Magnetic field relaxation is determined by both the field's geometry and its topology. For relaxation processes, however, it turns out that its topology is a much more stringent constraint. As quantifier for the topology we use magnetic helicity and test whether it is a stronger condition than the linking of field lines. Further, we search for evidence of other topological invariants, which give rise to further restrictions in the field's relaxation. We find that magnetic helicity is the sole determinant in most cases. Nevertheless, we see evidence for restrictions not captured through magnetic helicity
After an introductory chapter concerned with the history of force-free magnetic fields, and the rela...
We reconsider the topological interpretation of magnetic helicity for magnetic fields in open domain...
Plasma relaxation in the presence of an initially braided magnetic field can lead to self-organizati...
Magnetic field relaxation is determined by both the field's geometry and its topology. For relaxatio...
Newly emerging magnetic flux can show a complicated linked or interwoven topology of the magnetic fi...
Stability and reconnection of magnetic fields play a fundamental role in natural and manmade plasma....
The final state of turbulent magnetic relaxation in a reversed field pinch is well explained by Tayl...
The final state of turbulent magnetic relaxation in a reversed field pinch is well explained by Tayl...
The broad variety of ways in which magnetic helicity affects astrophysical systems, in particular dy...
doi:10.1017/S1743921313002743 Topological constraints on magnetic field relaxatio
We reconsider the topological interpretation of magnetic helicity for magnetic fields in open domain...
Magnetic helicity is a fundamental quantity of magnetohydrodynamics that carries topological informa...
Field line helicity measures the net linking of magnetic flux with a single magnetic field line. It ...
Predicting the final state of turbulent plasma relaxation is an important challenge, both in astro-p...
The energy of the stochastic magnetic field is bounded from below by a topological quantity expressi...
After an introductory chapter concerned with the history of force-free magnetic fields, and the rela...
We reconsider the topological interpretation of magnetic helicity for magnetic fields in open domain...
Plasma relaxation in the presence of an initially braided magnetic field can lead to self-organizati...
Magnetic field relaxation is determined by both the field's geometry and its topology. For relaxatio...
Newly emerging magnetic flux can show a complicated linked or interwoven topology of the magnetic fi...
Stability and reconnection of magnetic fields play a fundamental role in natural and manmade plasma....
The final state of turbulent magnetic relaxation in a reversed field pinch is well explained by Tayl...
The final state of turbulent magnetic relaxation in a reversed field pinch is well explained by Tayl...
The broad variety of ways in which magnetic helicity affects astrophysical systems, in particular dy...
doi:10.1017/S1743921313002743 Topological constraints on magnetic field relaxatio
We reconsider the topological interpretation of magnetic helicity for magnetic fields in open domain...
Magnetic helicity is a fundamental quantity of magnetohydrodynamics that carries topological informa...
Field line helicity measures the net linking of magnetic flux with a single magnetic field line. It ...
Predicting the final state of turbulent plasma relaxation is an important challenge, both in astro-p...
The energy of the stochastic magnetic field is bounded from below by a topological quantity expressi...
After an introductory chapter concerned with the history of force-free magnetic fields, and the rela...
We reconsider the topological interpretation of magnetic helicity for magnetic fields in open domain...
Plasma relaxation in the presence of an initially braided magnetic field can lead to self-organizati...