Take a plasmon mode having a its spin-momentum locked. Add a strong valley exciton, spin-polarized. Keep them together at room temperature. You will obtain a nice chiraliton.
Last week a special issue on Strong Coupling of Molecules to Cavities appeared in ACS Photonics, following San Sebastian international workshop that took place in July 2017 and which was the first dedicated to this fascinating topic. This issue is presenting the state-of-the-art of the subject, with nearly 30 contributions, among which two papers from our group, mentionned in a previous post.
The editorial, written by the guest Editors Pr. Barnes, Pr. Aizpurua and Pr. Garcia-Vidal, kindly recalls that ” it was the pioneering work of Ebbesen and coworkers through a slew of fascinating results over the past five years or so that demonstrated the power of strong coupling to modify molecular and material properties.”
Source : http://www.pubs.acs.org
Two new papers from our group, already published online in October 2017, will appear “asap” in ACS photonics. The first one, Electronic Light–Matter Strong Coupling in Nanofluidic Fabry–Pérot Cavities, by Hadi Bahsoun et al, makes use of nanofluidic Fabry-Pérot cavities to strongly couple a molecule in solution.
The second, Vibro-Polaritonic IR Emission in the Strong Coupling Regime, by Thibault Chervy et al, studies the emission of the hybrid vibro-polaritonic states.
Please find these papers in our publications page !
Francisco Garcia-Vidal and Johannes Feist, from IFIMAC, Madrid University, and DIPC, Donastia, have written a nice perspective paper in Science related to our work on energy transfer between spacially separated entangled molecules published recently in Angewandte Chemie (see publications page). This perspective has been published on Septembre 29, and if not already done, you can download it here.
Our last paper published recently in Angewandte Chemie, has been added to our Publications page. We showed direct evidence of non-radiative energy transfer neither of Förster nor of Dexter type, but due to the delocalized and entangled nature of the hybrid polaritonic states. We have measured energy transfer efficiency close to 37% for donor-acceptor distances over 100nm.
We just published a new paper in Nano Letters, resulting from a collaboration with colleagues at IPCMS (Strasbourg), and Radboud University (Nijmegen), about second-harmonic generation boosted by hybrid light-matter states. This effect is induced by the modification of the nonlinear optical (NLO) susceptibility of organic nanofiber crystals placed into optical microcavities. As the system could be even further optimized, in particular by the use of other types of optical resonators, this opens the door to more efficient NLO organic devices. Please find the paper in our publications page !
Derek Lowe, publisher for Science Translational Medicine , has written a nice blog about our recent paper published in Angewandte Chemie, about ground-state chemical reactivity under vibrational strong-coupling. You can read the blog here, where you will also find links to other blogs about former results. And the paper itself is of course downloadable from the publications page of this site.
Thomas Ebbesen has written a report for Accounts of chemical research about the notion of hybrid light-matter states and the consequences of their existence on the molecular and material properties. This is an overview of the recent results in this emerging field of research where exciting possibilities remain to be explored. The paper can be downloaded from our publications page.
A new publication, resulting from our collaboration with Vladimir Torbeev appeared yesterday in the Journal of Physical Chemistry Letters. This work makes a bridge between quantum electrodynamics and biology, by showing the possibility of modifying the vibrational modes of proteins via strong-coupling. It opens the door to more studies involving the proteins vibrational dynamics and for example, how it affects enzyme catalysis and H/D exchange experiments. You can find the paper here or download it from our publications page.