Superconductivity; Strongly Correlated Systems; Large-N Approaches; Non-equilibrium physics; Materials Engineering
Möckli David, Ramires Aline (2021), Superconductivity in disordered locally noncentrosymmetric materials: an application to CeRh2As2, in
Physical Review B, 104, 134517.
Ramires Aline, Lado Jose L. (2021), Emulating Heavy Fermions in Twisted Trilayer Graphene, in
Physical Review Letters, 127(2), 026401-026401.
Möckli David, Ramires Aline (2021), Two scenarios for superconductivity in CeRh2As2, in
Physical Review Research, 3(2), 023204-023204.
Understanding the nature of exotic phases of matter already revealed by experiment and conceiving theoretical tools and models predicting new phases are two complementary roads of theoretical research in contemporary many-body physics. Both routes are critical for the development of the next-generation quantum technology based on robust emergent phenomena such as superconductivity and topological aspects of matter, which can be employed in diverse technological capabilities ranging from dissipationless energy transport to quantum computation. Today, many materials with complex structure and composition are known to host intriguing emergent electronic phenomena. An enlarged number of degrees of freedom and the presence of strong interactions impose a conceptual challenge for their description. This proposal aims to bridge the microscopic and phenomenological description of the physics of complex materials and to explore the recent experimental developments in materials fabrication and control in ultrafast time scales to propose new ways to intelligently design materials and investigate novel phases of matter.