<p>If the sticky loop (dark green segment) is entangled with the knot (panels a and b), its removal determines a change in the chain topology (panel c). On the contrary, if no chain segment pierces the sticky loop (panels d and e), its excision does not modify the topological state of the whole polymer (panel f). In the figure, the sticky beads at the termini are orange, while those along the sequence are blue. In the first panel of both cases (a and d) the knotted region is inscribed in a circle. The two configurations are obtained from simulations of S-DNA with sticky monomers located at the {50, 300} point.</p
Recent developments in the study of chromatin loop domains and gene regulation motivates us to inves...
: DNA recombination is a ubiquitous process that ensures genetic diversity. Contrary to textbook pic...
AbstractThe configuration space available to randomly cyclized polymers is divided into subspaces ac...
Self-entanglement, or knotting, is entropically favored in long polymers. Relatively short polymers ...
We study knotted polymers in equilibrium with an array of obstacles which models confinement in a ge...
Inspired by how certain proteins "sense" knots and entanglements in DNA molecules, here we ask if th...
Knots are ubiquitous objects and decorative elements that have been studied since antiquity. During ...
<div><p>Self-entanglement, or knotting, is entropically favored in long polymers. Relatively short p...
AbstractLattice modeling is applied to investigate how the configurations of local chain juxtapositi...
Gel electrophoresis is a powerful experimental method to probe the topology of DNA and other biopoly...
A veritable zoo of different knots is seen in the ensemble of looped polymer chains, whether created...
The role of the topology and its relation with the geometry of biopolymers under different physic...
The configuration space available to randomly cyclized polymers is divided into subspaces accessible...
Ropes or yarns, especially when disorderly packed, are prone to develop knots. Polymers are no excep...
Circular DNA in viruses and bacteria is often knotted. While mathematically problematic, the determi...
Recent developments in the study of chromatin loop domains and gene regulation motivates us to inves...
: DNA recombination is a ubiquitous process that ensures genetic diversity. Contrary to textbook pic...
AbstractThe configuration space available to randomly cyclized polymers is divided into subspaces ac...
Self-entanglement, or knotting, is entropically favored in long polymers. Relatively short polymers ...
We study knotted polymers in equilibrium with an array of obstacles which models confinement in a ge...
Inspired by how certain proteins "sense" knots and entanglements in DNA molecules, here we ask if th...
Knots are ubiquitous objects and decorative elements that have been studied since antiquity. During ...
<div><p>Self-entanglement, or knotting, is entropically favored in long polymers. Relatively short p...
AbstractLattice modeling is applied to investigate how the configurations of local chain juxtapositi...
Gel electrophoresis is a powerful experimental method to probe the topology of DNA and other biopoly...
A veritable zoo of different knots is seen in the ensemble of looped polymer chains, whether created...
The role of the topology and its relation with the geometry of biopolymers under different physic...
The configuration space available to randomly cyclized polymers is divided into subspaces accessible...
Ropes or yarns, especially when disorderly packed, are prone to develop knots. Polymers are no excep...
Circular DNA in viruses and bacteria is often knotted. While mathematically problematic, the determi...
Recent developments in the study of chromatin loop domains and gene regulation motivates us to inves...
: DNA recombination is a ubiquitous process that ensures genetic diversity. Contrary to textbook pic...
AbstractThe configuration space available to randomly cyclized polymers is divided into subspaces ac...