EOSAM 2021 – Thermal Radiation and Energy Management
I am enthusiastic to be part of the EOSAM 2021 Program Committee for the Thermal radiation and energy management Topical Meeting which (hopefully!) will be held in Rome 13-17 September 2021.
Theoretical and Computational Nanophotonics for Light Harvesting and Energy Applications
I am enthusiastic to be part of the EOSAM 2021 Program Committee for the Thermal radiation and energy management Topical Meeting which (hopefully!) will be held in Rome 13-17 September 2021.
In collaboration with the experimental group at the Regional Centre of Advanced Technologies and Materials in Czech Republic, we demonstrate the use of scalable, thermal resistant and highly absorptive TiN nanocavities for quasi-2D heat confinement induced steam generation:
Solar steam generation on scalable ultrathin thermoplasmonic TiN nanocavity arrays
In collaboration with the Polytechnic University of Milan, we exploit hot carrier thermalization to generate an ~ps control of diffraction modes:
All-Optically Reconfigurable Plasmonic Metagrating for Ultrafast Diffraction Management
In this extensive review article we layout potential future directions across plasmonic and phononics:
Controlling Light, Heat, and Vibrations in Plasmonics and Phononics
Tegether with an excellent team of collaborators we put together a perspective on Plasmonic Catalysis, highlighting challenges and promises:
In collaboration with ETH in Zurich, we recently published an overview of the future of opto-electronic memristors for Neuromorphic Computing:
Opto-electronic memristors: Prospects and challenges in neuromorphic computing
Our last work on exploiting non-thermalized ‘hot’ electrons for fast polarization switching has been published in Nature Photonics.
Congratulations to Andrea Schirato and all the collaborators across Rice, Politecnico di Milano and Italian Institute of Technology!
Free access to the text is available here: https://rdcu.be/b8IWD
Following up on our previous work on the thermoplasmonics of nanocones, we now show how it is possible to control temperature gradients by tuning light incident angle.
See our latest work published in Optics Letters in collaboration with the Italian Institute of Technology.
Tuning temperature gradients in subwavelength plasmonic nanocones with tilted illumination
DOI: https://doi.org/10.1364/OL.404950
See our latest work published on the Journal of Physical Chemistry C on the use of metallic porous materials to optical detect DNA molecules. In collaboration with the Italian Institute Technology.
λ-DNA through Porous Materials—Surface-Enhanced Raman Scattering in a Simple Plasmonic Nanopore
DOI: https://doi.org/10.1021/acs.jpcc.0c06165
Did you know heat could oscillate?
In this recently published article in Physical Review Applied, I show how heat sources and fluids can be combined in a flow-driven resonant thermal system.
Such systems behave as oscillators and can be used to store thermal energy, control temperature patterns in microfluidic devices and even enhance water desalination!
LINK: Flow-Driven Energy Resonant Systems, Physical Review Applied, 14, 034045, 2020