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CHAPTER 1 Nanoparticles from Mechanical Attrition
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Document Date: 2007-01-15 22:53:04


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Company

Paul D. Merica Research Laboratory / Material Au Cu Ag / Ge / Zr Hf / /

Country

United States / /

Currency

USD / /

Facility

Vibratory mill Horizontal / Paul D. Merica Research Laboratory / mill Spex / mill Vibratory / Pulverisette mill / Vibratory mill Vibratory / Tulane University / /

IndustryTerm

metal / gas turbine applications / potential applications / elastic energy / postattrition processing / metal powders / stainless steel / high-energy ball milling / metal matrix composite powders / carbon steel / metal matrix composites / free energy / reaction product / lower energy mills / stainless steel vial / energy impact / size reduction equipment / metal powder / potential nonequilibrium processing technique / surface energy / maximum energy / hardened steel / chrome steel / high-energy / supersaturated solid solutions / chemical reaction / device applications / rubber / steel balls / powder products / metallic systems / alloy systems / ceramic processing / hardened steel balls / mechanical attrition devices / high-energy ball mill / energy / steel / mechanical device / /

Organization

Federal Communications Commission / Tulane University / New Orleans / Brian S. Mitchell Department of Chemical Engineering / /

Person

Claudio L. De Castro / Brian S. Mitchell / Al Milling / John Benjamin / Hashimoto / Mitchell Figure / /

Position

patent attorney / /

ProvinceOrState

Louisiana / Massachusetts / /

Technology

dielectric / crystallization / heat transfer / /

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