A Wannier-based definition of the orbital angular momentum operator that includes itinerant parts produces significant non-local corrections to orbital Hall conductivity in first-principles calculations across several materials.
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Heavier noble gases dissolve in liquid metallic hydrogen at 500 GPa but helium and neon phase-separate, while all are insoluble in the solid phase.
Simulations reconstruct sulfur's polymerization phase diagram, showing the lambda-transition temperature decreasing with pressure until merging with the melting line at a critical point, with polymerization emerging from the crystalline phase beyond it.
citing papers explorer
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Modern Approach to Orbital Hall Effect Based on Wannier Picture of Solids
A Wannier-based definition of the orbital angular momentum operator that includes itinerant parts produces significant non-local corrections to orbital Hall conductivity in first-principles calculations across several materials.
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Noble-Gas Solubility in Solid and Fluid Metallic Hydrogen
Heavier noble gases dissolve in liquid metallic hydrogen at 500 GPa but helium and neon phase-separate, while all are insoluble in the solid phase.
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Pressure-Temperature Phase Diagram and $\lambda$-Transition in Liquid Sulfur
Simulations reconstruct sulfur's polymerization phase diagram, showing the lambda-transition temperature decreasing with pressure until merging with the melting line at a critical point, with polymerization emerging from the crystalline phase beyond it.