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The Role of Long-Lived Excitons in the Dynamics of Strongly Coupled Molecular Polaritons
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Photon Correlation Signals in Coupled-Cavity Polaritons Created by Entangled Light
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Plug-and-Play Molecular Approach for Room Temperature Polariton Condensation
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Author Correction: Highly confined epsilon-near-zero and surface phonon polaritons in SrTiO 3 membranes
Correction to: Nature Communicationshttps://doi.org/10.1038/s41467-024-47917-x, published online 04 June 2024 In this article the grant number #200020_201096 relating to the Swiss National Science Foundation was omitted. The original article has been corrected.
“The unreasonable effectiveness of mathematics” in evading polaritonic losses
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Electrically switchable anisotropic polariton propagation in a ferroelectric van der Waals semiconductor
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Van der Waals heterostructure polaritons with moiré-induced nonlinearity
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Magneto-optics in a van der Waals magnet tuned by self-hybridized polaritons
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Stable blue phosphorescent organic LEDs that use polariton-enhanced Purcell effects
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Analysis of the classical trajectory treatment of photon dynamics for polaritonic phenomena
Simulating photon dynamics in strong light–matter coupling situations via classical trajectories is proving to be powerful and practical. Here, in this work, we analyze the performance of the approach through the lens of the exact factorization approach. Since the exact factorization enables a rigorous definition of the potentials driving the photonic motion, it allows us to identify that the underestimation of photon number and intensities observed in earlier work is primarily due to an inadequate accounting of light–matter correlation in the classical Ehrenfest force rather than errors from treating the photons quasiclassically per se. The latter becomes problematic when the number of photons per mode begins to exceed a half.