The slow dynamics of glassy materials: Insights from computer simulations

TL;DR

This paper discusses how computer simulations serve as a valuable tool for understanding the microscopic origins of slow, glassy dynamics across various disordered systems, bridging the gap between experiments and theory.

Contribution

It highlights the role of computer simulations in studying glassy dynamics and provides insights into the microscopic mechanisms underlying these phenomena.

Findings

Simulations reveal microscopic origins of glassy slow dynamics.

Computer models can bridge experimental and theoretical time scales.

Insights apply to diverse disordered systems like magnetic materials and gels.

Abstract

The physics of glasses can be studied from many viewpoints, from material scientists interested in the development of new materials to statistical physicists inventing new theoretical tools to deal with disordered systems. In these lectures I described a variety of physical phenomena observed in actual glassy materials, from disordered magnetic systems to soft gels. Despite the very large gap between experimental and numerical time windows, I showed that computer simulations represent an efficient theoretical tool which can shed light on the microscopic origins of glassy dynamics.