Nippon Steel Corporation

Nippon Steel & Sumikin Materials Co., Ltd.

Toppan Printing Co., Ltd.

Nippon Steel Sumitomo Metal Corporation

Mitsubishi Electric Corporation

Nippon Steel Materials Co., Ltd.

Nittetsu Plant Designing Corporation

Renesas Electronics Corporation

Konami Corporation

Nippon Steel & Sumikin Coated Sheet Corporation

Nippon Steel Chemical & Material Co., Ltd.

Yuji Kubo

Noriko Yamada

Shuji Nagasaki

Sosuke Akao

Toyoshi Ogura

Satoshi Arai

Godai Fukunaga

Takao Taguchi

Masashi Aimatsu

Hotaka Honma

Eiichi Nanba

Hiroyasu Fujii

Kiyokazu Ishizuka

Kenichi Murakami

Yoshinori Miyamoto

Osamu Tanaka

Shinichiro Yoshida

Takeshi Musha

Koki Tanaka

Masayoshi Tanaka

Norikazu Fujii

Tomoji Kumano

Yoshitomo Nakamura

Kazumi Mizukami

Kazuhiro Osato

Takuya Noguchi

Hiromasa Nomura

Takeshi Hamada

Jun Nakatsuka

Masanori Nimura

Hironobu Suda

Yuki Yasu

Kazutaka Higashine

Hisanori Torii

Kazufumi Hanzawa

Chikara Kaido

Shizuka Ueda

Hiroshi Morita

Kazutoshi Takeda

Shuichi Nakamura

Yuki Mori

Hiroshi Kanai

Hiromasa Shoji

Takao Kanai

Nobusato Morishige

Takeshi Itoi

Takehide Senuma

Seiki Takebayashi

Yoshiaki Hirota

Hitoshi Hasegawa

Yasumitsu Kondo

Yoshio Kimata

Hideyuki Kobayashi

Akira Yokoyama

Keiko Kawakami

Toshio Mekata

Tomonari Hamamura

Makoto Yabe

Sawako Ito

Noritaka Mihashi

Hotaka Homma

Hiroki Satoyoshi

A semiconductor device includes a processor unit, a memory storing a boot program, a reset controller and an address check unit. The reset controller controls a reset for the processor unit based on a reset request and outputs a boot address for the boot program to be executed after reset release to the processor unit. The address check unit performs a tampering check for the boot address output from the reset controller and outputs a boot address error signal based on a tampering check result.

Semiconductor device

The present disclosure includes: a magnetic member configured to cause a large Barkhausen effect; a power generation coil disposed so as to be wound around the magnetic member; and soft magnetic members formed at both end portions of the magnetic member so as to be in contact with the magnetic member and so as to press the magnetic member. Consequently, evenness of a magnetic flux density inside the magnetic member is increased, and the large Barkhausen effect is stably caused, whereby a highly stable power generation element is obtained.

Power generation element, and magnetic sensor, encoder, and motor using the same

A power generation element includes a magnetic member that produces a large Barkhausen effect and magnetism collection members including an insertion part having the magnetic member inserted therethrough. The magnetism collection member includes a first component on an opposite side of a boundary plane to a magnetic field generation unit and a second component on the same side of the boundary plane as the magnetic field generation unit, the boundary plane passing through a center of an imaginary circle inscribed in the insertion part and having a diameter equal to a length of the insertion part in a third direction perpendicular to first and second directions, the first direction is a direction of the insertion of the magnetic member, and the second direction is a direction in which the magnetic field generation unit is disposed. A volume of the second component is larger than a volume of the first component.

Power generation element, magnetic sensor, encoder, and motor

A steel foil according to an aspect of the present invention includes a rolled steel foil; and a Ni having &#x3c;111&#x3e;//RD texture plated on an outermost layer of the rolled steel foil. Regarding the steel foil, a &#x3c;111&#x3e; pole density in an inverse pole figure of a rolling direction may be 3.0 or more and 6.0 or less.

Steel foil and method for manufacturing the same

A steel foil according to an aspect of the present invention includes, by mass %, C: 0.0001 to 0.02%; Si: 0.001 to 0.01%; Mn: 0.01 to 0.3%; P: 0.001 to 0.02%; S: 0.0001 to 0.01%; Al: 0.0005 to 0.1%; N: 0.0001 to 0.004%; and a balance consisting of Fe and impurities, wherein a thickness is 5 to 15 &#x3bc;m, and a tensile strength is more than 900 MPa and 1.200 MPa or less.

This surface-treated metal includes a metal, and a coated material on a surface of the metal, in which an outermost layer is a photocatalytic film that contains particles showing photocatalytic activity and an organic-inorganic composite resin, a volume ratio of the particles to the film is in a range from 0.5 to 50 vol %, the resin contains a siloxane bond and at least one group selected from the group consisting of an aryl group, a carboxyl group, an amino group, a hydroxyl group, and an alkyl group having 1 to 12 carbon atoms, the coated material has concaves on a surface thereof on the outermost layer side, an area of the outermost layer is 50% to 98% of an area of a surface of the metal, and a surface area of the outermost layer is 101% to 5000% of the area of the surface of the metal.

Surface-treated metal and method for producing same

An insulating film-coated metal foil having on one or both surfaces thereof an organic-inorganic hybrid layer containing dimethylsiloxane and a metalloxane comprising a metal other than Si. Relative to the concentration [Si]of the Si at a depth of &#xbc;t from the surface of the organic-inorganic hybrid layer in the thickness direction of the hybrid layer, the concentration [Si]of the Si at a depth of &#xbe;t from the surface of the organic-inorganic hybrid layer in the thickness direction of the hybrid layer satisfies [Si]&#x3c;[Si], and ([Si]&#x2212;[Si])/[Si]is 0.02-0.23. Provided is a metal foil that can be used in solar cell substrates, flexible circuit substrates, etc., that exhibits surface flatness, pliability, insulating properties and thermal resistance properties, and that has a layer having a surface which is not susceptible to scratching by processes in which substrates are handled, such as conveyance and transshipment.

Insulating film-coated metal foil

The present invention provides stainless steel foil for flexible display use which enables fabrication of a TFT substrate for display use which is superior in shape recovery after being rolled up or bent and which is high in surface flatness and is characterized by having a thickness of 20 &#x3bc;m to 200 &#x3bc;m, a surface roughness Ra of 50 nm or less, and a shape recovery of a distortion angle of 10&#xb0; or less after being wound around a 30 mm diameter cylinder.

Stainless steel foil for flexible display use

An inorganic-organic hybrid film-coated stainless steel foil comprising a stainless steel foil substrate having coated on one surface or both surfaces thereof an inorganic-organic hybrid film, wherein the inorganic-organic hybrid film comprises a skeleton formed of an inorganic three-dimensional network structure mainly comprising a siloxane bond, with at least one crosslinked oxygen of the skeleton being replaced by an organic group and/or a hydrogen atom; and an inorganic-organic hybrid film-coated stainless steel foil comprising a stainless steel foil having coated thereon a plurality of inorganic-organic hybrid films each mainly comprising a siloxane bond, wherein at least a part of Si constituting each inorganic-organic hybrid film is chemically bonded to one or both of an organic group and hydrogen, provided that the uppermost layer out of the plurality of inorganic-organic hybrid films may be an inorganic SiOfilm, and adjacent films of the plurality of inorganic-organic hybrid films (including the inorganic SiOfilm) differ in the composition from each other.

Inorganic&#x2014;organic hybrid-film-coated stainless-steel foil

A method according to the present invention has: isolating, by extraction, particles contained in a metal material to be analyzed in a solution using a particle isolator; dispersing the particles isolated by extraction into a solvent to prepare a dispersion, and fractionating the dispersion into a plurality of particle dispersions based on particle sizes, using a field flow fractionator; and irradiating laser light on each of the particle dispersions separated based on predetermined particle sizes, to thereby measure absolute values of the particle size based on angular dependence of reflection intensity, and also to thereby measure the number density based on magnitude of reflection intensity.

Method of analyzing particle size distribution of particles in metal material

A retardation layer that includes regions causing different retardations can be manufactured easily. A retardation substrate includes a substrate and a solidified liquid crystal layer facing its main surface. The solidified liquid crystal layer includes first to third regions, and a degree of depolarization for each of the regions is less than 5.0&#xd7;10. A difference between the maximum and minimum values of the degrees of depolarization obtained for the regions is less than 2.0&#xd7;10.

Retardation substrate, method of manufacturing the same, and liquid crystal display

A retardation layer that includes regions causing different retardations can be manufactured easily. A retardation substrate includes a substrate and a solidified liquid crystal layer supported by the substrate. The solidified liquid crystal layer includes first to third regions. The first to third regions re arranged on the substrate and different in degree of orientation of mesogens.

A coating solution for forming a flat-surface insulating film, which is a coating solution obtained by dissolving a poly(diorgano)siloxane A having a mass average molecular weight of 900 to 10,000 and a metal alkoxide B in an organic solvent C and further adding water, wherein the molar ratio A/B of the poly(diorgano)siloxane A to 1 mol of the metal alkoxide B is from 0.05 to 1.5, the organic solvent C has a hydroxyl group, the solubility of water in 100 g of the organic solvent C is from 3 to 20 g, and the molar ratio C/A of the organic solvent C to 1 mol of the poly(diorgano)siloxane A is from 0.05 to 100. This coating solution for forming a flat-surface insulating film ensures that an organic modified silicate composed of a poly(diorgano)siloxane and a metal alkoxide can be formed as a thick film having 1 &#x3bc;m or more and can be an organic modified silicate insulating film causing no irregularities due to phase separation and having a low Young's modulus and flexibility high enough to follow the deformation of a substrate board, as well as high film surface flatness allowing for mounting of microcomponents of an electronic device or the like.

Coating solution for forming flat-surface insulating film, flat-surface insulating film-coated substrate, and production method of a flat-surface insulating film-coated substrate

A retardation substrate is provided, which includes a substrate and an optically anisotropic solidified liquid crystal layer which is supported by the substrate and formed as a continuous film made from a same material. The solidified liquid crystal layer comprises first to third regions each having two sub-regions which are a sub-region A and a sub-region B, an in-plane birefringence of theA sub-region is larger than that of theA sub-region, the in-plane birefringence of theA sub-region is smaller than that of theA sub-region, and an in-plane birefringence of theB sub-region is the same as that of theB sub-region, smaller than that of theA sub-region and larger than that of theA sub-region.

Retardation substrate, semi-transparent liquid crystal display, and method for manufacturing retardation substrate

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Tokyo, Japan

Yuji Kubo