Boundary time crystals emerge from non-reciprocal operator transport in an irreducible tensor representation of the Liouvillian, unifying collective precession, relaxation, and BTC phases via delocalized eigenmodes.
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Symmetry-enforced stable zeros in exciton wave functions constrain relative exciton-band topology and relative band topology in 1D and 2D inversion- and rotation-symmetric two-band systems.
Machine learning screening of Mg-containing topological quantum materials followed by DFT validation identifies Mg₂VO₄ and Mg₆MnO₈ as high-voltage cathodes with average voltages of 3.66 V and 4.06 V.
A symmetry indicator framework predicts the Z2 or Chern number of superlattice minibands from the parent material's properties alone, assuming weak potential but valid if gaps stay open.
Slave-boson calculations on the checkerboard Hubbard model show altermagnons crossing from chirality-selective dissipation to coherent but deformed chiral branches at the metal-insulator transition.
Entanglement structure provides a natural distributed representation for quantum wavefunctions that reduces Hamiltonian applications to local contractions and enables near-linear scaling in simulations.
La3Ni2O7 exhibits s±-wave two-gap superconductivity with out-of-plane Ni-dz2 pairing dominant under pressure and in-plane Ni-dx2-y2 pairing in thin films, with the Tc drop attributed to reduced inter-layer hopping.
Reinforcement fine-tuning of a generative model produces new topological insulators and crystalline insulators, exemplified by Ge2Bi2O6 with a 0.26 eV full band gap.
citing papers explorer
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Operator Space Transport and the Emergence of Boundary Time Crystals
Boundary time crystals emerge from non-reciprocal operator transport in an irreducible tensor representation of the Liouvillian, unifying collective precession, relaxation, and BTC phases via delocalized eigenmodes.
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Stable Wave-Function Zeros Indicate Exciton Topology
Symmetry-enforced stable zeros in exciton wave functions constrain relative exciton-band topology and relative band topology in 1D and 2D inversion- and rotation-symmetric two-band systems.
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Discovery of High-Voltage Magnesium-Ion Cathodes using Machine Learning and First-Principles Calculations
Machine learning screening of Mg-containing topological quantum materials followed by DFT validation identifies Mg₂VO₄ and Mg₆MnO₈ as high-voltage cathodes with average voltages of 3.66 V and 4.06 V.
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Efficient prediction of topological superlattice bands with spin-orbit coupling
A symmetry indicator framework predicts the Z2 or Chern number of superlattice minibands from the parent material's properties alone, assuming weak potential but valid if gaps stay open.
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Altermagnons at the metal-insulator transition
Slave-boson calculations on the checkerboard Hubbard model show altermagnons crossing from chirality-selective dissipation to coherent but deformed chiral branches at the metal-insulator transition.
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Entanglement-informed distributed wavefunction approach to scalable quantum many-body systems
Entanglement structure provides a natural distributed representation for quantum wavefunctions that reduces Hamiltonian applications to local contractions and enables near-linear scaling in simulations.
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Unconventional Superconductivity in $\mathrm{La_{3}Ni_{2}O_{7}}$ from the Perspective of Symmetry
La3Ni2O7 exhibits s±-wave two-gap superconductivity with out-of-plane Ni-dz2 pairing dominant under pressure and in-plane Ni-dx2-y2 pairing in thin films, with the Tc drop attributed to reduced inter-layer hopping.
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Design Topological Materials by Reinforcement Fine-Tuned Generative Model
Reinforcement fine-tuning of a generative model produces new topological insulators and crystalline insulators, exemplified by Ge2Bi2O6 with a 0.26 eV full band gap.