The use of magnetic nanoparticles (MNPs) to locally increase the temperature at the
nanoscale under the remote application of alternating magnetic fields (magnetic particle …

Nanomedicine research recently started exploring the combination of therapy and
diagnostics, so-called theranostics, as an approach to offer a more flexible, personal, and …

We present an introductory review of concepts behind micromagnetic simulations, in which
magnetic moments representing collections of atomic spins within a material evolve …

Recent experiments on magnetic nanoparticle hyperthermia show that the heat dissipated
by particles must be considered locally instead of characterizing it as a global quantity. Here …

Magnetic nanoparticles can generate heat when exposed to an alternating magnetic field.
Their heating efficacy is governed by their magnetic properties that are in turn determined by …

Interaction phenomena have become a hot topic in nanotechnology due to their influence on
the performance of magnetic nanostructures for biomedical applications. Hysteresis loops …

We investigate the magnetic relaxation of a system of interacting single-domain magnetic
nanoparticles, where the uniaxial energy density depends on temperature. Particles of …

Time-varying external magnetic fields can be used to manipulate the dynamics of magnetic
nanoparticles. When suspended in viscous media, external fields not only modify the …

Using first-principle calculations and kinetic Monte Carlo simulation, we study the local and
averaged hysteresis in tiny clusters of k magnetic nanoparticles (MNPs) or k-mers. We also …

We establish a general Langevin dynamics model of interacting, single-domain magnetic
nanoparticles (MNPs) in liquid suspension at finite temperature. The model couples the …