X-Git-Url: https://hackdaworld.org/gitweb/?p=lectures%2Flatex.git;a=blobdiff_plain;f=bibdb%2Fbibdb.bib;h=86e46173f6abf5f1358aa14d3a83c45e49497a38;hp=c8bf04e9e83c32849c3245e0fe73f33d0bcf8e32;hb=e032b810c306e7b1080a91d45542f1f3b16c644d;hpb=20b9104cd2a6f2ad6283a31a2b581ef9dda38089 diff --git a/bibdb/bibdb.bib b/bibdb/bibdb.bib index c8bf04e..86e4617 100644 --- a/bibdb/bibdb.bib +++ b/bibdb/bibdb.bib @@ -1639,6 +1639,42 @@ Co. KGaA, Weinheim)", } +@Article{zirkelbach14, + author = "F. Zirkelbach and P.-Y. Prodhomme and P. Han and R. + Cherian and G. Bester", + title = "Large-scale Atomic Effective Pseudopotential Program + ({LATEPP}) including an efficient spin-orbit coupling + treatment in real space", + journal = "to be published", + year = "2014", + abstract = "Within the scheme of the {\em Large-scale Atomic + Effective Pseudopotential Program}, the Schr{\"o}dinger + equation of an electronic system is solved within an + effective single-particle approach. Although not + limited to, it focuses on the recently introduced + atomic effective pseudopotentials derived from screened + local effective crystal potentials as obtained from + self-consistent density functional theory calculations. + Plane waves are used to expand the wavefunctions. The + problem can be solved in both, real and reciprocal + space. Using atomic effective pseudopotentials, a + self-consistency cycle is not required, which + drastically reduces the computational effort. + Furthermore, without having to find a self-consistent + solution, which would require the determination of all + eigenstates, iterative solvers can be used to focus + only on a few eigenstates in the vicinity of a + reference energy, e.g.\ around the band gap of a + semiconductor. Hence, this approach is particularly + well suited for theoretical investigations of the + electronic structure of semiconductor nanostructures + consisting of up to several thousands of atoms. + Moreover, a novel and efficient real space treatment of + spin-orbit coupling within the pseudopotential + framework is proposed in this work allowing for a fully + relativistic description.", +} + @Article{lindner95, author = "J. K. N. Lindner and A. Frohnwieser and B. Rauschenbach and B. Stritzker", @@ -6998,3 +7034,64 @@ URL = "http://link.aps.org/doi/10.1103/PhysRevB.49.4710", publisher = "American Physical Society", } + +@Article{aryasetiawan98, + author = "F Aryasetiawan and O Gunnarsson", + title = "The {GW} method", + journal = "Reports on Progress in Physics", + volume = "61", + number = "3", + pages = "237", + URL = "http://stacks.iop.org/0034-4885/61/i=3/a=002", + year = "1998", +} + +@Article{onida02, + title = "Electronic excitations: density-functional versus + many-body Green¿s-function approaches", + author = "Giovanni Onida and Lucia Reining and Angel Rubio", + journal = "Rev. Mod. Phys.", + volume = "74", + issue = "2", + pages = "601--659", + numpages = "0", + year = "2002", + month = jun, + publisher = "American Physical Society", + doi = "10.1103/RevModPhys.74.601", + URL = "http://link.aps.org/doi/10.1103/RevModPhys.74.601", +} + +@Article{georges96, + title = "Dynamical mean-field theory of strongly correlated + fermion systems and the limit of infinite dimensions", + author = "Antoine Georges and Gabriel Kotliar and Werner Krauth + and Marcelo J. Rozenberg", + journal = "Rev. Mod. Phys.", + volume = "68", + issue = "1", + pages = "13--125", + numpages = "0", + year = "1996", + month = jan, + publisher = "American Physical Society", + doi = "10.1103/RevModPhys.68.13", + URL = "http://link.aps.org/doi/10.1103/RevModPhys.68.13", +} + +@Article{kotilar06, + title = "Electronic structure calculations with dynamical + mean-field theory", + author = "G. Kotliar and S. Y. Savrasov and K. Haule and V. S. + Oudovenko and O. Parcollet and C. A. Marianetti", + journal = "Rev. Mod. Phys.", + volume = "78", + issue = "3", + pages = "865--951", + numpages = "0", + year = "2006", + month = aug, + publisher = "American Physical Society", + doi = "10.1103/RevModPhys.78.865", + URL = "http://link.aps.org/doi/10.1103/RevModPhys.78.865", +}