Multivalent ions induce attractions between polyelectrolytes, but lead to finite-sized bundles rather than macroscopic phase separation. The kinetics of aggregation and bundle formation of actin is tracked using two different fluorescently labeled populations of F-actin. It is found that the growth mode of these bundles evolves with time and salt concentration, varying from an initial lateral growth to a longitudinal one at later stages. The results suggest that kinetics play a role in bundle growth, but not in the lateral size of bundles, which is constant for linear and branched topologies. © 2007 The American Physical Society
Polymerization of dendritic actin networks underlies important mechanical processes in cell biology ...
Aggregation of like-charged polymers is widely observed in biological- and soft-matter systems. In m...
Bundles and networks of semiflexible biopolymers are key elements in cells, lending them mechanical ...
Using molecular dynamics simulations, the kinetics of bundle formation for stiff polyelectrolytes su...
Using molecular dynamics simulations, the kinetics of bundle formation for stiff polyelectrolytes su...
Molecular dynamics simulation techniques are used to study the process of aggregation of highly char...
The bonding rules for actin filament bundles do not lead to a particular packing symmetry, but allow...
Actin bundles are key factors in the mechanical support and dynamic reorganization of the cytoskelet...
Actin bundles are key factors in the mechanical support and dynamic reorganization of the cytoskelet...
Attractions between like-charged polyelectrolytes have been observed in a variety of systems (W.M. G...
The assembly of actin filaments into bundles plays an essential role in mechanical strength and dyna...
The assembly of actin filaments into bundles plays an essential role in mechanical strength and dyna...
Attractions between like-charged polyelectrolytes have been observed in a variety of systems (W.M. G...
<p>Time-lapse images of emerging networks of actin bundles from semi-dilute solutions of confined ac...
The actin cytoskeleton is organized into diverse meshworks and bundles that support many aspects of ...
Polymerization of dendritic actin networks underlies important mechanical processes in cell biology ...
Aggregation of like-charged polymers is widely observed in biological- and soft-matter systems. In m...
Bundles and networks of semiflexible biopolymers are key elements in cells, lending them mechanical ...
Using molecular dynamics simulations, the kinetics of bundle formation for stiff polyelectrolytes su...
Using molecular dynamics simulations, the kinetics of bundle formation for stiff polyelectrolytes su...
Molecular dynamics simulation techniques are used to study the process of aggregation of highly char...
The bonding rules for actin filament bundles do not lead to a particular packing symmetry, but allow...
Actin bundles are key factors in the mechanical support and dynamic reorganization of the cytoskelet...
Actin bundles are key factors in the mechanical support and dynamic reorganization of the cytoskelet...
Attractions between like-charged polyelectrolytes have been observed in a variety of systems (W.M. G...
The assembly of actin filaments into bundles plays an essential role in mechanical strength and dyna...
The assembly of actin filaments into bundles plays an essential role in mechanical strength and dyna...
Attractions between like-charged polyelectrolytes have been observed in a variety of systems (W.M. G...
<p>Time-lapse images of emerging networks of actin bundles from semi-dilute solutions of confined ac...
The actin cytoskeleton is organized into diverse meshworks and bundles that support many aspects of ...
Polymerization of dendritic actin networks underlies important mechanical processes in cell biology ...
Aggregation of like-charged polymers is widely observed in biological- and soft-matter systems. In m...
Bundles and networks of semiflexible biopolymers are key elements in cells, lending them mechanical ...