A thermodynamic connection to the fragility of glass-forming liquids
By L. Martinez, Charles Angell. Nature, 2001
648 citations recorded by the source corpus.
Subfields: Biomedical Engineering, Condensed Matter Physics, Materials Chemistry
View Paper: https://www.semanticscholar.org/paper/2da42b6db603d216cf8f8a3ad2566a248d4b1f48
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In Biomedical Engineering
- Giulio Biroli
- X. Trepat
- John C. Mauro
- Ludovic Berthier
- David A. Weitz
- Jeffrey J. Fredberg
- Stephen R. Williams
- Michael I. Ojovan
In Condensed Matter Physics
- Ludovic Berthier
- Giulio Biroli
- Stephen R. Williams
- C. Royall
- Michael I. Ojovan
- John C. Mauro
- Juan P. Garrahan
- L. Janssen
In Materials Chemistry
- Ludovic Berthier
- Stephen R. Williams
- C. Royall
- Giulio Biroli
- John C. Mauro
- David A. Weitz
- Y. Yue
- Michael I. Ojovan
Citations in the corpus
- Theoretical perspective on the glass transition and amorphous materials (2010, background): “…normalized by its value at the melting temperature, is plotted as a function of T , a remarkable connection with the dynamics, in particular the VFT law, emerges (see (Martinez and Angell, 2001) for a compilation of experimental data and (Debenedetti and Stillinger, 2001) for a discussion).”
- Viscosity of glass-forming liquids (2009, background): “The relaxation time at an infinitely high temperature is given by the quasilattice vibration period ( 10 14 s), corresponding to the time between successive assaults on the energy barriers to structural rearrangement (29, 30).”
- Glass-like dynamics of collective cell migration (2011, background): “Although the underlying details of the AM and VFT models differ, and the VFT predicts a divergence in D−1 0 which we cannot observe (20), both models reveal the same relaxation behavior in the cell system: collective migration within a confluent cell monolayer exhibits behavior that is remarkably re”