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Mondal, S., Chakraborty, I., Ahmad, S., Carvalho, D., Singh, P., Lad, A.D., Narayanan, V., Ayyub, P., Kumar, G.R., Zheng, J. and Sheng, Z.M. (2011) Highly Enhanced Hard X-Ray Emission from Oriented Metal Nanorod Arrays Excited by Intense Femtosecond Laser Pulses. Physical Review B: Condensed Matter and Materials Physics, 83, Article ID: 035408.
https://doi.org/10.1103/PhysRevB.83.035408

has been cited by the following article:

• TITLE: Hydrophobicity of Highly Ordered Nanorod Polycrystalline Nickel and Silver Surfaces

  AUTHORS: Jan Macko, Natália Podrojková, Radim Hrdý, Andrej Oriňak, Renáta Oriňaková, Jaromír Hubálek, Jaroslav Vojtuš, Zuzana Kostecká, Roger M. Smith

  KEYWORDS: Nanorods, Silver, Nickel, Hydrophobicity, Surface Energy, Crystallinity

  JOURNAL NAME: Journal of Minerals and Materials Characterization and Engineering, Vol.7 No.5, September 16, 2019

  ABSTRACT: Highly ordered nickel and silver nanorods arrays prepared by alumina template assisted electrodeposition were investigated to determine the effect of the array geometry on metal surface hydrophobicity and adhesion forces. The nanorod geometry, clustering and pinning were used to characterize surface hydrophobicity and its modulation. A contribution of metal crystallographic orientation to the surface energy was calculated. To characterize nanorod array surface properties and elucidate the source of the particle adhesion effects has been calculated. The dispersive components of surface tensionγSDand surface polarizability ks, as surface features that markedly characterize hydrophobicity and adhesion, were calculated. The highest hydrophobicity was found for Ag nanorods with aspect ratio of 10 then Ni nanorods with aspect ratio 10. The same geometry of nanorods particles resulted in different surface hydrophobicity and it was ascribed to the orientation of Ag and Ni crystals formed on the top of nanorods. Due to high hydrophobicity nanorod array surfaces could be used as an antifouling surface in medicine to select areas on implant surface not to be colonized by cells and tissues.