The relaxation dynamics of a simple glass former confined in a pore
Peter Scheidler, Walter Kob, Kurt Binder
Abstract
We use molecular dynamics computer simulations to investigate the relaxation dynamics of a binary Lennard-Jones liquid confined in a narrow pore. We find that the average dynamics is strongly influenced by the confinement in that time correlation functions are much more stretched than in the bulk. By investigating the dynamics of the particles as a function of their distance from the wall, we can show that this stretching is due to a strong dependence of the relaxation time on this distance, i.e. that the dynamics is spatially very heterogeneous. In particular we find that the typical relaxation time of the particles close to the wall is orders of magnitude larger than the one of particles in the center of the pore.
Create a lesson
Related papers
Universal Boolean Computation in Negatively Coupled Circle Map Lattices
Priyanka D. Bhoyar, Prashant M. Gade
Developing the Statistical Mechanics of Evolving Assembly Spaces
Anisha K. Yeddanapudi, Abhishek Sharma, Ian Seet et al.
Ergodicity breaking transition beyond qubits
Tanay Pathak, Abhik Kumar Saha
Extended-range percolation on lattices with cubic and non-compact neighborhoods in three dimensions
Zhe Zhang, Yuxuan Fan, Yang Yang et al.
Competitive scaling of small-subsystem-optimization heuristics for LABS
Ginger E. Lau, Adil A. Gangat
IceCube data for astrophysical neutrinos exhibit q-statistical behavior
Constantino Tsallis, Ugur Tirnakli