Volume-Collapse Transitions in the Rare Earth Metals
arXiv:cond-mat/9805064 · doi:10.1023/A:1008698422183
Abstract
We describe current experimental and theoretical understanding of the pressure-induced volume collapse transitions occurring in the early trivalent rare earth metals. General features of orbitally realistic mean-field based theories used to calculate these transitions are discussed. Potential deficiencies of these methods are assessed by comparing mean field and exact Quantum Monte Carlo solutions for the one-band Hubbard and two-band periodic Anderson lattice models. Relevant parameter regimes for these models are determined from local density constrained occupation calculations.
20 pages, 17 figures, LaTeX
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