2023 - Research.com Chemistry in New Zealand Leader Award
2023 - Research.com Physics in New Zealand Leader Award
2022 - Research.com Chemistry in New Zealand Leader Award
1997 - Fellow of the Royal Society of New Zealand
His primary areas of investigation include Atomic physics, Relativistic quantum chemistry, Electronic correlation, Pseudopotential and Molecule. His Atomic physics study integrates concerns from other disciplines, such as Valence, Dipole, Electron and Coupled cluster. His Relativistic quantum chemistry research includes themes of Computational chemistry, Electronic structure, Group and Physical chemistry.
His Electronic correlation research is multidisciplinary, incorporating perspectives in Bond length, Configuration interaction, Ab initio, Ionization energy and Bond-dissociation energy. The various areas that Peter Schwerdtfeger examines in his Pseudopotential study include Basis set and Indium. His Molecule research includes elements of Parity, Spectral line, Quantum chemistry, Chemical bond and Density functional theory.
Peter Schwerdtfeger focuses on Atomic physics, Relativistic quantum chemistry, Density functional theory, Crystallography and Coupled cluster. His Atomic physics study incorporates themes from Dipole and Electronic correlation, Molecule, Diatomic molecule. His Electronic correlation research incorporates elements of Configuration interaction, Bond length, Ab initio quantum chemistry methods and Bond-dissociation energy.
Peter Schwerdtfeger interconnects Electronic structure, Group, Theory of relativity and Physical chemistry in the investigation of issues within Relativistic quantum chemistry. His study in Density functional theory is interdisciplinary in nature, drawing from both Molecular physics and Wave function. His research integrates issues of Quadrupole, Electric field gradient and Ground state in his study of Coupled cluster.
The scientist’s investigation covers issues in Atomic physics, Density functional theory, Crystallography, Relativistic quantum chemistry and Coupled cluster. His study in Atomic physics is interdisciplinary in nature, drawing from both Lattice constant, Dipole, Quantum electrodynamics, Polarizability and Diatomic molecule. His work in Density functional theory addresses subjects such as Electronic band structure, which are connected to disciplines such as Direct and indirect band gaps.
His Crystallography study incorporates themes from Ligand, Metal, Pi backbonding, Singlet state and Stereochemistry. His study on Relativistic quantum chemistry is covered under Quantum mechanics. He works mostly in the field of Coupled cluster, limiting it down to concerns involving Basis set and, occasionally, Electronic correlation.
Peter Schwerdtfeger mainly investigates Atomic physics, Relativistic quantum chemistry, Coupled cluster, Diatomic molecule and Fullerene. Peter Schwerdtfeger studies Atomic physics, focusing on Copernicium in particular. His Relativistic quantum chemistry research incorporates elements of Standard Model, Theoretical physics, Pauli exclusion principle, Quantum field theory and Transactinide element.
His study explores the link between Coupled cluster and topics such as Basis set that cross with problems in Electronic correlation, Molecular electronic structure, Moment, Xenon and Superposition principle. His study looks at the relationship between Diatomic molecule and topics such as Excited state, which overlap with Hydrogen, Degenerate energy levels, Physics beyond the Standard Model and Ion. Peter Schwerdtfeger has researched Fullerene in several fields, including Coxeter group and Graph, Planar graph.
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Relativistic effects in gold chemistry. I. Diatomic gold compounds
Peter Schwerdtfeger;Michael Dolg;W. H. Eugen Schwarz;Graham A. Bowmaker.
Journal of Chemical Physics (1989)
The accuracy of the pseudopotential approximation. II. A comparison of various core sizes for indium pseudopotentials in calculations for spectroscopic constants of InH, InF, and InCl
Thierry Leininger;Andreas Nicklass;Hermann Stoll;Michael Dolg.
Journal of Chemical Physics (1996)
Accuracy of energy-adjusted quasirelativistic ab initio pseudopotentials
U. Häussermann;M. Dolg;H. Stoll;H. Preuss.
Molecular Physics (1993)
All-electron and relativistic pseudopotential studies for the group 1 element polarizabilities from K to element 119.
Ivan S. Lim;Peter Schwerdtfeger;Bernhard Metz;Hermann Stoll.
Journal of Chemical Physics (2005)
Gold goes nano--from small clusters to low-dimensional assemblies.
Peter Schwerdtfeger.
Angewandte Chemie (2003)
Relativistic electronic structure theory
Peter Schwerdtfeger.
(2002)
A Comparative Computational Study of Cationic Coinage Metal−Ethylene Complexes (C2H4)M+ (M = Cu, Ag, and Au)
Roland H. Hertwig;Wolfram Koch;and Detlef Schröder;Helmut Schwarz.
The Journal of Physical Chemistry (1996)
Metallophilic interactions in closed-shell copper(I) compounds--a theoretical study.
Holger L. Hermann;Gernot Boche;Peter Schwerdtfeger.
Chemistry: A European Journal (2001)
The Pseudopotential Approximation in Electronic Structure Theory
Peter Schwerdtfeger;Peter Schwerdtfeger.
ChemPhysChem (2011)
A systematic search for minimum structures of small gold clusters Au(n) (n=2-20) and their electronic properties.
Behnam Assadollahzadeh;Peter Schwerdtfeger.
Journal of Chemical Physics (2009)
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