...works on the mathematical analysis of quantum many-body systems, with a focus on bosonic systems. She brings to the network her expertise in deriving effective evolution equations from the underlying microscopic dynamics of many-body systems.
...works on the mathematics of (quantum) systems with an infinite number of degrees of freedom. Morris previously imported methods from the study of Bose gases, in order to investigate the spectrum and effective mass of the Fröhlich polaron in the semi-classical regime.
...works on the mathematical analysis of quantum many-body systems. He previously worked on effective evolution equations and bosonization techniques for fermions. He has recently started working on polaron models, giving a rigorous Dyson expansion to study the spectral properties of polarons. He is currently working on the spectral analysis of lattice polaron models and collaborating on the development of beyond-Fröhlich-type Bose polaron problems.
...is working on the mathematical analysis of many-body quantum systems. She has started working on the effective mass problem and she will contribute her expertise on this problem to the network.
...is working on Bose polaron problems in theoretical physics, including theoretical aspects of experimental setups. He contributes his knowledge of experimental setups and efficient theoretical descriptions ranging from variational to renormalization group approaches.
...works on various functional analytic and probablistic aspects of polaron models. With the insights obtained on both sides of these differing mathematical languages, he aims to bridge the existing gaps and rejoin the almost disjoint mathematical communities.
...works on the mathematical theory of many-body quantum systems using techniques from functional analysis and partial differential equations. He will contribute his expertise on the Bose polaron, and the renormalization of polaron Hamiltonians in connection with their spectral theory.
...is working on the derivation of effective evolution equations from many-body quantum mechanics. He brings expertise in the strong coupling polaron, non-relativistic quantum field models, and Bose-Einstein condensation, which he has developed through rigorous mathematical derivations of the Landau–Pekar equations, effective evolution equations for non-relativistic quantum field models in the mean-field regime, and the two-dimensional Gross–Pitaevskii equation.
...is interested in mathematical physics of many-body quantum systems and polaron models. Within the network, his main focus will lie on developing new methods for studying excited polaron states and their properties, as well as the effective long-time dynamics of different polaron type models.
...has worked extensively on the mathematical side of the topic during his PhD studies, with experience in both Bose and Fröhlich polarons. He extended his toolkit and overview of similar subjects during the concluding postdoc in a theoretical physics group, where his research was devoted mainly to the cognate topic of charged Fermi polarons. He provides a background in mathematics that is combined with insights from physics, including first-hand acquaintance with recent experimental developments
...works on effective many-body quantum systems, mostly from an analysis perspective. His research on tracer particles in Bose and Fermi gases and his experience with derivations of effective dynamics and higher-order expansions are closely connected to polaron problems.
...is a postdoctoral researcher at IST Austria in the group of Robert Seiringer. He works on the polaron from a probabilistic perspective, studying spectral properties of the Hamiltonian using tools from point process theory and renewal theory.
...is working on the mathematical analysis of many-body quantum systems. She contributes her expertise on the semi-classical approximation of the polaron’s quantum dynamics, the analysis of the semi-classical polaron, as well as the effective mass problem to the network.
...works on theoretical many-body physics. His research focus lies at the intersection of atomic and solid state physics. He contributes his extensive expertise in polaron formation in strongly coupled systems realized in atomically thin semiconductors and cold atoms. Methodically, his group contributes expertise on functional renormalization group, variational wave function and field theory approaches to polarons.
...studies perturbed Brownian motions which naturally arise via FKN formulas from polaron models. Questions that he works on in the network include effective mass estimates and enhanced binding phenomena.
...is a probability theorist. He has developed confinement inequalities for high-dimensional probability distributions and applied them to estimate the effective mass of the Fröhlich polaron.
...works on quantum many-body systems and the rigorous derivation of effective dynamics. He will contribute his expertise on the Bose polaron, Bogoliubov transformations, and the derivation of effective polaron dynamics from microscopic Bose gases.