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Optical Absorption Spectra Calculated Using Linear-Scaling Density-Functional Theory (Hardcover, 2013 ed.)
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Optical Absorption Spectra Calculated Using Linear-Scaling Density-Functional Theory (Hardcover, 2013 ed.)
Series: Springer Theses
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The development of linear-scaling density functional theory
(LS-DFT) has made ab initio calculations on systems containing
thousands of atoms possible. These systems range from
nanostructures to biomolecules. These methods rely on the use of
localized basis sets, which are optimised for the representation of
occupied Kohn-Sham states but do not guarantee an accurate
representation of the unoccupied states. This is problematic if one
wishes to combine the power of LS-DFT with that of theoretical
spectroscopy, which provides a direct link between simulation and
experiment. In this work a new method is presented for optimizing
localized functions to accurately represent the unoccupied states,
thus allowing theoretical spectroscopy of large systems. Results
are presented for optical absorption spectra calculated using the
ONETEP code, but the method is equally applicable to other
spectroscopies and LS formulations. Other topics covered include a
study of some simple one dimensional basis sets and the
presentation of two methods for band structure calculation using
localized basis sets, both of which have important implications for
the use of localized basis sets within LS-DFT.
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