MR-SCDFT augments standard multireference DFT by using stochastic fields to create reference configurations and a projection-selection step, yielding lower ground-state energies, smaller proton radii, and softer bands than conventional MR-CDFT for 20Ne, 24Mg, and 28Si.
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A review of random phase approximation, Lorentz integral transform coupled-cluster, projected generator-coordinate, and self-consistent Green's functions methods for nuclear giant resonances, with benchmark comparisons on 16O and 40Ca.
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Multireference Covariant Density Functional Theory with Stochastic Basis
MR-SCDFT augments standard multireference DFT by using stochastic fields to create reference configurations and a projection-selection step, yielding lower ground-state energies, smaller proton radii, and softer bands than conventional MR-CDFT for 20Ne, 24Mg, and 28Si.
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Nuclear giant resonances from first principles
A review of random phase approximation, Lorentz integral transform coupled-cluster, projected generator-coordinate, and self-consistent Green's functions methods for nuclear giant resonances, with benchmark comparisons on 16O and 40Ca.