Peter Oppeneer

Professor at Department of Physics and Astronomy; Materials Theory

Telephone:: +46 18 471 37 48
Mobile phone:: +46 70 960 40 16
E-mail:: peter.oppeneer@physics.uu.se
Visiting address:: Ångströmlaboratoriet, Regementsvägen 10
752 37 Uppsala
Postal address:: Box 524
751 20 UPPSALA

Download contact information for Peter Oppeneer at Department of Physics and Astronomy; Materials Theory

Professor at Department of Physics and Astronomy; Materials Theory; Materials Theory

Telephone:: +46 18 471 37 48
Mobile phone:: +46 70 960 40 16
E-mail:: peter.oppeneer@physics.uu.se
Visiting address:: Ångströmlaboratoriet, Regementsvägen 10
752 37 Uppsala
Postal address:: Box 524
751 20 UPPSALA

Download contact information for Peter Oppeneer at Department of Physics and Astronomy; Materials Theory; Materials Theory

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Short presentation

The research group of Prof. Peter Oppeneer focuses on several topics in theoretical condensed matter theory. Our main topics include development of theory for femtosecond magnetism, ultrafast spin and orbital currents, theory for out-of-equilibrium magnon and phonon dynamics, theory of unconventional forms of superconductivity, and ab initio theory for multipolar and hidden order parameters, and orbitronics, as well as computational theory for molecular spintronics and spin-crossover materials.

Keywords

ultrafast magnetism
theoretical condensed matter physics
orbitronics theory
selfconsistent theory of superconductivity
unconventional superconductivity
non equilibrium phonon dynamics
non equilibrium magnon dynamics
light-induced magnetism

Biography

The research group of Prof. Peter Oppeneer focuses on several topics in theoretical condensed matter theory. Our main topics include development of theory for femtosecond magnetism, theory for out-of-equilibrium phonon and magnon dynamics, theory for ultrafast spin and orbital currents, ab initio theory for unconventional forms of superconductivity and for multipolar and hidden order parameters, as well as computational theory for molecular spintronics and spin-crossover materials. Specifically, we address femtosecond coherent light-induced magnetic processes, such as ultrafast demagnetization, magnetization switching and ultrafast light imparted magnetization. We develop theory to describe ultrafast spin dissipation channels, such as superdiffusion and Elliott-Yafet electron-phonon spin-flip scattering, and we develop computer codes for numerical simulations of these processes in real materials. We also perform ab initio studies of unconventional forms of superconductivity in real materials, as odd-frequency and d-wave superconductivity, using our home-made self-consistent multiband Eliashberg code. Another area of our interest is theory of hidden order and multipolar magnetic order, in correlated materials as URu2Si2 and UO2 and NpO2. Other strongly correlated electron systems we have investigated with our own dynamical mean field theory (DMFT) code. Our aim is to combine advancement of analytical theory hand-in-hand with development of numerical simulation codes.

Research - Some press releases

Research Interests

Theory of ultrafast laser-induced demagnetization and spin reversal
Ab initio theory of Elliott-Yafet electron-phonon spin-flip scattering
Quantum kinetic theory for out-of-equilibrium phonon and magnon dynamics
Theory of ultrafast thermalization processes in metals after laser excitation
Ab initio theory of Hidden Order and of multipolar ordering
Computational theory of unconventional and odd-frequency superconductivity
First-principles theory of X-ray magnetic and magneto-optical spectroscopies (XMCD, XMLD, magneto-optical Kerr effect, Faraday & Schäfer-Hubert effect)
Analytic theory for Landau-Lifshitz-Gilbert damping and magnetic inertia
Ab initio theory of on-surface magnetochemistry of spin-bearing metalorganic molecules
Computational theory of spin-crossover molecular materials
Electronic structure theory of strongly correlated electron systems with DMFT
Materials modeling for oxidation/reduction reactions at nuclear fuel surfaces
Magnetic model Hamiltonians, exchange interactions & spin-dynamics

Selected Publications