Note: Relaxation time below jamming
arXiv:2007.11166 · doi:10.1063/5.0024042
Abstract
Like other critical phenomena, the jamming transition accompanies the divergence of the relaxation time . A recent numerical study of frictionless spherical particles proves that is inversely proportional to the lowest non-zero eigenvalue of the dynamical matrix. In this note, we derive the scaling of below the jamming transition point by solving the linearized dynamical equation. The resultant critical exponent agrees with a previous theoretical result for sheared suspension obtained by applying the virtual work theorem to a simple shear, highlighting the universality of the relaxation dynamics below jamming.
2 pages, 1 figure
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Cited by in corpus (6)
- Relaxation dynamics of non-Brownian spheres below jamming
- Strain-controlled critical slowing down in the rheology of disordered networks
- Introduction to the dynamics of disordered systems: equilibrium and gradient descent
- Critical Scaling of Compression-Driven Jamming of Athermal Frictionless Spheres in Suspension
- Universality of stress-anisotropic and stress-isotropic jamming of frictionless spheres in three dimensions: Uniaxial vs isotropic compression
- Gradient descent dynamics and the jamming transition in infinite dimensions