Active gel physics
By J. Prost, Frank Jülicher, J. Joanny. Nature Physics, 2015
655 citations recorded by the source corpus.
Subfields: Biomedical Engineering, Condensed Matter Physics, Physiology
View Paper: https://www.semanticscholar.org/paper/9979b6f1d912ad1ce8d1b9af2572001c46f67e84
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Biomedical Engineering
- Michael J. Shelley
- M. Cristina Marchetti
- J. Joanny
- Marino Arroyo
- Daniel Millán
- Alejandro Torres-S'anchez
- S. Ramaswamy
- V. Vitelli
In Condensed Matter Physics
- M. Cristina Marchetti
- V. Vitelli
- J. Joanny
- Jaume Casademunt
- M. Bowick
- Michael J. Shelley
- Anton Souslov
- Ricard Alert
In Physiology
Citations in the corpus
- The Dynamics of Microtubule/Motor-Protein Assemblies in Biology and Physics (2016, background): “For reviews on the related subject of active actin-myosin gels, readers are referred to Juelicher et al. (2007) and Prost et al. (2015) .”
- Topological mechanics of gyroscopic metamaterials (2015, background): “, microelectromechanical systems) or active molecules that convert chemical energy into rotation very much like the motors powering each gyroscope (30, 31).”
- Topological active matter (2020, background): “[64] Prost, J.”
- Symmetry, Thermodynamics, and Topology in Active Matter (2021, background): “So far the active matter community has largely been using the same ideas to formulate continuum models of active and living systems [205].”
- Scalar Active Mixtures: The Nonreciprocal Cahn-Hilliard Model (2020, background): “The study of active matter [1, 2] has by now permeated across many scientific fields, length scales, and time scales, ranging from the study of catalytic enzymes [3–5] and the cytoskeleton [6] inside cells, to the collective motion of cells in tissues [7] and suspensions of bacteria [8, 9], all the ”
- Active Turbulence (2021, background): “Most theoretical work on turbulence in active nematics is based on hydrodynamic equations for macroscopic slow variables [35, 63, 75, 76].”
- Modelling fluid deformable surfaces with an emphasis on biological interfaces (2018, methodology): “Following previous works (Turlier et al. 2014; Prost et al. 2015), we consider an active gel model of the cortex as an isotropic viscous material with active tension confined to a surface and undergoing turnover, in which viscosity, active tension, and depolymerization depend on the thickness of…”