The Skyrme–Faddeev model is a three-dimensional nonlinear field theory that has topological soliton solutions, called hopfions, which are novel string-like solutions taking the form of knots and links. Solutions found thus far take the form of torus knots and links of these, however torus knots form only a small family of known knots. It is an open question whether any non-torus knot hopfions exist. In this paper we present a construction of knotted fields with the form of cable knots to which an energy minimization scheme can be applied. We find the first known hopfions which do not have the form of torus knots, but instead take the form of cable and hyperbolic knots
More than 40 years ago, Faddeev proposed the existence of three-dimensional topological solitons cla...
Several materials, such as ferromagnets, spinor Bose-Einstein condensates, and some topological insu...
The research presented in this thesis is concerned with soliton interactions and bound states. We co...
The Skyrme–Faddeev model is a modified sigma model in three-dimensional space, which has string-like...
The Skyrme-Faddeev model is a (3 + 1)-dimensional model which has knotted, string-like, soliton solu...
In this thesis the research presented relates to topological solitons in (2+1) and (3+1)-dimensional...
We present a direct connection between torus knots and Hopfions by finding stable and static solutio...
It has been suggested recently that knots might exist as stable soliton solutions in a simple three-...
Hopf solitons in the Skyrme-Faddeev system on R3 typically have a complicated structure, in particul...
Frustrated magnets are known to support two-dimensional topological solitons, called skyrmions. A co...
We have studied numerically Faddeev-Hopf knots, which are defined as those unit-vector fields in $R^...
AbstractWe present a direct connection between torus knots and Hopfions by finding stable and static...
The Skyrme-Faddeev model is a (3 + 1)-dimensional model which has knotted, string-like, soliton solu...
A magnetic Skyrmion is a stable two-dimensional nanoparticle describing a localized winding of the m...
The topological solitons of two classical field theories, the Faddeev-Skyrme model and the Ginzburg-...
More than 40 years ago, Faddeev proposed the existence of three-dimensional topological solitons cla...
Several materials, such as ferromagnets, spinor Bose-Einstein condensates, and some topological insu...
The research presented in this thesis is concerned with soliton interactions and bound states. We co...
The Skyrme–Faddeev model is a modified sigma model in three-dimensional space, which has string-like...
The Skyrme-Faddeev model is a (3 + 1)-dimensional model which has knotted, string-like, soliton solu...
In this thesis the research presented relates to topological solitons in (2+1) and (3+1)-dimensional...
We present a direct connection between torus knots and Hopfions by finding stable and static solutio...
It has been suggested recently that knots might exist as stable soliton solutions in a simple three-...
Hopf solitons in the Skyrme-Faddeev system on R3 typically have a complicated structure, in particul...
Frustrated magnets are known to support two-dimensional topological solitons, called skyrmions. A co...
We have studied numerically Faddeev-Hopf knots, which are defined as those unit-vector fields in $R^...
AbstractWe present a direct connection between torus knots and Hopfions by finding stable and static...
The Skyrme-Faddeev model is a (3 + 1)-dimensional model which has knotted, string-like, soliton solu...
A magnetic Skyrmion is a stable two-dimensional nanoparticle describing a localized winding of the m...
The topological solitons of two classical field theories, the Faddeev-Skyrme model and the Ginzburg-...
More than 40 years ago, Faddeev proposed the existence of three-dimensional topological solitons cla...
Several materials, such as ferromagnets, spinor Bose-Einstein condensates, and some topological insu...
The research presented in this thesis is concerned with soliton interactions and bound states. We co...