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Synthesis and growth kinetics of spindly CuO nanocrystals via pulsed wire explosion in liquid medium
Journal of Nanoparticle Research (2013)

One-dimensional CuO nanocrystals with spindly structure were successfully synthesized using pulsed wire explosion technique in deionized water. By modulating the exploding medium temperature spherical Cu nanoparticles and one-dimensional CuO nanocrystals can be selectively synthesized. At low temperature (1 C) the particle growth is governed by Ostwald ripening resulting in formation of equidimensional crystals (spherical). As the exploding temperature increases (60 C), oriented aggregation in a preferential direction resulted in unique spindly nanostructure. A possible crystal growth mechanism for these nanostructures with various morphologies at different exploding temperature is proposed. Particle growth by Ostwald ripening or orientated aggregation is highly dependent on exploding medium temperature. This technique uses pulsed power, hence the energy consumption is low and it does not produce any process byproducts. This study will provide a mean by which a most energy efficient and eco-friendly synthesis of one-dimensional CuO nanocrystals can be realized. © 2013 Springer Science+Business Media Dordrecht.

  • CuO nanostructures,
  • Nucleation,
  • Particle growth,
  • Self-assembly,
  • Vapor phase,
  • Wire explosion,
  • Crystal growth mechanism,
  • Cu nano-particles,
  • Eco-friendly,
  • Energy efficient,
  • Equidimensional,
  • Liquid medium,
  • Low temperatures,
  • Medium temperature,
  • Oriented aggregation,
  • Pulsed-power,
  • Temperature increase,
  • Wire explosion technique,
  • Byproducts,
  • Crystal growth,
  • Deionized water,
  • Energy efficiency,
  • Energy utilization,
  • Nanocrystals,
  • Ostwald ripening,
  • Self assembly,
  • Synthesis (chemical),
  • Wire,
  • Agglomeration,
  • copper oxide,
  • nanocrystal,
  • nanomaterial,
  • water,
  • article,
  • chemical procedures,
  • chemical reaction kinetics,
  • crystal structure,
  • energy consumption,
  • explosion,
  • high temperature procedures,
  • low temperature procedures,
  • nanofabrication,
  • particle size,
  • priority journal,
  • pulsed wire explosion,
  • synthesis
Publication Date
January 1, 2013
Citation Information
"Synthesis and growth kinetics of spindly CuO nanocrystals via pulsed wire explosion in liquid medium" Journal of Nanoparticle Research Vol. 15 Iss. 1 (2013)
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