Giuseppe Schettini

Giuseppe Schettini is a Full Professor in the Department of Industrial, Electronic and Mechanical Engineering at Roma Tre University, Italy. His research spans electromagnetic theory, antenna design, microwave engineering, and fusion energy systems, with a focus on electromagnetic band-gap (EBG) structures, resonant-cavity antennas, through-the-wall imaging, and Lower Hybrid Current Drive (LHCD) for tokamaks.

His research interests include computational electromagnetics, wireless power transfer, photonic crystals, leaky-wave antennas, and 3D-printed dielectric components. He employs advanced numerical techniques such as the Cylindrical Wave Approach (CWA), Finite-Difference Time-Domain (FDTD), and Finite Element Method (FEM) for modeling and simulation. His work bridges theoretical analysis with experimental validation, particularly in microwave components and imaging systems.

Recent publications highlight trends in high-gain antennas using 3D-printed superstrates, directive radiation from photonic crystals, and applications in fusion energy (e.g., DTT and ITER). His work also extends to wearable and implantable device interactions, radar systems, and inverse scattering for through-the-wall imaging. He frequently collaborates with researchers such as Cristina Ponti, Paolo Baccarelli, Silvio Ceccuzzi, and Lara Pajewski.

Giuseppe Schettini has no listed scientific awards in the provided text.

He advises students and researchers in electromagnetic theory and antenna systems, though specific names are not listed. His work is supported by national and international projects related to fusion energy, microwave systems, and radar technologies. He contributes to major initiatives like the Divertor Tokamak Test (DTT) facility and ITER-relevant LHCD systems.

He leads research activities in electromagnetic scattering, microwave component design, and imaging systems. His team focuses on EBG-based antennas, cylindrical wave modeling, and experimental characterization of dielectric structures. The laboratory work includes 3D printing for antenna superstrates and FDTD simulations for GPR and biomedical applications.