Giant magnetic anisotropy in cerium-substituted hexaferrite CMI researchers from Ames National Laboratory conducted the research for this highlight.
Prediction of high magnetic anisotropy material CeZrFe11 CMI researchers at Ames Laboratory conducted the activity for this highlight
Reduced cobalt formulation of CMI “gap magnet” material CeCo5 CMI researchers at Ames Laboratory conducted the activity for this highlight
Giant magnetic anisotropy in Ce substituted SmCo5 CMI researchers at Ames Laboratory conducted the activity for this highlight
Large magnetic anisotropy in lanthanum M-type hexaferrites CMI researchers at Ames Laboratory conducted the research for this highlight
Fe substitution into SmCo5 for enhanced magnetic performance CMI researchers at Ames Laboratory conducted the research for this highlight
Dual powder approach yields new magnet fabrication method CMI researchers at Ames Laboratory conducted the research for this highlight
Enhancing magnetic properties CMI researchers at Ames Laboratory conducted the research for this CMI highlight on enhancing magnetic properties
New hard magnetic materials with reduced Co content CMI researchers at Ames Laboratory conducted this research on on new LaCo5-based hard magnetic materials with reduced Co content
Review article on rare earth magnets published CMI researchers at Ames Laboratory conducted the research for this CMI highlight on a review article published about on rare-earth-TM5 magnets
![The PDOS of distinct 2c and 3g2 Co sites along the [100] and [001] directions for different electron density functionals. The shaded regions indicate the DOS for the in-plane [100] axis, whereas the solid lines indicate the DOS along the uniaxial [001] direction. The difference between these curves is an important contribution to magnetic anisotropy.](/sites/default/files/styles/max_1300x1300/public/2020-10/cmi-highlight-242.png?itok=moVUIReX)