Sony Corporation

Nippon Chemical Industrial Co., Ltd.

Lvmh Recherche

Hitachi, Ltd.

Fuji Electric Device Technology Co., Ltd.

Toyo Tanso Co., Ltd.

Iida Group Holdings Co., Ltd.

Masahiro Kikuchi

Hiroshi Takahashi

Yoshiichi Horikoshi

Yukio Hara

Hiroto Watanabe

Ryouichi Yoshida

Takeshi Sakamoto

Yutaka Kinose

Shinsuke Miyabe

Takayoshi Sakoda

Mai Ozawa

Tomosuke Chiba

Tomonao Naruhashi

Minoru Fukuchi

Kanemitsu Murakami

Hiroshi Kato

Katsumi Kobayashi

Eiji Mochizuki

Shigeo Kubota

Hitoshi Okada

Kazuhiko Mori

Tetsuro Tojo

Yusuke Minagawa

Shinji Saito

Takeshi Izumi

Takehiko Sawai

Fuminobu Komura

Kuniaki Matsumoto

Yukinobu Iguchi

Takao Ihashi

Shinzo Takei

Takashi Sakuma

Hitoshi Takebayashi

Masanori Ando

Masayuki Soutome

Yoichi Nishikawa

Takatoshi Kodaira

Youichi Seto

Atsushi Hirokawa

Yoshifumi Nakayama

Katsuhiko Tsunashima

Takeo Kaji

Yuzuru Watanabe

Tadao Ishihara

Shu Tezuka

Ayumu Watanabe

Yuzuru Kobori

Yoji Kouno

Hisashi Utena

Syuuji Miyashita

Makoto Hongu

Katsuyuki Negishi

Makoto Komatsu

The invention provides a liquid cosmetic that contains at least a capsule in an aqueous phase, wherein the capsule comprises agar shell encapsulating an oil component, and the aqueous phase comprises one thickener selected from the group consisting of a (meth)acrylic polymer and a polysaccharide, and an amphiphilic substance having an HLB value of no greater than 13.

Liquid cosmetic

The positive electrode active substance for a lithium secondary battery includes a mixture of a lithium cobalt composite oxide particle and an inorganic fluoride particle. The method for producing a positive electrode active substance for a lithium secondary battery includes a first step of subjecting a lithium cobalt composite oxide particle and an inorganic fluoride particle to a mixing treatment to thereby obtain a mixture of the lithium cobalt composite oxide particle and the inorganic fluoride particle. The lithium secondary battery uses, as a positive electrode active substance, the positive electrode active substance for a lithium secondary battery of the present invention.

Positive electrode active substance for lithium secondary battery, method for producing the same and lithium secondary battery

An object of the present invention is to provide a positive electrode active substance for a lithium secondary battery, the positive electrode active substance, when being used as a positive electrode active substance for a lithium secondary battery, being little in deterioration of cycle characteristics and being high in the energy density retention rate, even in repetition of charge and discharge at high voltages, and a lithium secondary battery little in deterioration of cycle characteristics and high in the energy density retention rate, even in repetition of charge and discharge at high voltages. The positive electrode active substance for a lithium secondary battery comprises a lithium cobalt-based composite oxide particle having a Ti-containing compound and an Mg-containing compound adhered on at least part of the particle surface.

Positive electrode active substance for lithium secondary battery and lithium secondary battery

The invention provides a liquid cosmetic that contains capsule in an aqueous medium, wherein the capsule comprises agar shell encapsulating an oil component, and the aqueous medium comprises a low molecular polyol and one selected from the group consisting of a (meth)acrylic polymer and a polysaccharide.

Liquid cosmetic with agar shell capsule

The positive electrode active substance for a lithium secondary battery includes a mixture of a titanium-containing lithium cobalt composite oxide particle and an inorganic fluoride particle. The method for producing a positive electrode active substance for a lithium secondary battery includes a first step of subjecting a titanium-containing lithium cobalt composite oxide particle and an inorganic fluoride particle to a mixing treatment to thereby obtain a mixture of the titanium-containing lithium cobalt composite oxide particle and the inorganic fluoride particle. The lithium secondary battery uses, as a positive electrode active substance, the positive electrode active substance for a lithium secondary battery of the present invention.

A construction block and a wall face structure with high durability and versatility are provided. The construction block including: a front face wall and a rear face wall being parallel to each other; a top face wall with a horizontal groove formed for inserting a horizontal reinforcement; side face walls formed with at least one vertical groove for inserting a vertical reinforcement; at least one vertical hole formed between both of the side face walls and closed off by the top face wall and opened at a bottom face; a plurality of protrusions formed on the bottom face in a shape to engage with the horizontal groove; and recessed slits respectively formed in vertical direction on each side face of the front face wall and the rear face wall, is used.

Construction block and wall face structure using same

There are provided an adsorbent material excellent in the adsorptive removal properties of Cs and Sr also in seawater, and a method for producing a crystalline silicotitanate suitable for the adsorbent material. The adsorbent material according to the present invention comprises: at least one selected from crystalline silicotitanates represented by NaTiSiO.nHO, (NaK)TiSiO.nHO and KTiSiO.nHO wherein x represents a number of more than 0 and less than 1 and n represents a number of 0 to 8; and at least one selected from titanate salts represented by NaTiO.mHO, (NaK)TiO.mHO and KTiO.mHO wherein y represents a number of more than 0 and less than 1 and m represents a number of 0 to 10. The adsorbent material is suitably produced by a method for producing a crystalline silicotitanate in which a silicic acid source, a sodium compound and/or a potassium compound, titanium tetrachloride, and water are mixed to obtain a mixed gel, and the mixed gel is subjected to a hydrothermal reaction.

Adsorbent material and method for producing crystalline silicotitanate

There is provided an adsorbent material having adsorptive removal properties of Cs and Sr in seawater, and a method for producing a crystalline silicotitanate suitable for the adsorbent material. The adsorbent material includes one selected from crystalline silicotitanates represented by NaTiSiO.nHO, (NaK)TiSiO.nHO and KTiSiO.nHO wherein x represents a number of more than 0 and less than 1 and n represents a number of 0 to 8; and one selected from titanate salts represented by NaTiO.mHO, (NaK)TiO.mHO and KTiO.mHO wherein y represents a number of more than 0 and less than 1 and m represents a number of 0 to 10. The adsorbent material is produced by a method for producing a crystalline silicotitanate in which a silicic acid source, a sodium compound and/or a potassium compound, titanium tetrachloride, and water are mixed to obtain a mixed gel, and the mixed gel is subjected to a hydrothermal reaction.

An object of the present invention is to provide an electrolyte solution for lithium-ion secondary batteries comprising a tetraalkylphosphonium salt which improves the cycle characteristics and safety of lithium-ion batteries, and to provide a lithium-ion secondary battery using the electrolyte solution. Disclosed is an electrolyte comprising a tetraalkylphosphonium salt represented by general formula (1) wherein Rrepresents a linear, branched or alicyclic alkyl group having 2 to 6 carbon atoms and Rrepresents a linear, branched or alicyclic alkyl group having 1 to 14 carbon atoms, provided that Rand Rare different from each other and the total number of carbon atoms in the phosphonium cation is 20 or less; and X represents an anion.

Electrolyte, electrolyte solution for lithium-ion secondary battery comprising the electrolyte, and lithium-ion secondary battery using the electrolyte solution

A high power lithium-ion secondary battery having an increased capacity and capable of maintaining high discharge voltage and repeating charging/discharging high current. A lithium-ion secondary battery having an electrode group formed by laminating or winding a negative electrode layer and a positive electrode layer so as to interpose a separator made of synthetic resin, the negative electrode layer containing a material capable of intercalating/deintercalating lithium-ion, and the positive electrode layer including a lithium-containing metallic oxide; and a non-aqueous electrolyte containing lithium salt, where the electrode group is immersed. The positive electrode material unit contains a fluorinated lithium-containing metallic oxide as a main material, and the separator possesses a hydrophilic group. Further, the positive electrode material preferably contains a main material including LiNiCoMnO, where 0.6&#x2266;x&#x3c;1, 0&#x3c;y&#x2266;0.2, 0&#x3c;z&#x2266;0.2, and x+y+z=1.

Lithium ion rechargeable battery

It is possible to enhance the luminance of a cold-cathode type discharge lamp and to contribute to a prolongation of service life thereof. A discharge lampis provided with an electrodehaving a cupwith such a shape that a bottom is provided at each of both opposed ends of the glass tube. The cupis connected to a lead-in wirewhich is inserted through the end of the glass tubeand held thereby. The collision-preventing ringcovering an end surface of the cupis provided to the open endof the cup. The porous tungsten diskimpregnated with a ternary metal oxide composed of barium (Ba), aluminum (Al), and calcium (Ca) as an electron emission material is provided at a bottom in an inside of the cup

Discharge lamp and electrode for use in the same

It is possible to prolong service life of a discharge lamp of hot-cathode type and to reduce a diameter thereof. A discharge lampis provided with an electrode. The electrodehas a heatermade up a coil portion, and a first lead wire portionand a second lead wire portionthat respectively extend from rear ends of this coil portionand applied by an electron emission material. In the electrode, a first lead-in wiresis connected to the first lead wire portionand a second lead-in wiresis connected to the second lead wire portion, so that the coil portionis arranged vertically along the tube axis of the glass tube. The electrodeis also provided a sleevecovering surrounding of the coil portionand having openings in the faces respectively opposite to the forward end and rear end of the coil portion. An open endof the sleeveexceeds a forward end of the coil portion, thereby protecting the coil portion

Discharge lamp, method for manufacturing the discharge lamp electrode, lighting system

Semiconductor device

A retrieving key representing position information is used to retrieve image information containing the retrieving key information at a high speed and high precision. First a retrieving key is inputted to display retrieval information. The retrieving key is used to retrieve an image having a large size relative to a geometric distortion error, and the longitude/latitude conversion coefficients of the retrieved image are corrected. By using the corrected longitude/latitude conversion coefficients, an image having a small size relative to the geometric distortion error is retrieved, and the retrieved image is subject to distortion correction and image magnification.

Method for retrieving database of image information

Growing community of inventors

Tokyo, Japan

Masahiro Kikuchi