Elastic properties of Tin+1AlCn and Tin+1AlNn MAX phases

M. F. Cover; Oliver Warschkow; Marcela Bilek; David R. McKenzie

doi:10.1002/adem.200800109

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Elastic properties of Ti_n+1AlC_n and Ti_n+1AlN_n MAX phases

M. F. Cover Oliver Warschkow Marcela Bilek David R. McKenzie

Year: 2008 Journal: Advanced Engineering Materials Vol: 10 (10)Pages: 935-938 Publisher: Wiley

DOI: 10.1002/adem.200800109

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Abstract

The MAX phases are a class of nano-laminate materials with a unique combination of ceramic and metallic properties. Experimental investigation of the properties of the MAX phases is limited by diculties associated with producing phase pure samples. In this work the authors use first principles density functional theory calculations to examine the elastic properties of the Tin+1AlXn (X=N,C) series as a function of n with the aim of identifying optimum compositions that combine good machinability with high stiffness.

Keywords:

Materials science MAX phases Machinability Tin Ceramic Density functional theory Phase (matter) Thermodynamics Crystallography Metallurgy Computational chemistry Physics Machining

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MXene and MAX Phase Materials

Physical Sciences → Materials Science → Materials Chemistry

Advanced ceramic materials synthesis

Physical Sciences → Materials Science → Ceramics and Composites

Metal and Thin Film Mechanics

Physical Sciences → Engineering → Mechanics of Materials

Elastic properties of Ti_n+1AlC_n and Ti_n+1AlN_n MAX phases

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