indicating a relative positional relationship between an operator and the observation target device; generate an image of a three-dimensional model included in a blind area when viewed from the operator, based on the data indicating the relative positional relationship and on the three-dimensional model arranged in the virtual space; and display the image on the display device.

Image displaying system, image processing apparatus and x-ray imaging system

A separator for a fuel cell, includes: a metal plate; a first electro-conductive resin layer formed on a first surface side of the metal plate; a second electro-conductive resin layer formed on a second surface side of the metal plate opposite to the first surface side; and a flow channel in which the metal plate and the first and second electro-conductive resin layers have a wavy shape in cross section.

Separator for fuel cell, fuel cell, and manufacturing method of separator for fuel cell

A manufacturing method of a separator for a fuel cell, includes: setting a metal plate and first and second electro-conductive resin sheets between first and second dies; and forming a flow channel in the metal plate and the first and second electro-conductive resin sheets by hot pressing with the first and second dies.

Manufacturing method of separator for fuel cell

A developer container includes a container body, a transport unit, a support unit, and a protrusion. The container body includes a cylindrical accommodating space that accommodates a developer, and a discharge port. The transport unit transports the accommodated developer toward the discharge port by a transport blade. The transport blade moves so as to pass closely to an inner wall of the accommodating space. The support unit rotatably supports a rotating shaft of the transport unit. The support unit includes a connecting component that connects to an external element to receive external rotational power. The protrusion protrudes inward from the inner wall. When the transport unit reversely rotates in an opposite direction to a rotational direction in transporting the developer, the transport blade passes in contact with the protrusion and vibrates so as to touch the inner wall of the accommodating space.

Developer container and image forming apparatus

A manufacturing method of a separator for a fuel cell, including: preparing a first die including: a first convex surface and a first concave surface; and a first side surface connected between the first convex surface and the first concave surface; preparing a second die including: a second concave surface and a second convex surface respectively facing the first convex surface and the first concave surface; and a second side surface facing the first side surface and connected between the second concave surface and the second convex surface; preparing a metal plate having a flat plate shape, and two electro-conductive resin sheets; and forming a flow channel in the metal plate and the two electro-conductive resin sheets by hot pressing with the first and second dies.

A verification method includes: receiving encoded data that is encoded by an encoding dictionary in which a tag name and a definition value of each of a plurality of tags are associated with a code corresponding to the tag name and the definition value of each of the plurality of tags, by a processor; and when decoding the encoded data, when decoding a code associated with a processing function from among codes registered in the encoding dictionary, performing verification processing of decoded data, which has been decoded, by using the processing function, by the processor.

XML verification apparatus, verification method, encoding apparatus, encoding method, and computer-readable recording medium

To improve cycle durability in an electrical device such as a lithium ion secondary battery including a negative electrode containing a silicon-containing negative electrode active material, an electrical device includes a power generating element containing a unit cell layer. The unit cell contains a positive electrode in which a positive electrode active material layer containing a positive electrode active material is formed on a surface of a positive electrode current collector, a negative electrode in which a negative electrode active material layer containing a silicon-containing negative electrode active material is formed on a surface of a negative electrode current collector, and a separator. In the unit cell layer, the electrical device satisfies formula (1): 0.91&#x2264;C/A&#x3c;0.99 where the area of the negative electrode active material layer is A [m] and the area of the positive electrode active material layer is C [m].

Electrical device

A method for producing a lithium ion secondary battery comprising the positive electrode active material of formula (1), LiMnMO(x satisfies 0&#x3c;x&#x3c;1) . . . (1) (M in the formula is a lithium-containing transition metal oxide expressed by NiCoMnM1(in which 0&#x3c;a&#x2264;0.5, 0&#x2264;b&#x2264;0.33, 0&#x3c;c&#x2264;0.5, and 0&#x2264;d&#x2264;0.1 are satisfied, the sum of a, b, c, and d becomes 1, and M1 in the formula is an element selected from Li, V, Al, Zr, Ti, Nb, Fe, Cu, Cr, Mg, and Zn)). The method comprises a step to repeat charge-discharge multiple times (charge-discharge interval), and comprises a step to discharge a at a lower current density than the current density during charge a, during the discharge of the multiple charges-discharges, or, a step to discharge b at a lower current density than the current density during charge a after the electromotive force is naturally recovered by idle b after each charge-discharge.

Method for producing lithium ion secondary battery

A non-aqueous electrolyte secondary battery includes: a negative electrode active material represented by the Formula (1)=&#x3b1; (Si material)+&#x3b2; (carbon material), wherein the Si material is one or more kinds selected from the group consisting of SiOthat is a mixture of amorphous SiOparticles and Si particles and a Si-containing alloy; &#x3b1; and &#x3b2; represent % by mass of each component in the layer; and 80&#x2264;&#x3b1;+&#x3b2;&#x2264;98, 0.1&#x2264;&#x3b1;&#x2264;40, and 58&#x2264;&#x3b2;&#x2264;97.9 are satisfied, and a difference between the maximum value and the minimum value of an area proportion (%) of a binder in an area of the field of view of each image of cross-sections of the layer in a case where a plurality of arbitrary places is selected in a plane of the negative electrode active material layer is within 10%.

Non-aqueous electrolyte secondary battery

A separator for fuel cell includes a corrugated portion formed to have a corrugated cross section where a first groove that is concave to a first surface to form a flow path for a first fluid on the first surface and a second groove that is concave to a second surface opposite to the first surface to form a flow path for a second fluid on the second surface are arranged alternately and repeatedly. Each of the second grooves has at least one shallower groove section formed to have a less depth from the second surface than depth of a remaining groove section and provided to form a communication flow channel on the first surface side, which is arranged to communicate between two flow path spaces for the first fluid that are adjacent to each other across the shallower groove section.

Separator for fuel cell, fuel cell and method of manufacturing fuel cell

In a non-aqueous organic electrolyte secondary cell, the counter charge capacity ratio (A/C) between the cathodes and the anodes represented by the following formula is set to within the range from 1.10 to 1.35,=&#x3b2;&#xd7;(anode charge capacity&#xd7;&#x3b1;)/(cathode charge capacity&#xd7;&#x3b7;&#xd7;&#x3c4;)where &#x3b1; is the electrode area coefficient defined as (anode area)/(cathode area) and &#x3b1;&#x3e;1.0, &#x3b2; is a design coefficient and 0.85&#x2264;&#x3b2;&#x2264;1.15, &#x3b7; is the charge-discharge efficiency ratio defined as (charge-discharge ratio at 25&#xb0; C.)/(charge-discharge ratio at 55&#xb0; C.), and &#x3c4; is the temperature characteristic coefficient defined as (charge capacity at 55&#xb0; C.)/(charge capacity at 25&#xb0; C.).

Non-aqueous organic electrolyte secondary cell

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Yokohama, Japan

Hideaki Tanaka