Nanoparticle growth and transport mechanisms in capacitively coupled silane discharges: a numerical investigation

Computer Science – Numerical Analysis

Scientific paper

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Dusty Plasmas, Plasma Simulation, Plasma Transport Processes, High-Frequency Discharges, Numerical Analysis, Silicon Compounds, Dusty Or Complex Plasmas, Plasma Crystals, Plasma Simulation, Transport Properties, High-Frequency And Rf Discharges

Scientific paper

A self-consistent 1D fluid model is used to investigate the formation, growth and transport mechanisms of sub-micrometer particles in a low pressure capacitively coupled radio-frequency silane (SiH4) discharge. In this contribution we analyze the competition between the different forces governing the transport of nanometer-sized particles and the specific role of the thermophoretic force arising from a thermal gradient in gas temperature induced by heating or cooling of the electrodes. Further growth of the nanoparticles due to coagulation is also described by coupling the 1D fluid model with an aerosol dynamics model.

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