AbstractGiven a “short” piece of rope, one can tie only “simple” knots. We make this precise by modeling “rope” as a solid tube of constant radius about a smooth core. The complexity of a knot is captured by its average crossing number which in turn bounds the minimum crossing number for the knot type. Then the ratio, L, of rope-length to radius provides an upper bound for the crossing number. Our bound is in terms of L43 , which we believe is the lowest exponent possible. Our route for connecting rope-length of a knot to its thickness is via self-repelling knot energies the normal energy EN(K) and the symmetric energy ES(K)
Abstract. The ropelength of a knot is the quotient of its length by its thick-ness, the radius of th...
AbstractThis paper provides bounds for the ropelength of a link in terms of the crossing numbers of ...
A physical interpretation of the rope simulated by the SONO algorithm is presented. Properties of th...
AbstractGiven a “short” piece of rope, one can tie only “simple” knots. We make this precise by mode...
Classical knot theory studies one-dimensional filaments; in this paper we model knots as more physic...
AbstractClassical knot theory studies one-dimensional filaments; in this paper we model knots as mor...
this paper we study physical knots; that is, knots tied (as closed loops) in real pieces of rope, wh...
The Möbius energy of a knot is an energy functional for smooth curves based on an idea of self-repel...
The ropelength problem asks for the minimum-length configuration of a knotted diameter-one tube embe...
AbstractThe Möbius energy of a knot is an energy functional for smooth curves based on an idea of se...
Knots are commonly found in molecular chains such as DNA and proteins, and they have been considered...
AbstractWe establish a new relationship between total curvature of knots and crossing number. If K i...
This paper considers and relates several notions of energy and other measures of geometric complexit...
In this paper we define a set of radii called thickness for simple closed curves denoted by K, which...
The ropelength of a knot is the quotient of its length by its thickness, the radius of the largest e...
Abstract. The ropelength of a knot is the quotient of its length by its thick-ness, the radius of th...
AbstractThis paper provides bounds for the ropelength of a link in terms of the crossing numbers of ...
A physical interpretation of the rope simulated by the SONO algorithm is presented. Properties of th...
AbstractGiven a “short” piece of rope, one can tie only “simple” knots. We make this precise by mode...
Classical knot theory studies one-dimensional filaments; in this paper we model knots as more physic...
AbstractClassical knot theory studies one-dimensional filaments; in this paper we model knots as mor...
this paper we study physical knots; that is, knots tied (as closed loops) in real pieces of rope, wh...
The Möbius energy of a knot is an energy functional for smooth curves based on an idea of self-repel...
The ropelength problem asks for the minimum-length configuration of a knotted diameter-one tube embe...
AbstractThe Möbius energy of a knot is an energy functional for smooth curves based on an idea of se...
Knots are commonly found in molecular chains such as DNA and proteins, and they have been considered...
AbstractWe establish a new relationship between total curvature of knots and crossing number. If K i...
This paper considers and relates several notions of energy and other measures of geometric complexit...
In this paper we define a set of radii called thickness for simple closed curves denoted by K, which...
The ropelength of a knot is the quotient of its length by its thickness, the radius of the largest e...
Abstract. The ropelength of a knot is the quotient of its length by its thick-ness, the radius of th...
AbstractThis paper provides bounds for the ropelength of a link in terms of the crossing numbers of ...
A physical interpretation of the rope simulated by the SONO algorithm is presented. Properties of th...