Shinko Electric Industries Co., Ltd.

Shigeaki Suganuma

Michio Horiuchi

Misa Watanabe

Yasue Tokutake

Fumimasa Katagiri

Jun Yoshiike

Shuji Yamazaki

Naoyuki Koizumi

Yasunobu Inoue

Kazunori Sato

Kei Murayama

Masahiro Sunohara

Ryo Fukasawa

Tomotake Minemura

Masaya Tsuno

Masakuni Kitajima

Ryuichi Matsuki

Hiroyuki Miyajima

Manabu Takezawa

Takashi Wakabayashi

Ryuhei Katayama

Katsuyuki Sakamaki

An electrostatic chuck includes: an insulating plate consisting of alumina, and YAG (Yttrium Aluminum Garnet) added with cerium, and configured to mount a substrate thereon; and an electrode which is embedded in the insulating plate and configured to generate electrostatic force for adsorbing the substrate.

Electrostatic chuck and substrate fixing device

An SOgas sensor includes a first solid electrolyte member composing a part of a wall of a gas reduction chamber and provided with a first gas introducing hole for introducing sample gas into the gas reduction chamber, an oxidation part for oxidizing noise gas other than the SOgas in the sample gas, and a reduction mechanism for reducing the SOgas in the sample gas, in the gas reduction chamber; a communication unit provided with a second gas introducing hole for introducing the sample gas into a gas measurement chamber from the gas reduction chamber; and a second solid electrolyte member composing a part of a wall of the gas measurement chamber and provided with an oxidation mechanism for oxidizing the SOgas, and a measurement mechanism for measuring the concentration of the SOgas, in the gas measurement chamber.

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To an internal vessel that houses cells of a solid oxide fuel cell, an external vessel is further disposed. In the internal vessel, a plurality of planar cells is disposed vertically with a gap between the cells, a mixed gas of a fuel and air is descended from top down through the gap having a predetermined width between the cells, and, at a bottom portion of the housing space, the mixed gas is burned to generate electricity.

Solid oxide fuel cell

A heat radiation component configured to be provided through a thermal interface material on a semiconductor device mounted on a board includes a first layer to be positioned on a first side and a second layer stacked on the first layer to be positioned on a second side farther from the semiconductor device than the first side. The coefficient of thermal expansion of the second layer is lower than the coefficient of thermal expansion of the first layer.

Heat radiation component and semiconductor package including same

A wiring substrate includes a wiring layer made of copper, an electrode layer made of copper, and an insulating layer arranged adjacent to the electrode layer. The wiring layer is stacked on the electrode layer and the insulating layer. The insulating layer and the wiring layer are stacked with an adhesive layer interposed between the insulating layer and the wiring layer. The electrode layer and the wiring layer are stacked with a copper alloy layer formed adjacent to the adhesive layer and interposed between the electrode layer and the wiring layer.

Wiring substrate and manufacturing method thereof

The present invention relates to a solid electrolyte fuel-cell device wherein a plurality of fuel cells are formed on a single plate. A plurality of cathode layers are formed on one surface of the flat plate-like solid electrolyte substrate, and a plurality of anode layers on the opposite surface thereof, and each fuel cell is formed from a pair of the cathode layer and the anode layer. An electromotive force extracting lead wire is attached to the cathode layer, and a lead wire is attached to the anode layer. The plurality of fuel cells are connected in series by electrically connecting the cathode layer of one fuel cell to the anode layer of an adjacent fuel cell. Flames formed by combustion of a fuel such as a methane gas are supplied to the entire surface of each anode layer, and air is supplied to each cathode layer.

Solid electrolyte fuel-cell device

A solid electrolyte fuel cell comprising a cathode layerformed on one side of a solid electrolyte layerand an anode layerformed on the other side of the solid electrolyte layer, wherein the cathode layercomprises a first cathode layerformed in contact with the solid electrolyte layer and a second cathode layerformed covering the first cathode layer, the second cathode layeris formed having a higher porosity than the first cathode layerand the first cathode layeris divided into a plurality of island-shaped portions

Solid electrolyte fuel cell including a first cathode layer and a second cathode layer

A direct-flame fuel cell according to the invention has a cell in which a solid electrolyteis sandwiched between an anodeand a cathode. The anodecontains one or more kinds of alkaline metal compounds or alkaline earth metal compounds which are effective in suppressing soot generation due to exposure to a flame. Where the anodeincludes two or more layersand, the one or more kinds of alkaline metal compounds or alkaline earth metal compounds are contained in the outermost layer

Direct-flame fuel cell

A solid oxide fuel cell includes: a solid electrolyte; and electrodes on both surfaces of the solid electrolyte, wherein at least one of joint surfaces where the solid electrolyte and the electrodes are in contact with each other is a roughened surface having at least two different types of surface roughness.

Solid oxide fuel cell and method of manufacturing the same

A wiring board includes a plate-shaped resin member; chip connection pads provided in the resin member, the chip connection pads having connection surfaces electrically connected to electrode pads provided on a semiconductor chip, the connection surfaces being situated in substantially the same plane as a first surface of the resin member, the first surface being a side where the semiconductor chip is mounted; pads provided in a portion of the resin member, the portion being situated outside an area where the chip connection pads are formed; lead wirings connected to the pads; and conductive wires sealed by the resin member, the conductive wires electrically connecting the chip connection pads and the pads to each other.

Wiring board having efficiently arranged pads

A solid electrolyte fuel cell configuration provided with a single sheet shaped solid electrolyte substrate formed with a plurality of fuel cells and thereby not having a sealed structure, achieving a reduction of the size and a reduction of the cost, and able to improve the durability and improve the power generation efficiency, a single sheet shaped solid electrolyte substrate, in particular a solid electrolyte fuel cell configuration provided with a single sheet shaped solid electrolyte substrate, a plurality of anode layers formed on one side of the solid electrolyte substrate, and a plurality of cathode layers formed on the side opposite to the one side of the solid electrolyte substrate at positions facing the anode layers, the anode layers and cathode layers facing each other across the solid electrolyte substrate forming a plurality of fuel cells, the anode layers and cathode layers being connected in series.

Solid electrolyte fuel cell configuration

A multilayer wiring board includes: a substrate; connection pads arranged in a square grid fashion; and wiring patterns. Relationship between the connection pads and the wiring patterns satisfies: {(Ndl+1)P&#x2212;d&#x2212;s}/(w+s)&#x3e;2Ndr+Ndl(a+1)+2, wherein P is a pitch of the connection pads, d is a diameter of the connection pads, s is a minimum interval between the wiring patterns and is a minimum interval between the wiring pattern and the connection pad that are adjacent to each other, w is a minimum width of the wiring patterns, Ndl is the number of non-pad rows in each of the non-pad regions, Ndr is the number of non-pad columns in each of non-pad region, and a is an integer of (P&#x2212;d&#x2212;s)/(w+s).

Multilayer wiring board and semiconductor device

A solid oxide fuel cell comprising a fuel cell unit which comprises an anode layer made of an electrically conducting mesh and an anode-forming material carried by this mesh, a cathode layer made of an electrically conducting mesh and a cathode-forming material carried by this mesh, and a solid electrolytic layer in the form of a thin film arranged between and supported by the anode layer and the cathode layer.

Fuel cell

A solid oxide fuel cell that directly utilizes a flame according to the present invention has a solid oxide substrate, a cathode electrode layer formed on one surface, and an anode electrode layerformed on the opposite surface and a platinum mesh is embedded in the entire surfaces of the solid cathode electrode layer and the anode electrode layer. An oxide layer covers the entire periphery of the solid oxide substrate from the end part of the cathode electrode layer to the end part of the anode electrode layer. Due to the platinum mesh and the oxide layer, thermal shock due to rapid heating by a flame is alleviated and cracking in the solid oxide substrate is prevented from occurring.

Solid oxide fuel cell directly utilizing flame

The present invention relates to a power generating apparatus using a solid oxide fuel cell. A plurality of solid oxide fuel cells, each comprising a solid oxide substrate, a porous cathode electrode layer, and a porous anode electrode layer, are stacked vertically and housed inside a walled structure. A mixture gas is supplied to each solid oxide fuel cell from above. An exhaust gas discharged from each fuel cell is burned in a space below each fuel cell, producing a flame. Each fuel cell is heated by this flame.

Growing community of inventors

Nagano, Japan

Shigeaki Suganuma