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Plenary SpeakersPlenary Speakers Prof. Ebbesen’s research has transformed optics and chemistry. At NEC, he worked on carbon nanomaterials and discovered extraordinary optical transmission, showing that light can pass efficiently through subwavelength holes in metals—contradicting accepted theory and enabling applications from optoelectronics to sensing. Since 2005, he has pioneered polaritonic chemistry, exploring strong light–matter coupling to control chemical properties. His achievements have earned major honors: EuroPhysics Prize (2001), France Telecom Prize (2005), EPS Quantum Optics Prize (2009), Kavli Prize in Nanoscience (2014), CNRS Gold Medal (2019), and honorary doctorates from Oberlin College and the University of Leuven. He is a member of several prestigious academies, held the Liliane Bettencourt Chair at Collège de France, and was named Chevalier de la Légion d'Honneur in 2017.
Prof. Scholes provides extensive experience in multidisciplinary areas relating to physical chemistry, materials science, quantum information, and biophysics. He employs both theory and experimental tools to understand photo-initiated processes in biological and chemical systems. Significantly, he has made seminal contributions in understanding nature’s ability to harness light to facilitate reactions such as photosynthesis. Prof. Scholes is consistently breaking new ground in molecular photophysics and photo-initiated dynamics by intermixing experimental techniques such as multidimensional electronic spectroscopy, with quantum chemical and theoretical approaches. Apart from studying ultrafast dynamics, he also actively investigates a diverse array of topics ranging from strong light-matter coupling to coherence phenomena in chemistry.
Prof. Woodward’s research focusses on the effects of electron spin on chemical reactions and biological processes. His interdisciplinary research group develops and employs new experimental methodologies to investigate the effects of magnetic fields on photochemical processes, in systems ranging from simple chemical reactions to complex processes in living systems. He provided the first demonstration of the modulation of chemical reaction yields using radiofrequency radiation and has more recently pioneered the microscopic imaging techniques to study spin correlated radical pairs in living cells. He is particularly interested in the potentially harmful or helpful effects of magnetic fields on humans, with an aim to characterize the roles played by electron spin-dependent reactions. He also has a strong interest in science education and outreach with a focus on finding intuitive ways to explain challenging concepts.
As the first step to explore its physical aspects, he developed a setup of in situ spectroscopies such as terahertz spectroscopy under microwave (2.45 GHz) irradiation for nanoscale reverse micelles and was successful in observing the terahertz vibrational condensation.
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