Magnetization, transport, and muon spin relaxation measurements provide evidence for altermagnetic order in Fe0.85Cr0.15Sb2 below ~3.5 K with time-reversal symmetry breaking but no net magnetization.
Local probe evidence supporting altermagnetism in co1/4nbse2,
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Ultrafast light induces momentum-dependent altermagnetic spin splitting in antiferromagnets via photoexcited charge redistribution and lattice distortion that breaks effective time-reversal symmetry.
First-principles and tight-binding analysis shows ligand-assisted coupling dominates altermagnetic spin-splitting in Co1/4NbSe2.
Symmetry-guided graph neural networks trained on 200 structures screen 100,000+ iTMD configurations to identify 55 antiferromagnetic spintronics candidates with d-wave altermagnetism or giant T-odd spin Edelstein effects.
citing papers explorer
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Evidence for altermagnetic order in Cr-doped FeSb2
Magnetization, transport, and muon spin relaxation measurements provide evidence for altermagnetic order in Fe0.85Cr0.15Sb2 below ~3.5 K with time-reversal symmetry breaking but no net magnetization.
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A Route to Nonrelativistic Altermagnetic Spin Splitting via Ultrafast Light
Ultrafast light induces momentum-dependent altermagnetic spin splitting in antiferromagnets via photoexcited charge redistribution and lattice distortion that breaks effective time-reversal symmetry.
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Ligand-mediated Origin of Altermagnetic Spin-Splitting
First-principles and tight-binding analysis shows ligand-assisted coupling dominates altermagnetic spin-splitting in Co1/4NbSe2.
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Symmetry-guided and AI-accelerated design of intercalated transition metal dichalcogenides for antiferromagnetic spintronics
Symmetry-guided graph neural networks trained on 200 structures screen 100,000+ iTMD configurations to identify 55 antiferromagnetic spintronics candidates with d-wave altermagnetism or giant T-odd spin Edelstein effects.