Science · 1997 · 965 citations · 90 references
Materials ScienceEngineeringPhysicsGas PhaseNatural SciencesSurface ScienceApplied PhysicsCondensed Matter PhysicsAtomistic ProcessesNucleationPhysical ChemistryIsland CornersChemistryThin FilmsChemical DepositionChemical Vapor DepositionThin Film Processing
Thin‑film growth from gas‑phase deposition is a nonequilibrium process governed by competing kinetic and thermodynamic factors, and precise control of film properties requires understanding this competition. The study investigates the atomic‑scale kinetic mechanisms that drive thin‑film growth. The authors analyze adatom diffusion on terraces, steps, and island corners, nucleation dynamics, attachment/detachment at terraces and islands, and interlayer transport, and discuss how to manipulate these processes to select a desired growth mode.
Growth of thin films from atoms deposited from the gas phase is intrinsically a nonequilibrium phenomenon governed by a competition between kinetics and thermodynamics. Precise control of the growth and thus of the properties of deposited films becomes possible only after an understanding of this competition is achieved. Here, the atomic nature of the most important kinetic mechanisms of film growth is explored. These mechanisms include adatom diffusion on terraces, along steps, and around island corners; nucleation and dynamics of the stable nucleus; atom attachment to and detachment from terraces and islands; and interlayer mass transport. Ways to manipulate the growth kinetics in order to select a desired growth mode are briefly addressed.
90
Surface Studies by Scanning Tunneling Microscopy
G. Binnig, H. Rohrer, Ch. Gerber et al. · Physical Review Letters · 1982 · 4.6K citations · Full text
Step Motion on Crystal Surfaces
Richard L. Schwoebel, Edward J. Shipsey · Journal of Applied Physics · 1966 · 1.6K citations