In a paper published in Optica, Sk team, together with Dr. H. Sigurdsson from the University of Iceland and University of Warsaw, reveals the effect of an all-optically driven spin precession in microcavity polariton condensates. This work continues our previous research on the topic, where we demonstrated the possibility to induce vortices in rotating polariton condensates (Sci. Adv. 9, eadd1299 (2023); Phys. Rev. B 109, 104503 (2024).).
In a paper by A. Putintsev et al., our team with colleagues reports on the quantum statistical properties of organic polariton condensates. It is shown that unlike a conventional laser, the organic polariton condensate tends to increase its noise level above shot-noise fluctuations due to a complex interplay between polariton thermalization, cavity lifetime, and kinetic losses originating from the quantum fluid properties of polariton condensates. The work comes from collaborative efforts from the Skoltech team and colleagues from Dukhov Research Institute of Automatics (VNIIA), Moscow Institute of Physics and Technology, Institute for Spectroscopy RAS, Moscow Institute of Electronics and Mathematics, and Bergische Universität Wuppertal.
In a paper by I. Gnusov et al., the Skoltech team with colleagues from Southampton, Warsaw and Iceland Universities, investigated formation of vortex clusters in a nonresonantly optically stirred polariton condensates. It was demonstrated that the number of vortices in the clusters scales with the optical trap energy-level (mode) into which polaritons condense.
Full paper in Physical Review B is here.