Organisation : Département Physique et sciences des matériaux
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News
Modifying molecular interactions by squeezing molecules
En savoir plusIn a paper published in Nature Communications on 08 January 2021, the Theoretical Chemical Physics group, from the Department of Physics and Materials Science (DPhyMS) at the University of Luxembourg, developed a practically applicable method that is able to accurately describe interactions between molecules in an arbitrary confining environment or ”squeezed molecules”.
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Events
Thesis Defense: Pressure Sensing with Nematic Liquid Crystal and Carbon Nanotube Networks
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News
New Professor in Physics of Active Matter
En savoir plusEtienne Fodor has recently joined the University of Luxembourg as Professor in Physics of Active Matter.
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Events
Nanoscience Global Lecture
En savoir plusIn celebration of its 20th anniversary, the journal Nano Letters launched the new Nanoscience Global Lecture. This monthly series features engaging talks from leaders across nanoscience research highlighting exciting nanoscience progress. Each event will include two featured talks as well as a talk from an early career researcher.
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News
Neutron scattering provides new insights into nanoparticles
En savoir plusResearchers from the University of Luxembourg, the University of Salamanca and from General Numerics Research Lab in Germany have investigated the spin structure of nanoparticles. Their findings have been published in the renowned scientific journal Physical Review Letters.
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News
Physicists pin down the pay off between speed and entropy
En savoir plusResearchers Massimiliano Esposito and Gianmaria Falasco from the Department of Physics and Materials Science at the University of Luxembourg have developed a valuable tool to manipulate non-equilibrium systems. Their findings have been recently published in the renowned journal Physical Review Letters.
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News
A step forward towards photonic circuits with metamaterials
En savoir plusResearchers from the University of Luxembourg and their international research partners have recently reported how a special kind of artificial materials, called epsilon-near-zero metamaterials, might enable an unprecedented control of light properties on a temporal scale which is 1000 billion times smaller than a second. The scientists have published an article in Communications Physics, an open…