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Springer eBooks

The Radiative Coherent Interaction of Laser Light with Matter and Its Applications

V. M. Akulin, Sergey S. Alimpiev, Nikolai V. Karlov, Leonid A. Shelepin

Published Jan 1, 1978• 1 citation
Publisher
DOI
10.1007/978-1-4757-0055-8_7

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Effect of different polarized laser radiation in cooling and trapping of polariton

Clautaire Mwebi Ekengoue, J. V. Nguepnang, Donfack B. +2 more

Light-matter interaction is gaining increasing interest at the frontiers of physics as it helps to understand many-body effects and explore their applications in optics and photonics. This research paper aims to investigate the effect of different polarized laser radiations in cooling and trapping process of polariton. Our strength lies in the analysis of the dynamic of polariton cooled and trapped with different types of laser-polarized modes in order to be able to formally recommend to the scientific community the best laser-polarized mode for realizing both theoretical and practical studies based on light-matter (polariton) interactions. From the complete Hamiltonian of the system, we derived the mechanical force and torque acting on the system and the transition probability of finding the system in the excited state using the semi-classical approach under rotating wave approximation (RWA). Our results demonstrate that laser cooling and trapping of polaritons is more appropriate using the plane polarized electric mode (PPEM) laser radiation than other types including the plane polarized electromagnetic mode (PEMM), the transverse polarized electric mode (TEM) and the transverse polarized magnetic mode (TMM), under low coupling strength constant and intense laser radiation. This finding is highly valuable for researchers and experts focused on optics and photonics as it provides new insights for advancing light–matter (polariton) interaction studies and potential quantum computing and teleportation applications.

World Journal of Advanced Research and Reviews•Mar 5, 2026•0 citations
In coherent light-matter interactions the coherent state produced by the light pulse remains coherent during the entire period of observation. One of the well-known examples of such interactions is the Rabi oscillation—a periodic transfer of population in a two-level system induced by an external electromagnetic field. While these oscillations have been studied in light-matter interactions since the discovery of laser itself, most of the studies are limited to long wavelengths, typically ranging from microwave to visible radiation. Here, we discuss how such oscillations can be generated at shorter wavelengths, for example in the extreme ultraviolet domain, using intense femtosecond pulses from seeded free-electron lasers. When a two-level system is undergoing Rabi oscillations, it can be described via an ‘atom + photon’ dressed-state, the properties of which can be further manipulated to study quantum entanglement between massive particles. Our results offer opportunities to employ these intense laser pulses for generating and controlling coherent light-matter interactions across ultrashort timescales.
Light-matter interaction is gaining increasing interest at the frontiers of physics as it helps to understand many-body effects and explore their applications in optics and photonics. This research paper aims to investigate the effect of different polarized laser radiations in cooling and trapping process of polariton. Our strength lies in the analysis of the dynamic of polariton cooled and trapped with different types of laser-polarized modes in order to be able to formally recommend to the scientific community the best laser-polarized mode for realizing both theoretical and practical studies based on light-matter (polariton) interactions. From the complete Hamiltonian of the system, we derived the mechanical force and torque acting on the system and the transition probability of finding the system in the excited state using the semi-classical approach under rotating wave approximation (RWA). Our results demonstrate that laser cooling and trapping of polaritons is more appropriate using the plane polarized electric mode (PPEM) laser radiation than other types including the plane polarized electromagnetic mode (PEMM), the transverse polarized electric mode (TEM) and the transverse polarized magnetic mode (TMM), under low coupling strength constant and intense laser radiation. This finding is highly valuable for researchers and experts focused on optics and photonics as it provides new insights for advancing light–matter (polariton) interaction studies and potential quantum computing and teleportation applications.