Inspired by the ubiquity of composite filamentous networks in nature, we investigate models of biopolymer networks that consist of interconnected floppy and stiff filaments. Numerical simulations carried out in three dimensions allow us to explore the microscopic partitioning of stresses and strains between the stiff and floppy fractions cs and cf and reveal a nontrivial relationship between the mechanical behavior and the relative fraction of stiff polymer: when there are few stiff polymers, nonpercolated stiff "inclusions" are protected from large deformations by an encompassing floppy matrix, while at higher fractions of stiff material the stiff network is independently percolated and dominates the mechanical response
The mechanical properties of cells and the extracellular environment they reside in are governed by ...
Random networks of semiflexible filaments are common support structures in biology. Familiar example...
This is an overview of theoretical approaches to semiflexible polymers and their networks. Such semi...
Inspired by the ubiquity of composite filamentous networks in nature, we investigate models of biopo...
Motivated by recent experiments showing nonlinear elasticity of in vitro networks of the biopolymer ...
The microstructural basis of the characteristic nonlinear mechanics of biopolymernetworks remains un...
Strain stiffening of filamentous protein networks is explored by means of a finite strain analysis o...
Recent experiments have demonstrated that the nonlinear elasticity of in vitro networks of the biopo...
Biopolymer networks, such as those constituting the cytoskeleton of a cell or biological tissue, exh...
The semiflexible polymers filamentous actin (F‑actin) and intermediate filaments (IF) both form comp...
The viscoelasticity of the crosslinked semiflexible polymer networks—such as the internal cytoskelet...
The mechanical properties of cells and the extracellular environment they reside in are governed by ...
Random networks of semiflexible filaments are common support structures in biology. Familiar example...
This is an overview of theoretical approaches to semiflexible polymers and their networks. Such semi...
Inspired by the ubiquity of composite filamentous networks in nature, we investigate models of biopo...
Motivated by recent experiments showing nonlinear elasticity of in vitro networks of the biopolymer ...
The microstructural basis of the characteristic nonlinear mechanics of biopolymernetworks remains un...
Strain stiffening of filamentous protein networks is explored by means of a finite strain analysis o...
Recent experiments have demonstrated that the nonlinear elasticity of in vitro networks of the biopo...
Biopolymer networks, such as those constituting the cytoskeleton of a cell or biological tissue, exh...
The semiflexible polymers filamentous actin (F‑actin) and intermediate filaments (IF) both form comp...
The viscoelasticity of the crosslinked semiflexible polymer networks—such as the internal cytoskelet...
The mechanical properties of cells and the extracellular environment they reside in are governed by ...
Random networks of semiflexible filaments are common support structures in biology. Familiar example...
This is an overview of theoretical approaches to semiflexible polymers and their networks. Such semi...