Cours/Séminaire
Notice
Lieu de réalisation
LAPLACE, Toulouse, France
Langue :
Anglais
Conditions d'utilisation
Droit commun de la propriété intellectuelle
DOI : 10.60527/dazs-r069
Citer cette ressource :
RPF. (2023, 15 février). Recent Advances in Surface Engineering by Dielectric Barrier Discharges at Atmospheric Pressure (Fiorenza Fanelli). [Vidéo]. Canal-U. https://doi.org/10.60527/dazs-r069. (Consultée le 25 avril 2025)
Logo Réseau des plasmas froids
Réseau des plasmas froids
S'abonner
Contacter

Recent Advances in Surface Engineering by Dielectric Barrier Discharges at Atmospheric Pressure (Fiorenza Fanelli)

Réalisation : 15 février 2023 - Mise en ligne : 6 mars 2023
  • document 1 document 2 document 3
  • niveau 1 niveau 2 niveau 3
Descriptif

Webséminaire de Fiorenza Fanelli (CNR Nanotec - Bari - Italie) donné dans le cadre du Réseau des Plasmas Froids le 15 Février 2023 à 10h00 depuis le laboratoire LAPLACE.

Atmospheric pressure non-equilibrium plasma technologies have received enormous attention in surface processing in the last two decades. They have opened new opportunities to tailor the surface properties of materials as well as to prepare a variety of thin films with different chemical compositions, structures and morphologies. In this context, dielectric barrier discharges (DBDs) have played a major role due to their simple design, ease of generation, scalability to large area substrates. A plethora of DBD-based apparatuses and processes has been therefore devised to meet the ever-increasing demand for atmospheric pressure plasma technologies in various surface engineering applications. In this presentation, an overview of our recent progress in the surface modification of materials using DBDs will be presented with particular focus on process optimization as well as on potential applications. The presented examples will include the deposition of hybrid organic/inorganic nanocomposite coatings by using aerosol-assisted plasma processes  and the surface treatment of open-cell polymer foams  accomplished by igniting the DBD throughout the entire three-dimensional  porous structure of the material.

Thème
Disciplines :

Sur le même thème