Check our recent paper results of an amazing theoretical-experimental collaboration: Site-Selective
Electronic Structure and Dynamical
Softness in the Metallic Antiferromagnet Mn3CuN https://t.co/koaLKyiGmd @UIS@J_A_C_S
Check our recent paper results of an amazing theoretical-experimental collaboration: Site-Selective
Electronic Structure and Dynamical
Softness in the Metallic Antiferromagnet Mn3CuN https://t.co/koaLKyiGmd @UIS@J_A_C_S
Our recent work on Chiral symmetry and magnetism in a three-dimensional kagome lattice: prototype crystals RPt2B (R=La and Nd) https://t.co/HZyqdm6kmk is out on @PhysRevB@WestVirginiaU@UninorteCO@UIS
BREAKING: MIT just completed the first brain scan study of ChatGPT users & the results are terrifying.
Turns out, AI isn't making us more productive. It's making us cognitively bankrupt.
Here's what 4 months of data revealed:
(hint: we've been measuring productivity all wrong)
Structural Phase Transitions in Layered Perovskite CsFeF4 and Weak Polar Response in CsFeF4/RbFeF4 Superlattice - Advanced Theory and Simulations https://t.co/Z82mo1SelB
Physical Review B - Accepted Paper: Chiral symmetry and magnetism in a three-dimensional kagome lattice: RPt2B prototype crystals (R= La and Nd) @PhysRevB https://t.co/TTmoRzCtVs
Physical Review B - Accepted Paper: Chiral symmetry and magnetism in a three-dimensional kagome lattice: RPt2B prototype crystals (R= La and Nd) @PhysRevB https://t.co/TTmoRzCtVs
Check our recently published paper: "Efficiency of band edge optical transitions of two-dimensional monolayer materials: A high-throughput computational study" https://t.co/kT4PoyJp8r @PhysRevB@UIS@McMasterU
Physical Review B - Accepted Paper: Efficiency of band edge optical transitions of two-dimensional monolayer materials: A high-throughput computational study https://t.co/RfunCATou9
I just pushed a new paper to arXiv. I realized that a lot of my previous work on robust losses and nerf-y things was dancing around something simpler: a slight tweak to the classic Box-Cox power transform that makes it much more useful and stable. It's this f(x, λ) here:
Experimental and Theoretical Evidence of Weak Spin–Lattice Coupling in the Double Perovskite Sr2YRuO6 - Liu - Journal of Raman Spectroscopy - Wiley Online Library https://t.co/7ILdH2ndbp
Our recent study on the TaTe4 is out now in @PhysRevB Phys. Rev. B 110, 125151 (2024) - Experimental observation of metallic states with different dimensionality in a quasi-one-dimensional charge density wave compound https://t.co/0aMA3qYQrx @UIS@Uniandes@UnivParisSaclay
The final version of our paper is out! Check it in Phys. Rev. B 108, 245143 (2023) - Kagome KMn3Sb5 metal: Magnetism, lattice dynamics, and anomalous Hall conductivity https://t.co/ZmgttaOOtG @PhysRevB@UIS@UofR
The Rashba effect lets us control electron spin without external magnetic fields, revolutionizing devices. Exciting breakthroughs in 2D Rashba materials pave the way for next-gen spintronics devices.
Learn more 👇
https://t.co/D39zZoosSo
Interested in #ChargeDensityWaves#Topology#ARPES#DFT? Check our recently accepted paper: Experimental observation of metallic states with different dimensionality in a quasi-one-dimensional charge density wave compound https://t.co/SDUUSvKmMN @UIS@Uniandes@UnivParisSaclay
After a very nice experimental-theoretical collaboration, our paper in CoF2 is finally out in @PhysRevB https://t.co/RQmevQzurd @UIS@WestVirginiaU @oiffe