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Mechanical Yield in Amorphous Solids: a First-Order Phase Transition

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arxiv 1601.02196 v1 pith:MFRJ5MTQ submitted 2016-01-10 cond-mat.soft cond-mat.mtrl-sci

classification cond-mat.softcond-mat.mtrl-sci
keywords yieldphasetransitionamorphousbeforeconfigurationsdifferencematerial
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Amorphous solids yield at a critical value of the strain (in strain controlled experiments); for larger strains the average stress can no longer increase - the system displays an elasto-plastic steady state. A long standing riddle in the materials community is what is the difference between the microscopic states of the material before and after yield. Explanations in the literature are material specific, but the universality of the phenomenon begs a universal answer. We argue here that there is no fundamental difference in the states of matter before and after yield, but the yield is a bona-fide first order phase transition between a highly restricted set of possible configurations residing in a small region of phase space to a vastly rich set of configurations which include many marginally stable ones. To show this we employ an order parameter of universal applicability, independent of the microscopic interactions, that is successful in quantifying the transition in an unambiguous manner.

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  1. A Dynamical Mechanism for Irreversibility in Cyclically Driven Amorphous Solids

    cond-mat.soft 2026-08 conditional novelty 7.0 of 10

    Above yielding, cyclically driven amorphous solids become irreversible through rare branching events caused by competition between nearly degenerate plastic instabilities, not through chaotic sensitivity to initial co...

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