Vacancy-driven reconstruction of V2X2 monolayers creates an inverse Lieb network that realizes d-wave altermagnetism with (cos kx - cos ky) spin splitting and zero net magnetization.
Chemical design of monolayer altermagnets
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Sliding bilayer altermagnets host antiferromagnetic half-metallicity and Chern insulator phases via spin-dependent interlayer hopping in ferrovalley states, demonstrated in V2OSSe by first-principles calculations.
Interlayer sliding in M2A2B and M2AA'B bilayer altermagnets induces ferrovalley polarization and antiferromagnetic half-metallicity, with Mo2O2O showing 0.31 eV valley splitting and V2SSeO as a candidate half-metal.
A review that classifies two-dimensional altermagnets via spin-group theory, lists materials with large spin splitting, and outlines design strategies for experimental realization.
citing papers explorer
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Vacancy-driven inverse Lieb geometry: A general route to $d$-wave altermagnetism in two dimensions
Vacancy-driven reconstruction of V2X2 monolayers creates an inverse Lieb network that realizes d-wave altermagnetism with (cos kx - cos ky) spin splitting and zero net magnetization.
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Intrinsic antiferromagnetic half-metal and topological phases from the ferrovalley states of the sliding bilayer altermagnets
Sliding bilayer altermagnets host antiferromagnetic half-metallicity and Chern insulator phases via spin-dependent interlayer hopping in ferrovalley states, demonstrated in V2OSSe by first-principles calculations.
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Sliding-induced ferrovalley polarization and possible antiferromagnetic half-metal in bilayer altermagnets
Interlayer sliding in M2A2B and M2AA'B bilayer altermagnets induces ferrovalley polarization and antiferromagnetic half-metallicity, with Mo2O2O showing 0.31 eV valley splitting and V2SSeO as a candidate half-metal.
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Classification and design of two-dimensional altermagnets
A review that classifies two-dimensional altermagnets via spin-group theory, lists materials with large spin splitting, and outlines design strategies for experimental realization.