Plasmonics studies the interaction between electromagnetic waves and free electrons in metals, leading to collective oscillations known as plasmons. These phenomena occur at metal–dielectric interfaces and enable confinement of light below the diffraction limit. Plasmonics allows manipulation of light at nanometer scales, far smaller than conventional optical components. This field is crucial for developing nanoscale optical devices, sensors, and photonic circuits. Applications include surface-enhanced spectroscopy, biosensing, and high-resolution imaging. Plasmonic structures enhance electromagnetic fields, increasing sensitivity in chemical and biological detection. Despite challenges such as energy loss in metals, ongoing research aims to improve efficiency and integration. Plasmonics bridges optics and nanotechnology, offering powerful tools for miniaturized optical systems.
Title : Photoaligned azodye nanolayers: New trends for liquid crystal devices
Vladimir Chigrinov, Hong Kong University of Science and Technology, Hong Kong
Title : Using physics to eliminate implant infection in over 25000 patients to date
Thomas J Webster, Brown University, United States
Title : How the Rad Lab helped avert nuclear war
Thomas F Ramos, Lawrence Livermore National Laboratory, United States
Title : Anisotropic stiffness matrix of bed joint mesh-reinforced masonry: A numerical homogenization approach
Omar Mohammed Daud Shakarneh, Novosibirsk State University of Architecture and Civil Engineering, Russian Federation
Title : Global photochemical model CHARM-DE of the Earth’s atmosphere for altitudes 0-130 km
Alexei Krivolutsky, Central Aerological Observatory (CAO), Russian Federation
Title : Enhanced ferromagnetism in carbon dots polyaniline nanocomposite
Paulo Cesar De Morais, University of Brasilia, Brazil