Canon Kabushiki Kaisha

Sumitomo Metal Industries, Inc.

Ricoh Company, Ltd.

Nippon Steel Sumitomo Metal Corporation

Hitachi, Ltd.

Mitsubishi Jukogyo Kabushiki Kaisha

National Institute for Materials Science

Masaaki Igarashi

Hiroyuki Semba

Kazuhiro Ogawa

Tomohiko Omura

Hirokazu Okada

Manabu Inoue

Hiroshi Gotoh

Hozumi Yonezawa

Takeshi Yoshizumi

Mitsuo Miyahara

Kunio Kondo

Hisashi Amaya

Osamu Morita

Hiroyuki Hirata

Yasutaka Okada

Takahiro Hirakawa

Hiroyuki Kimura

Naoki Tashiro

Hiroyuki Tokuda

Kazuhiro Shimoda

Tomio Yamakawa

Jun Nakamura

Osamu Inoue

Kaori Kawano

Yusaku Tomio

Masakatsu Ueda

Akio Ikeda

Kohji Yamamoto

Masaaki Terunuma

Yuichi Komizo

Kaori Miyata

Kazuhiko Ogawa

Shiro Mukai

Takashi Mori

Akira Ogawa

Yoshihiro Miyazawa

Hiroaki Ohashi

Akira Katsuno

Fujimitsu Masuyama

Takahiro Osuki

Atsuro Iseda

Masayuki Sagara

Takashi Nakashima

Takahiro Kushida

Osamu Miyahara

Takeo Kudo

Nobuyoshi Komai

Tomomitsu Yokoyama

Yasutaka Noguchi

Kunihiko Yoshikawa

Yohei Otome

Mitsuru Yoshizawa

Hitoshi Suwabe

Fujio Abe

Toshiaki Horiuchi

Hiroyuki Senba

Tomoki Mori

Sadaharu Matsuo

Shigemitsu Kimura

Hozumi Yonazewa

Strobe for camera

Electronic viewfinder for digital video camera

Control panel for digital video camera

Controller for broadcast lenses

Camera lens

Digital video camera

Grip for camera lens

There is provided an austenitic stainless steel for high-pressure hydrogen gas consisting, by mass percent, of C: 0.10% or less, Si: 1.0% or less, Mn: 3% or more to less than 7%, Cr: 15 to 30%, Ni: 10% or more to less than 17%, Al: 0.10% or less, N: 0.10 to 0.50%, and at least one kind of V: 0.01 to 1.0% and Nb: 0.01 to 0.50%, the balance being Fe and impurities, wherein in the impurities, the P content is 0.050% or less and the S content is 0.050% or less, the tensile strength is 800 MPa or higher, the grain size number (ASTM E112) is No. 8 or higher, and alloy carbo-nitrides having a maximum diameter of 50 to 1000 nm are contained in the number of 0.4/&#x3bc;mor larger in cross section observation.

High-strength austenitic stainless steel for high-pressure hydrogen gas

An image processing system includes a reading unit, a checking unit, a display control unit, and an image correcting unit. The reading unit reads image information from an original manuscript to generate image data. The checking unit checks whether or not a plurality of items listed in the original manuscript include an unentered item with the result of a character recognition process for recognizing a character contained in the image data. When the unentered item is present, the display control unit performs control to display information for informing a user of the unentered item. The image correcting unit adds a text with respect to the unentered item according to an input made by a user to correct the image data.

Image processing system, image processing apparatus, and method for image processing

An information processing apparatus includes: a communication unit that performs communication with a power supply controller controlling supply and shutoff of power supply of a device; an operation receiving unit that receives input of user operation; an instructing unit that instructs the power supply controller via the communication unit to supply or shut off power supply in response to user operation concerning supply or shutoff of power supply of the device; a setting unit that sets power supply specified to be not permitted to shut off in response to user operation to specify the power supply to be not permitted to shut off; and an instruction disabling unit that disables an instruction to shut off power supply by the instructing unit when the power supply set to be not permitted to shut off is a target of the instruction to shut off power supply by the instructing unit.

Information processing apparatus, non-transitory computer-readable medium, and power management method

A method for manufacturing an Ni base alloy pipe stock comprises piercing and rolling a billet by use of Mannesmann piercing and rolling mill. The pipe stock has controlled amounts of C, Si, Mn, P, S, Cr, Ni, Mo, W, Cu, Al, N, with the balance being Fe. With the method, the following equations are satisfied, wherein values of T, Pand Prepresented by the following equations (1) to (3) being not more than 1300, not more than 200 and not less than 0, respectively=1380&#x2212;5000P&#x2212;100S&#x2212;4400C&#x2003;&#x2003;(1),Ni+10(Mo+0.5W)+100N&#x2003;&#x2003;(2),=(Ni&#x2212;50)+10(N&#x2212;0.1)&#x2212;2(Cr&#x2212;25)&#x2212;5(Mo+0.5W&#x2212;6)+12&#x2003;&#x2003;(3),wherein each element symbol in the equations represents mass % of the element concerned.

Method for manufacturing Ni base alloy pipe stock

An austenitic heat resistant alloy, which comprises by mass percent, C: over 0.02 to 0.15%, Si&#x2266;2%, Mn&#x2266;3%, P&#x2266;0.03%, S&#x2266;0.01%, Cr: 28 to 38%, Ni: over 40 to 60%, Co&#x2266;20% (including 0%), W over 3 to 15%, Ti: 0.05 to 1.0%, Zr: 0.005 to 0.2%, Al: 0.01 to 0.3%, N&#x2266;0.02%, and Mo&#x3c;0.5%, with the balance being Fe and impurities, in which the following formulas (1) to (3) are satisfied has high creep rupture strength and high toughness after a long period of use at a high temperature, and further it is excellent in hot workability. This austenitic heat resistant alloy may contain a specific amount of one or more elements selected from Nb, V, Hf, B, Mg, Ca, Y, La, Ce, Nd, Sc, Ta, Re, Ir, Pd, Pt and Ag. P&#x2266;3/{200(Ti+8.5&#xd7;Zr)} . . . (1), 1.35&#xd7;Cr&#x2266;Ni+Co&#x2266;1.85&#xd7;Cr . . . (2), Al&#x2267;1.5&#xd7;Zr . . . (3).

Austenitic heat resistant alloy, heat resistant pressure member comprising the alloy, and method for manufacturing the same member

An Fe&#x2014;Ni alloy pipe stock containing, by mass %, C&#x2266;0.04%, Si&#x2266;0.50%, Mn: 0.01 to 6.0%, P&#x2266;0.03%, S&#x2266;0.01%, Cr: 20 to 30%, Ni: 30 to 45%, Mo: 0 to 10%, W: 0 to 20%, with Mo(%)+0.5W(%): more than 1.5% to not more than 10%, Cu: 0.01 to 1.5%, Al&#x2266;0.01% and N: 0.0005 to 0.20%, and the balance being Fe, with 1440&#x2212;6000P&#x2212;100S&#x2212;2000C&#x2267;1300, Ni+10(Mo+0.5W)+100N&#x2266;120, (Ni&#x2212;35)+10(N&#x2212;0.1)&#x2212;2(Cr&#x2212;25)&#x2212;5(Mo+0.5W&#x2212;3)+8&#x2267;0, can be manufactured into a seamless pipe by use of a Mannesmann piercing and rolling mill because of its excellent inner surface properties. The resulting seamless pipe has excellent mechanical properties and moreover has excellent corrosion resistance in a sour gas environment.

Fe-Ni alloy pipe stock and method for manufacturing the same

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Sanda, Japan

Masaaki Igarashi