P6_3-B30 is a three-dimensional boron crystal that functions as a spinless topological semimetal with a symmetry-enforced nodal surface on the kz=π plane and various Weyl fermions at high-symmetry points.
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Piezomagnetic strain in Mn3Ir enables deterministic, nonvolatile switching of antiferromagnetic states when combined with interfacial Dzyaloshinskii-Moriya interaction.
Sulfur doping in few-layer graphene can preserve linear dispersion, open band gaps of 0.4 eV, induce flat bands at the Fermi level, and cause spin polarization depending on configuration and layer count.
DFT calculations on Cu(100) show that the linear temperature dependence of the electric field gradient at surface atoms correlates with anisotropic relaxation and the ionic contribution to the EFG.
citing papers explorer
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Symmetry-protected coexistence of a nodal surface and multiple types of Weyl fermions in $P6_3$-$\text{B}_{30}$
P6_3-B30 is a three-dimensional boron crystal that functions as a spinless topological semimetal with a symmetry-enforced nodal surface on the kz=π plane and various Weyl fermions at high-symmetry points.
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Piezomagnetic Switching of Nonvolatile Antiferromagnetic States
Piezomagnetic strain in Mn3Ir enables deterministic, nonvolatile switching of antiferromagnetic states when combined with interfacial Dzyaloshinskii-Moriya interaction.
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Engineering few-layer graphene by S-doping: from sustaining linear dispersion to flat bands
Sulfur doping in few-layer graphene can preserve linear dispersion, open band gaps of 0.4 eV, induce flat bands at the Fermi level, and cause spin polarization depending on configuration and layer count.
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First-Principles Study of the Temperature Dependence of Structural, Electronic, and Hyperfine Properties of the Cu(100) Surface
DFT calculations on Cu(100) show that the linear temperature dependence of the electric field gradient at surface atoms correlates with anisotropic relaxation and the ionic contribution to the EFG.