Electron-Phonon Dynamics in an Ensemble of Nearly Isolated Nanoparticles
Daniel T. Simon, Michael R. Geller
Abstract
We investigate the electron population dynamics in an ensemble of nearly isolated insulating nanoparticles, each nanoparticle modeled as an electronic two-level system coupled to a single vibrational mode. We find that at short times the ensemble-averaged excited-state population oscillates but has a decaying envelope. At long times, the oscillations become purely sinusoidal about a ``plateau'' population, with a frequency determined by the electron-phonon interaction strength, and with an envelope that decays algebraically as t-1/2 We use this theory to predict electron-phonon dynamics in an ensemble of Y2 O3 nanoparticles.
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