Sony Corporation

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Teijin Pharma Limited

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Siemens Aktiengesellschaft

Ricoh Company, Ltd.

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Tokyo Institute of Technology

Japan Aerospace Exploration Agency

Eneos Corporation

Makoto Ando

Takaaki Murakami

Koichiro Kishima

Hiroshi Tokunaga

Shinichi Horii

Akio Niikura

Yuichiro Ikemoto

Yuji Yakura

Tatsumi Ito

Koji Ashizaki

Minoru Takeda

Shigeyoshi Hirashima

Tetsuo Nakayama

Takahiro Toyoda

Tohru Naganuma

Seiji Kobayashi

Atsushi Nakamura

Shota Nishi

Toshio Fukuda

Takeshi Watanabe

Koichiro Kakinuma

Masaki Harada

Emi Yamada

Shinji Kayaba

Hiroshi Ohno

Yoshinori Ito

Jun Yamaguchi

Hiroshi Yamazaki

Toshiaki Imai

Takashi Aihara

Toru Hanada

Sadayuki Kamiya

Toshiki Kagami

Yoshihiro Kaneko

Yoshiyuki Oya

Tsutomu Mori

Tooru Mamata

Yoshiaki Suzuki

Atsushi Fukumoto

Yuji Yamanaka

Masayuki Sato

Kengo Ito

Kazuyasu Takenaka

Masanobu Tanaka

Takumi Namekawa

Naoki Yamashita

Yoichi Kojima

Shoei Teshima

Osamu Majima

Kazuo Akashi

Tomoo Fukuda

Taichi Asano

Tatsuya Matsumi

Ryo Yasumatsu

Hideaki Ohmuro

Nobuyuki Nanno

Masato Nakamura

Koki Yano

Dai Yamamoto

Yasuhiro Ishikawa

Tetsuya Inoue

Yuichi Watanabe

Takuya Murata

Naoya Katoh

Yasuo Yamada

Shigekazu Tomai

Tadahiko Yoshinaga

Toshio Ishii

Toshio Narushima

Hidetoshi Ogata

Toshiharu Kobayashi

Yasuhito Eguchi

Yutaka Yanagawa

Masanobu Hida

Toshio Shirai

Fumiyuki Nara

Shinichi Ishii

Toshimitsu Saito

Yoichiro Bekki

Takefumi Adachi

Shigeo Matsuzaki

Akihiro Maeda

Tomoko Abe

Yuya Mizutani

Daisuke Terada

Tadahiko Nakamura

Yosuke Sasaki

Motohiro Mizumachi

Masayuki Itose

Masaaki Tsuda

Kazuaki Ebata

Ryuichi Tanimoto

Kenji Negura

Masahiko Kasashima

Masao Araya

Hiyoku Nakata

Hiroshi Yamaguchi

Takuya Matsumoto

Shota Terachi

Mayumi Oka

An aluminum-alloy, fin material is composed of a brazing sheet containing a core material and filler material(s) disposed on both sides of the core material. The core material is an aluminum alloy containing 0.02-0.80 mass % Si, 0.02-0.80 mass % Fe, and 0.8-2.0 mass % Mn. The core material has a crystalline-aggregate structure in which: the orientation density of one or more of brass orientation, copper orientation, and S orientation is 20 times or more that or those of a randomly oriented sample; and the orientation densities of cube orientation, CR orientation, and P orientation are each 10 times or less than those of the randomly oriented sample. The filler material(s) is (are) composed of an Al—Si series alloy that contains 6.0-13.0 mass % Si and 0.02-0.80 mass % Fe. The clad percentage of filler material(s) is 6-16% of the total thickness of the brazing sheet.

Aluminum-alloy, fin material and manufacturing method thereof

A brazing, monolayer, aluminum-alloy material has a chemical composition composed of Si: 1.5 mass % or more and 3.5 mass % or less, Fe: 0.05 mass % or more and 2.00 mass % or less, Mn: 0.1 mass % or more and 2.0 mass % or less, Mg: 0.005 mass % or more and 0.500 mass % or less, and Bi: 0.010 mass % or more and 0.500 mass % or less, the remainder being Al and unavoidable impurities; and has a metallographic structure in which Mg—Bi-series compounds are dispersed in an Al matrix. The surface-area ratio of the above-mentioned Mg—Bi-series compounds in any arbitrary cross section is 0.05% or more.

Monolayer aluminum alloy material for brazing and method of manufacturing an aluminum structure

A base oil for a refrigerating machine oil, having cyclic saturates of 40% by mass or less and non-cyclic saturates of 60% by mass or more in saturates, a density at 15° C. of 0.805 g/cmor lower, and a normal paraffin content of 50% by mass or less.

Base oil for refrigerator oil, refrigerator oil, and working fluid composition for refrigerator

A wafer edge polishing apparatus includes a cleaning mechanism exhibiting a superb effect of cleaning slurry residue adhered on a chuck table. This edge polishing device is provided with: a chuck table which sucks/holds a wafer; a rotation drive mechanism which rotates the chuck table; an edge polishing unit which polishes an edge of the wafer while supplying slurry to the wafer, which is rotating while being sucked/held by the chuck table; and a cleaning unit which removes slurry residue on the chuck table. The cleaning unit includes a cleaning head, and cleans the chuck table through high-pressure cleaning and brush-cleaning by using the cleaning head, wherein the cleaning head is provided with a high-pressure jet nozzle and a brush surrounding the periphery of the high-pressure jet nozzle.

Wafer edge polishing apparatus and method

A method for producing an aluminum alloy clad material having a core material and a sacrificial anode material clad on at least one surface of the core material, wherein the core material comprises an aluminum alloy comprising 0.050 to 1.5 mass % (referred to as '%' below) Si, 0.050 to 2.0% Fe and 0.50 to 2.00% Mn; the sacrificial anode material includes an aluminum alloy containing 0.50 to 8.00% Zn, 0.05 to 1.50% Si and 0.050 to 2.00% Fe; the grain size of the sacrificial anode material is 60 &#x3bc;m or more; and a ratio R/Ris 0.30 or less, wherein R(&#x3bc;m) is a grain size in a thickness direction and R(&#x3bc;m) is a grain size in a rolling direction in a cross section of the core material along the rolling direction; a production method thereof; and a heat exchanger using the clad.

Method for producing aluminum alloy clad material

There is provided a method of manufacturing an organic light-emitting device including: forming a first organic material layer on a substrate; and forming a mask in a first region on the first organic material layer, and then selectively removing the first organic material layer to form a first organic layer in the first region.

Method of manufacturing organic light-emitting device and method of manufacturing display unit

Provided is an aluminum alloy clad material including an aluminum alloy core material, an intermediate layer material that is clad on one surface of the core material, and a first brazing filler metal that is clad on a surface of the intermediate layer material, the surface not being on the core material side, wherein the core material, the intermediate layer material, and the first brazing filler metal each include an aluminum alloy having a predetermined composition, the existence density of Al&#x2014;Mn based intermetallic compounds having a circle-equivalent diameter between 0.1 and 1.0 &#x3bc;m inclusive in the intermediate layer material before brazing heating is at least 1.0&#xd7;10pieces/mm, and the existence density of Al&#x2014;Mn based intermetallic compounds having a circle-equivalent diameter between 0.1 and 1.0 &#x3bc;m inclusive in the intermediate layer material after brazing heating is at least 1.0&#xd7;10pieces/mm. Further provided is a method for producing the aluminum alloy clad material.

Aluminum alloy cladding material and manufacturing method therefor

Provided is an aluminum alloy clad material including an aluminum alloy core material and a first brazing filler metal that is clad on one surface or both surfaces of the core material, wherein the core material and the first brazing filler metal each include an aluminum alloy having a predetermined composition, the existence density of Al&#x2014;Mn based intermetallic compounds having a circle-equivalent diameter of at least 0.1 &#x3bc;m in the first brazing filler metal before brazing heating is at least 1.0&#xd7;10pieces/mm, and the existence density of Al&#x2014;Mn based intermetallic compounds having a circle-equivalent diameter of at least 2 &#x3bc;m in the first brazing filler metal after brazing heating is at least 300 pieces/mm. Further provided are a method for producing the aluminum alloy clad material and a heat exchanger employing the aluminum alloy clad material.

Aluminum alloy cladding material, manufacturing method therefor, and heat exchanger using said aluminum alloy cladding material

Provided is a polycarbonate-based resin composition containing: a polycarbonate-polyorganosiloxane copolymer (A) containing a specific polycarbonate block (A-1) and a specific polyorganosiloxane block (A-2); and an aromatic polycarbonate-based resin (B) except the copolymer (A), the polycarbonate-based resin composition having a structure in which a domain (d-1) containing the polyorganosiloxane block (A-2) is present in a matrix containing the resin (B) as a main component, and a domain (d-2) containing at least one selected from a block derived from the aromatic polycarbonate-based resin (B) and the polycarbonate block (A-1) is present inside the domain (d-1).

Polycarbonate resin composition and molded article thereof

An aluminum alloy brazing sheet having high corrosion resistance is provided, which develops the sacrificial anticorrosion effect in both surfaces of the sheet, which has the brazing function in one of both the surfaces, and which prevents the occurrence of preferential corrosion. A channel forming component for a vehicular heat exchanger is also provided by utilizing the aluminum alloy brazing sheet. An aluminum alloy brazing sheet having high corrosion resistance includes an aluminum alloy core, a filler material clad on one surface of the core, and a sacrificial anode material clad on the other surface of the core, wherein the filler material, the sacrificial anode material, and the core have respective predetermined alloy compositions. A channel forming component for a vehicular heat exchanger is manufactured using the aluminum alloy brazing sheet having high corrosion resistance.

High corrosion-resistant aluminum alloy brazing sheet and channel forming component for vehicular heat exchanger using same

Method for manufacturing organic light-emitting device and method of manufacturing display unit

An aluminum alloy brazing sheet having a good brazing property that prevents diffusion of molten filler material in a core material of the aluminum alloy brazing sheet during a brazing process and which has a superior corrosion resistance to an exhaust gas condensate water after the brazing process is disclosed. A method of manufacturing of the aluminum alloy brazing sheet also is disclosed. A high corrosion-resistant heat exchanger that employs the aluminum alloy brazing sheet also is disclosed.

High corrosion-resistant aluminum alloy brazing sheet, method of manufacturing such sheet, and corrosive-resistant heat exchanger using such sheet

A highly corrosion resistant and highly formable aluminum-alloy clad material, a method for producing the same, a heat exchanger using the same and a method for producing the same are shown. The present aluminum-alloy clad material has an aluminum alloy core material, an intermediate layer material clad on one surface of the core material and a brazing filler metal clad on the surface of the intermediate layer material that is not on the core material side, wherein a crystal grain size of the intermediate layer material before brazing heating is 60 &#x3bc;m or more, and in a cross section of the core material in a rolling direction before brazing heating, when R1 (&#x3bc;m) represents the crystal grain size in a plate thickness direction, and R2 (&#x3bc;m) represents the crystal grain size in the rolling direction, R1/R2 is 0.30 or less.

Aluminum-alloy clad material and production method therefor, and heat exchanger using said aluminum-alloy clad material and production method therefor

A highly corrosion resistant and highly formable cladded aluminum-alloy material, a method for producing the same, a heat exchanger using the same and a method for producing the same are shown. The present cladded aluminum-alloy material has an aluminum alloy core material, an intermediate layer material clad on one surface of the core material and a brazing filler metal clad on the intermediate layer material surface which is not at the core material side, wherein a crystal grain size of the intermediate layer material before brazing heating is 60 &#x3bc;m or more, and in a cross section of the core material in a rolling direction before brazing heating, when R(&#x3bc;m) represents the crystal grain size in a plate thickness direction, and R(&#x3bc;m) represents the crystal grain size in the rolling direction, R/Ris 0.30 or less.

Cladded aluminum-alloy material and production method therefor, and heat exchanger using said cladded aluminum-alloy material and production method therefor

An organic EL display panel including: a substrate; pixel electrodes that are arrayed in a matrix above the substrate; first organic functional layers that are on or above the pixel electrodes in one-to-one correspondence with the pixel electrodes, the first organic functional layers spaced apart from one another; a second organic functional layer that continuously covers the first organic functional layers; and a counter electrode that opposes the pixel electrodes and covers the second organic functional layer. In the organic EL display panel, the first organic functional layers each include a hole injection layer, and the second organic functional layer has greater electric resistance than each of the first organic functional layers and has a portion extending into an absence region, the absence region being a space between adjacent ones of the first organic functional layers.

Organic electroluminescent display panel

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Tokyo, Japan

Makoto Ando