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
High-performance critical-element-free permanent magnets CMI researchers at Ames Laboratory conducted the research for the CMI highlight on High-performance critical-element-free permanent magnets
High-strength, high temperature bonded magnets CMI researchers at Oak Ridge National Laboratory and Ames Laboratory collaborated on the research for this CMI highlight on high-strength, high temperature NdFeB PPS bonded magnets
Potential Alnico-surpassing gap magnet CMI researchers at Iowa State University, Ames Laboratory and UC-Davis collaborated with researchers at the University of Nebraska at Lincoln for this highlight on a potential Alnico-surpassing gap magnet
Electrolyte design for separation of rare earth metals (Pr & Nd) CMI researchers at Idaho National Laboratory worked with OLI Systems to create an electrolyte design for separation of rare earth metals (Pr & Nd)
Ozonolysis of Alkynes to a-Diketones. Synthesis of AI-2 The new method uses no metals and proceeds readily at sub-ambient temperatures.
Improving alnico magnets using thermomagnetic processing CMI researchers at Ames Laboratory and Oak Ridge National Laboratory demonstrated increases in coercivity and energy product and tuning of phase transformation temperatures in alnico using high magnetic field processing
Finite Element Model for mechanical properties of SmCo5 CMI research conducted at Ames Laboratory developed a finite-element (FE) model for a SmCo5 magnet matrix with Sm2O3 impurities. The results accurately predict the stress distribution from a three-point bend analysis to identify domains of stress concentration and failure.
Magnetically aligned electrodes predicted to increase lithium-ion battery capacity by as much as 25% CMI research at Ames Laboratory developed a coupled electrochemical-thermal-mechanical model to predict the electrochemical degradation and performance of magnetically aligned electrodes in lithium-ion batteries for fast-charging applications
![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)
