The magnetic exchange coupling interaction between hard and soft magnetic phases has been important for tailoring nanoscale magnetism, but spin interactions at the core-shell interface have not been well studied. Here, we systematically investigated a new interface phenomenon termed enhanced spin canting (ESC), which is operative when the shell thickness becomes ultrathin, a few atomic layers, and exhibits a large enhancement of magnetic coercivity (HC). We found that ESC arises not from the typical hard-soft exchange coupling but rather from the large magnetic surface anisotropy (KS) of the ultrathin interface. Due to this large increase in magnetism, ultrathin core-shell nanoparticles overreach the theoretical limit of magnetic energy pro...
In order to explore an alternative strategy to design exchange-biased magnetic nanostructures, bimag...
The fundamental understanding of nanoscale materials has been the focus of much scientific and techn...
Although single magnetic domain nanoparticles are very promising for many applications, size reducti...
Magnetic core–shell nanostructures offer a viable solution for tunable magnetism via nanoscale excha...
Solution-based growth of magnetic FePt-FeCo (core-shell) nanoparticles with a controllable shell thi...
We have used X-ray magnetic circular dichroism and magnetometry to study isolated Fe@Cr core-shell n...
With the aim of controlling nanoscale magnetism, we demonstrate an approach encompassing concepts of...
We have used X-ray magnetic circular dichroism and magnetometry to study isolated Fe@Cr core−shell n...
Magnetic core–shell nanostructures offer a viable solution for tunable magnetism via nanoscale excha...
Abstract Magnetic nanoparticles (MNPs) have become increasingly important in biomedical applications...
Magnetic nanoparticles (NPs) have garnered much interest due to the unique properties that emergewhe...
Magnetic nanoparticles (MNPs) have become increasingly important in biomedical applications like mag...
The synthesis strategy and magnetic characterisation of two systems consisting of nanoparticles with...
Core/shell Fe3O4/gamma-Fe2O3 nanoparticles have been designed as a promising agent for magnetic hype...
International audienceFe-Au core-shell nanoparticles embedded in an amorphous alumina matrix are syn...
In order to explore an alternative strategy to design exchange-biased magnetic nanostructures, bimag...
The fundamental understanding of nanoscale materials has been the focus of much scientific and techn...
Although single magnetic domain nanoparticles are very promising for many applications, size reducti...
Magnetic core–shell nanostructures offer a viable solution for tunable magnetism via nanoscale excha...
Solution-based growth of magnetic FePt-FeCo (core-shell) nanoparticles with a controllable shell thi...
We have used X-ray magnetic circular dichroism and magnetometry to study isolated Fe@Cr core-shell n...
With the aim of controlling nanoscale magnetism, we demonstrate an approach encompassing concepts of...
We have used X-ray magnetic circular dichroism and magnetometry to study isolated Fe@Cr core−shell n...
Magnetic core–shell nanostructures offer a viable solution for tunable magnetism via nanoscale excha...
Abstract Magnetic nanoparticles (MNPs) have become increasingly important in biomedical applications...
Magnetic nanoparticles (NPs) have garnered much interest due to the unique properties that emergewhe...
Magnetic nanoparticles (MNPs) have become increasingly important in biomedical applications like mag...
The synthesis strategy and magnetic characterisation of two systems consisting of nanoparticles with...
Core/shell Fe3O4/gamma-Fe2O3 nanoparticles have been designed as a promising agent for magnetic hype...
International audienceFe-Au core-shell nanoparticles embedded in an amorphous alumina matrix are syn...
In order to explore an alternative strategy to design exchange-biased magnetic nanostructures, bimag...
The fundamental understanding of nanoscale materials has been the focus of much scientific and techn...
Although single magnetic domain nanoparticles are very promising for many applications, size reducti...