Publications

Derivation of Miller's rule for the nonlinear optical susceptibility of a quantum anharmonic oscillator

M.T. Meyer, A. Schindlmayr, Journal of Physics B: Atomic, Molecular and Optical Physics 57 (2024).

Electron polarons in lithium niobate: Charge localization, lattice deformation, and optical response

F. Schmidt, A.L. Kozub, U. Gerstmann, W.G. Schmidt, A. Schindlmayr, in: G. Corradi, L. Kovács (Eds.), New Trends in Lithium Niobate: From Bulk to Nanocrystals, MDPI, Basel, 2022, pp. 231–248.

DOI

Programmierung und Computersimulationen

A. Schindlmayr, in: J. Gerick, A. Sommer, G. Zimmermann (Eds.), Kompetent Prüfungen gestalten: 60 Prüfungsformate für die Hochschullehre, 2nd ed., Waxmann, Münster, 2022, pp. 270–274.

DOI

A density-functional theory study of hole and defect-bound exciton polarons in lithium niobate

F. Schmidt, A.L. Kozub, U. Gerstmann, W.G. Schmidt, A. Schindlmayr, Crystals 12 (2022).

DOI PDF WoS

Quasiparticle energies and optical response of RbTiOPO4 and KTiOAsO4

S. Neufeld, A. Schindlmayr, W.G. Schmidt, Journal of Physics: Materials 5 (2022).

DOI PDF WoS

Electron polarons in lithium niobate: Charge localization, lattice deformation, and optical response

F. Schmidt, A.L. Kozub, U. Gerstmann, W.G. Schmidt, A. Schindlmayr, Crystals 11 (2021) 542.

DOI PDF WoS

Lattice parameters and electronic band gap of orthorhombic potassium sodium niobate K0.5Na0.5NbO3 from density-functional theory

N. Bidaraguppe Ramesh, F. Schmidt, A. Schindlmayr, The European Physical Journal B 94 (2021).

DOI PDF WoS

Erratum: Efficient implementation of the GW approximation within the all-electron FLAPW method [Phys. Rev. B 81, 125102 (2010)]

C. Friedrich, S. Blügel, A. Schindlmayr, Physical Review B 104 (2021).

DOI PDF WoS

Polaronic enhancement of second-harmonic generation in lithium niobate

A.L. Kozub, A. Schindlmayr, U. Gerstmann, W.G. Schmidt, Physical Review B 104 (2021) 174110.

DOI PDF arXiv WoS

Free and defect-bound (bi)polarons in LiNbO3: Atomic structure and spectroscopic signatures from ab initio calculations

F. Schmidt, A.L. Kozub, T. Biktagirov, C. Eigner, C. Silberhorn, A. Schindlmayr, W.G. Schmidt, U. Gerstmann, Physical Review Research 2 (2020).

DOI PDF WoS

Quasiparticle and excitonic effects in the optical response of KNbO3

F. Schmidt, A. Riefer, W.G. Schmidt, A. Schindlmayr, M. Imlau, F. Dobener, N. Mengel, S. Chatterjee, S. Sanna, Physical Review Materials 3 (2019).

DOI PDF WoS

Potassium titanyl phosphate (KTP) quasiparticle energies and optical response

S. Neufeld, A. Bocchini, U. Gerstmann, A. Schindlmayr, W.G. Schmidt, Journal of Physics: Materials 2 (2019) 045003.

DOI PDF WoS

Exact formulation of the transverse dynamic spin susceptibility as an initial-value problem

A. Schindlmayr, Advances in Mathematical Physics 2018 (2018).

DOI PDF WoS

Erratum: Optical properties of titanium-doped lithium niobate from time-dependent density-functional theory [Phys. Rev. Materials 1, 034401 (2017)]

M. Friedrich, W.G. Schmidt, A. Schindlmayr, S. Sanna, Physical Review Materials 2 (2018).

DOI PDF WoS

Zn–VI quasiparticle gaps and optical spectra from many-body calculations

A. Riefer, N. Weber, J. Mund, D.R. Yakovlev, M. Bayer, A. Schindlmayr, C. Meier, W.G. Schmidt, Journal of Physics: Condensed Matter 29 (2017).

DOI PubMed WoS

Polaron optical absorption in congruent lithium niobate from time-dependent density-functional theory

M. Friedrich, W.G. Schmidt, A. Schindlmayr, S. Sanna, Physical Review Materials 1 (2017).

DOI PDF WoS

Optical properties of titanium-doped lithium niobate from time-dependent density-functional theory

M. Friedrich, W.G. Schmidt, A. Schindlmayr, S. Sanna, Physical Review Materials 1 (2017).

DOI PDF WoS

Consistent atomic geometries and electronic structure of five phases of potassium niobate from density-functional theory

F. Schmidt, M. Landmann, E. Rauls, N. Argiolas, S. Sanna, W.G. Schmidt, A. Schindlmayr, Advances in Materials Science and Engineering 2017 (2017).

DOI PDF WoS

LiNbO3 electronic structure: Many-body interactions, spin-orbit coupling, and thermal effects

A. Riefer, M. Friedrich, S. Sanna, U. Gerstmann, A. Schindlmayr, W.G. Schmidt, Physical Review B 93 (2016).

DOI PDF WoS

LiTaO3 phonon dispersion and ferroelectric transition calculated from first principles

M. Friedrich, A. Schindlmayr, W.G. Schmidt, S. Sanna, Physica Status Solidi B 253 (2016) 683–689.

DOI WoS

Phonon dispersion and zero-point renormalization of LiNbO3 from density-functional perturbation theory

M. Friedrich, A. Riefer, S. Sanna, W.G. Schmidt, A. Schindlmayr, Journal of Physics: Condensed Matter 27 (2015).

DOI PubMed WoS

Ab initio study of strain effects on the quasiparticle bands and effective masses in silicon

M. Bouhassoune, A. Schindlmayr, Advances in Condensed Matter Physics 2015 (2015).

DOI PDF WoS

Spin excitations in solids from many-body perturbation theory

C. Friedrich, E. Şaşıoğlu, M. Müller, A. Schindlmayr, S. Blügel, in: C. Di Valentin, S. Botti, M. Cococcioni (Eds.), First Principles Approaches to Spectroscopic Properties of Complex Materials, Springer, Berlin, Heidelberg, 2014, pp. 259–301.

DOI PubMed WoS

The GW approximation for the electronic self-energy

A. Schindlmayr, in: V. Bach, L. Delle Site (Eds.), Many-Electron Approaches in Physics, Chemistry and Mathematics, Springer, Cham, 2014, pp. 343–357.

DOI

Many-body perturbation theory: The GW approximation

C. Friedrich, A. Schindlmayr, in: S. Blügel, N. Helbig, V. Meden, D. Wortmann (Eds.), Computing Solids: Models, Ab Initio Methods and Supercomputing, Forschungszentrum Jülich, Jülich, 2014, p. A4.1-A4.21.

Theoretical investigation of the band structure of picene single crystals within the GW approximation

S. Yanagisawa, Y. Morikawa, A. Schindlmayr, Japanese Journal of Applied Physics 53 (2014).

DOI WoS

Lithium niobate dielectric function and second-order polarizability tensor from massively parallel ab initio calculations

A. Riefer, M. Rohrmüller, M. Landmann, S. Sanna, E. Rauls, N.J. Vollmers, R. Hölscher, M. Witte, Y. Li, U. Gerstmann, A. Schindlmayr, W.G. Schmidt, in: W.E. Nagel, D.H. Kröner, M.M. Resch (Eds.), High Performance Computing in Science and Engineering ‘13, Springer, Cham, 2013, pp. 93–104.

DOI WoS

HOMO band dispersion of crystalline rubrene: Effects of self-energy corrections within the GW approximation

S. Yanagisawa, Y. Morikawa, A. Schindlmayr, Physical Review B 88 (2013).

DOI PDF WoS

Optical response of stoichiometric and congruent lithium niobate from first-principles calculations

A. Riefer, S. Sanna, A. Schindlmayr, W.G. Schmidt, Physical Review B 87 (2013).

DOI PDF WoS

Analytic evaluation of the electronic self-energy in the GW approximation for two electrons on a sphere

A. Schindlmayr, Physical Review B 87 (2013).

DOI PDF WoS arXiv

Hybrid functionals and GW approximation in the FLAPW method

C. Friedrich, M. Betzinger, M. Schlipf, S. Blügel, A. Schindlmayr, Journal of Physics: Condensed Matter 24 (2012).

DOI WoS PubMed

Theoretical approach to the ultrafast nonlinear optical response of metal slabs

M. Wand, A. Schindlmayr, T. Meier, J. Förstner, in: CLEO:2011 - Laser Applications to Photonic Applications , Optical Society of America, 2011.

DOI WoS

Simulation of the ultrafast nonlinear optical response of metal slabs

M. Wand, A. Schindlmayr, T. Meier, J. Förstner, Physica Status Solidi B 248 (2011) 887–891.

DOI WoS

First-principles calculation of electronic excitations in solids with SPEX

A. Schindlmayr, C. Friedrich, E. Şaşıoğlu, S. Blügel, in: F.M. Dolg (Ed.), Modern and Universal First-Principles Methods for Many-Electron Systems in Chemistry and Physics, Oldenbourg, München, 2010, pp. 67–78.

DOI

Electronic structure and effective masses in strained silicon

M. Bouhassoune, A. Schindlmayr, Physica Status Solidi C 7 (2010) 460–463.

DOI WoS

Do we know the band gap of lithium niobate?

C. Thierfelder, S. Sanna, A. Schindlmayr, W.G. Schmidt, Physica Status Solidi C 7 (2010) 362–365.

DOI WoS

Wannier-function approach to spin excitations in solids

E. Şaşıoğlu, A. Schindlmayr, C. Friedrich, F. Freimuth, S. Blügel, Physical Review B 81 (2010).

DOI PDF arXiv WoS

First-principles calculation of electronic excitations in solids with SPEX

A. Schindlmayr, C. Friedrich, E. Şaşıoğlu, S. Blügel, Zeitschrift Für Physikalische Chemie 224 (2010) 357–368.

DOI WoS arXiv

Efficient implementation of the GW approximation within the all-electron FLAPW method

C. Friedrich, S. Blügel, A. Schindlmayr, Physical Review B 81 (2010).

DOI PDF arXiv WoS

Optical conductivity of metals from first principles

A. Schindlmayr, in: D.N. Chigrin (Ed.), Theoretical and Computational Nanophotonics: Proceedings of the 2nd International Workshop, American Institute of Physics, 2009, pp. 157–159.

DOI PDF arXiv WoS

Measurement of effective electron mass in biaxial tensile strained silicon on insulator

S.F. Feste, T. Schäpers, D. Buca, Q.T. Zhao, J. Knoch, M. Bouhassoune, A. Schindlmayr, S. Mantl, Applied Physics Letters 95 (2009).

DOI PDF WoS

Efficient calculation of the Coulomb matrix and its expansion around k=0 within the FLAPW method

C. Friedrich, A. Schindlmayr, S. Blügel, Computer Physics Communications 180 (2009) 347–359.

DOI WoS arXiv

Screening in two dimensions: GW calculations for surfaces and thin films using the repeated-slab approach

C. Freysoldt, P. Eggert, P. Rinke, A. Schindlmayr, M. Scheffler, Physical Review B 77 (2008).

DOI PDF WoS arXiv

Interaction of radiation with matter. Part II: Light and electrons

A. Schindlmayr, in: K. Urban, C.M. Schneider, T. Brückel, S. Blügel (Eds.), Probing the Nanoworld , Forschungszentrum Jülich, Jülich, 2007, p. A1.21-A1.36.

Quasiparticle calculations for point defects at semiconductor surfaces

A. Schindlmayr, M. Scheffler, in: D.A. Drabold, S.K. Estreicher (Eds.), Theory of Defects in Semiconductors, Springer, Berlin, Heidelberg, 2007, pp. 165–192.

DOI WoS

Time-dependent density-functional theory for extended systems

S. Botti, A. Schindlmayr, R. Del Sole, L. Reining, Reports on Progress in Physics 70 (2007) 357–407.

DOI WoS

Ab initio study of the half-metal to metal transition in strained magnetite

M. Friák, A. Schindlmayr, M. Scheffler, New Journal of Physics 9 (2007).

DOI PDF WoS

Dielectric anisotropy in the GW space–time method

C. Freysoldt, P. Eggert, P. Rinke, A. Schindlmayr, R.W. Godby, M. Scheffler, Computer Physics Communications 176 (2007) 1–13.

DOI WoS arXiv

Many-body perturbation theory: The GW approximation

C. Friedrich, A. Schindlmayr, in: S. Blügel, G. Gompper, E. Koch, H. Müller-Krumbhaar, R. Spatschek, R.G. Winkler (Eds.), Computational Condensed Matter Physics, Forschungszentrum Jülich, Jülich, 2006, p. A5.1-A5.21.

Time-dependent density-functional theory

A. Schindlmayr, in: S. Blügel, G. Gompper, E. Koch, H. Müller-Krumbhaar, R. Spatschek, R.G. Winkler (Eds.), Computational Condensed Matter Physics, Forschungszentrum Jülich, Jülich, 2006, p. A4.1-A4.19.

Many-body perturbation theory: The GW approximation

C. Friedrich, A. Schindlmayr, in: J. Grotendorst, S. Blügel, D. Marx (Eds.), Computational Nanoscience: Do It Yourself!, John von Neumann Institute for Computing, Jülich, 2006, pp. 335–355.

Quasiparticle corrections to the electronic properties of anion vacancies at GaAs(110) and InP(110)

M. Hedström, A. Schindlmayr, G. Schwarz, M. Scheffler, Physical Review Letters 97 (2006).