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  • PhysRevLett.107.276801

    Rights statement: © 2011 American Physical Society

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Advanced Simulation of Conductance Histograms Validated through Channel-Sensitive Experiments on Indium Nanojunctions

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  • P. Makk
  • D. Visontai
  • L. Oroszlany
  • David Manrique
  • Sz Csonka
  • J. Cserti
  • A. Halbritter
  • Colin Lambert
Article number276801
<mark>Journal publication date</mark>28/12/2011
<mark>Journal</mark>Physical review letters
Issue number27
Number of pages5
Publication StatusPublished
<mark>Original language</mark>English


We demonstrate a self-contained methodology for predicting conductance histograms of atomic and molecular junctions. Fast classical molecular-dynamics simulations are combined with accurate density functional theory calculations predicting both quantum transport properties and molecular-dynamics force field parameters. The methodology is confronted with experiments on atomic-sized indium nanojunctions. Beside conductance histograms the distribution of individual channel transmission eigenvalues is also determined by fitting the superconducting subgap features in the I-V curves. The remarkable agreement in the evolution of the channel transmissions demonstrates that the simulated ruptures are able to reproduce a realistic statistical ensemble of contact configurations, whereas simulations on selected ideal geometries show strong deviations from the experimental observations.

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© 2011 American Physical Society