JOURNAL ARTICLE

Vertically aligned biaxially textured molybdenum thin films

Rahul KrishnanMichael RileySabrina LeeToh‐Ming Lu

Year: 2011 Journal:   Journal of Applied Physics Vol: 110 (6)   Publisher: American Institute of Physics

Abstract

Vertically aligned, biaxially textured molybdenum nanorods were deposited using dc magnetron sputtering with glancing flux incidence (alpha = 85º with respect to the substrate normal) and a two-step substrate-rotation mode. These nanorods were identified with a body-centered cubic crystal structure. The formation of a vertically aligned biaxial texture with a [110] out-of-plane orientation was combined with a [-110] in-plane orientation. The kinetics of the growth process was found to be highly sensitive to an optimum rest time of 35 seconds for the two-step substrate rotation mode. At all other rest times, the nanorods possessed two separate biaxial textures each tilted toward one flux direction. While the in-plane texture for the vertical nanorods maintains maximum flux capture area, inclined Mo nanorods deposited at alpha = 85º without substrate rotation display a [-1-1-4] in-plane texture that does not comply with the maximum flux capture area argument. Finally, an in situ capping film was deposited with normal flux incidence over the biaxially textured vertical nanorods resulting in a thin film over the porous nanorods. This capping film possessed the same biaxial texture as the nanorods and could serve as an effective substrate for the epitaxial growth of other functional materials.

Keywords:
Nanorod Materials science Texture (cosmology) Substrate (aquarium) Epitaxy Molybdenum Thin film Sputter deposition Composite material Sputtering Optics Nanotechnology Metallurgy

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