Finite size analysis of zero-temperature jamming transition under applied shear stress
arXiv:1312.2653 · doi:10.1103/PhysRevLett.112.145502
Abstract
By finding local minima of an enthalpy-like energy, we can generate jammed packings of frictionless spheres under constant shear stress and obtain the yield stress by sampling the potential energy landscape. For three-dimensional systems with harmonic repulsion, satisfies the finite size scaling with the limiting scaling relation , where is the critical volume fraction of the jamming transition at in the thermodynamic limit. The width or uncertainty of the yield stress decreases with decreasing and decays to zero in the thermodynamic limit. The finite size scaling implies a length with , which turns out to be a robust and universal length scale exhibited as well in the finite size scaling of multiple quantities measured without shear and independent of particle interaction. Moreover, comparison between our new approach and quasi-static shear reveals that quasi-static shear tends to explore low-energy states.
5 pages, 4 figures
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- Finite-Size Analysis of the Collapse of Dry Granular Columns
- Instabilities of jammed packings of frictionless spheres under compression
- Shear induced solidification of athermal systems with weak attraction
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- Mechanical properties of jammed packings of frictionless spheres under applied shear stress
- Jamming in confined geometry: Criticality of the jamming transition and implications of structural relaxation in confined supercooled liquids