A GW-based many-body approach to electrical conductivity in warm dense matter yields lower DC conductivity for beryllium at low temperatures from improved transition energies and at high temperatures from electron-electron scattering.
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MD simulations with a machine-learned potential demonstrate that structural fracture energy in silica glass increases with crack velocity below the branching threshold due to both elevated intrinsic surface energy density and nanoscale roughening.
CeCoGe3 is a topological nodal line Kondo semimetal in which correlations and spin-orbit coupling stabilize flat nodal lines near the Fermi level that may mediate pressure-induced superconductivity.
CrSb shows a nontrivial Berry phase approaching π from SdH oscillations and DFT band calculations, supporting topological semimetal states in this altermagnet.
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Capturing many-body effects in electrical conductivity of warm dense matter
A GW-based many-body approach to electrical conductivity in warm dense matter yields lower DC conductivity for beryllium at low temperatures from improved transition energies and at high temperatures from electron-electron scattering.
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Energy dissipation at the atomic scale explains how fracture energy depends on crack velocity in silica glass
MD simulations with a machine-learned potential demonstrate that structural fracture energy in silica glass increases with crack velocity below the branching threshold due to both elevated intrinsic surface energy density and nanoscale roughening.
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Flat Topological Nodal Lines in Heavy-Fermion Compound CeCoGe$_3$
CeCoGe3 is a topological nodal line Kondo semimetal in which correlations and spin-orbit coupling stabilize flat nodal lines near the Fermi level that may mediate pressure-induced superconductivity.
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Topological nontrivial berry phase in altermagnet CrSb
CrSb shows a nontrivial Berry phase approaching π from SdH oscillations and DFT band calculations, supporting topological semimetal states in this altermagnet.