Birs- 13w5133: Entanglement in biology; how nature controls the topology of proteins and DNA
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Title: From Euclidean distance, to polymer uncrossing and knotting, to protein folding rate prediction
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Title: Experimental studies on the folding pathways of knotted proteins
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Title: Knotting proteins in implicit solvent
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Title: Novel knotted structure
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Title: New algorithms for sampling closed and/or confined equilateral polygons
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Title: The effect of confinement on knotting and geometry of random polygons
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Title: Lattice knots and links in tubes
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Title: Entanglement in systems of curves with Periodic Boundary Conditions
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Title: Entanglements in self-avoiding walks: Old wine in new bottles
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Title: Translocating knotted peptides
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Title: Mechanically Tightening a Protein Slipknot into a Trefoil Knot
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Title: Modelling the kinetoplast DNA network
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Title: Random knotting probability of DNA knots and scaling behavior
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Title: Modelling the Entropic Pressure near a Ring Polymer
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Title: Maxwell-Stefan electrophoresis simulation of equal mass type A catenanes and supercoiled dimers
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Title: Sedimentation of macroscopic rigid knots and its relation to gel electrophoretic mobility of DNA knots
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Title: Models of chromatin spatial organisation in the cell nucleus
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Title: Models that include supercoiling of topological domains reproduce several known features of interphase chromosomes
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Title: DNA dynamics during replication: the benefit of entanglement
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Title: DNA unlinking by Xer recombination
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