The Furukawa Electric Co., Ltd.

Tohoku University

Furukawa Automotive Systems Inc.

Furukawa Techno Material Co., Ltd.

Shingo Kawata

Yoshiaki Kobayashi

Kengo Mitose

Kiyohito Ishida

Ryosuke Kainuma

Akira Tachibana

Toshihiro Omori

Sumio Kise

Yoshikazu Okuno

Toyonobu Tanaka

Satoshi Teshigawara

Koji Ishikawa

Misato Fujii

Kenji Nakamizo

Tatsuya Nakatsugawa

Misato Nakano

An electrical contact material () having: a conductive substrate () formed from copper or a copper alloy; a first intermediate layer () provided on the conductive substrate (); a second intermediate layer () provided on the first intermediate layer (); and an outermost layer () formed from tin or a tin alloy and provided on the second intermediate layer (), wherein the first intermediate layer () is constructed as one layer of grains extending from the conductive substrate () side to the second intermediate layer () side, and wherein, in the first intermediate layer (), the density of grain boundaries () extending in a direction in which the angle formed by the grain boundary in interest and the interface between the conductive substrate and the first intermediate layer is 45&#xb0; or greater, is 4 &#x3bc;m/&#x3bc;mor less; a method of producing the same; and a terminal.

Electrical contact material, method of producing an electrical contact material, and terminal

A Cu&#x2014;Al&#x2014;Mn-based alloy having superelastic characteristics and having a recrystallized texture substantially formed of a &#x3b2; single phase, in which 70% or more of crystal grains is within a range of 0&#xb0; to 50&#xb0; in a deviation angle from &#x3c;001&#x3e; orientation of a crystalline orientation measured in a working direction by electron back-scatter diffraction patterning.

Cu&#x2014;Al&#x2014;Mn-based alloy exhibiting stable superelasticity and method of producing the same

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Tokyo, Japan

Shingo Kawata