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Electrical control of picoCavity enhanced mOlecule-Light intEractions

Project description

Advancing research in plasmonic nanocavities

Plasmonics allows to manipulate the strength of how light interacts with materials at very small scales. This enables, for example, the detection of single small molecules or controlling chemical reactions. A special structure called a plasmonic gap nanocavity has proven particularly suitable to amplify light matter interaction signals significantly. Supported by the Marie Skłodowska-Curie Actions programme, the ECOLE project will improve these nanocavities by controlling them electrically, thereby making them a more reliable sensing tool and helping scientists test their formation mechanisms. Researchers will study how light and electricity interact in these systems and create a scalable and potentially cheaper way to detect mid-infrared radiation. This could make mid-infrared technology more accessible for various practical uses related to molecular sensing and detection.

Objective

Controlling and engineering light matter interactions at ever smaller scales is an ambitious research enterprise that has fostered the field of plasmonics, leading to improved molecular sensing, monitoring of chemical reactions at the single molecule level and the exploration of new phenomena such as room-temperature strong coupling. One of the most powerful and prolific approaches has been to engineer plasmonic gap cavities with (sub) nanometric gaps yielding high field enhancements. At such small scales, the displacements of one or few atoms leads to an additional, highly localized field enhancement, termed picocavity, that allows for example to robustly detect SERS signals stemming from a single molecule by boosting its signal more than 1000 times.
In Ecole I will equip such small plasmonic gap nanocavities with electrical connections. First, I will achieve electrical control over the formation and dynamics of picocavities, making them a more reliable sensing tool and testing current hypotheses about their microscopic nature and formation mechanisms.
Subsequently I will use this increase enhancement to study the electron-phonon coupling in a molecular junction. Looking at the influence of strong optical resonances and drive on the the electron transport and phonon generation, allowing to reach non-classical states. Third, I will then demonstrate electrically driven mid-IR upconversion from a molecular junction, where the incoming excites vibrations of fluorescent molecules and thereby triggers overbias electroluminescence. This paves the way for a new all electrical detection scheme of mid-IR radiation, with a more scalable and potentially cheaper approach than current technology, enabling to integrate the advantages and promises of the mid-IR technology in a larger range of products and applications.

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HORIZON-TMA-MSCA-PF-GF - HORIZON TMA MSCA Postdoctoral Fellowships - Global Fellowships

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Call for proposal

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(opens in new window) HORIZON-MSCA-2024-PF-01

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Coordinator

JULIUS-MAXIMILIANS-UNIVERSITAT WURZBURG
Net EU contribution

Net EU financial contribution. The sum of money that the participant receives, deducted by the EU contribution to its linked third party. It considers the distribution of the EU financial contribution between direct beneficiaries of the project and other types of participants, like third-party participants.

€ 416 941,44
Address
SANDERRING 2
97070 Wuerzburg
Germany

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Region
Bayern Unterfranken Würzburg, Kreisfreie Stadt
Activity type
Higher or Secondary Education Establishments
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Total cost

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