Use of version control systems. Use of Git (version control system) and GitHub (collaboration platform)

• Development of high efficient parallel algorithms by using Message Passing Interfaces(MPI) and Open Multi-Processing(OpenMP) libraries

• Design of a module for the interoperability of different commercial software packages by using industry-based file formats

• Development of an accurate mathematical model describing the loss mechanism in Printed Circuits Boards (PCBs) and Integrated Circuits(ICs).

• Development of an efficient algorithm for the calculation of the output parameters in printed circuits

• Development of new mathematical models for the prediction of the additional losses and frequency shift introduced by the surface roughness of microwave circuits and antennas

• Design of microwave circuits and printed antennas

• Signal Integrity analysis of connector geometries

• Efficient numerical analysis of the electromagnetic scattering from metallic/dielectric objects on a wide frequency band

• Design of antennas for mobile phone applications with lower SAR and improved efficiency by using Frequency Selective Surfaces(FSS) and lossy materials

• Design on a Frequency Selective Surface with wide-band and elliptical response.

• Managed a long standing collaboration with a commercial company on several projects investigating the electromagnetic analysis and simulations of integrated circuits.

• Trained and supervised post-doc fellows, PhD and undergraduate students in the Electromagnetic Communication Laboratory, Pennsylvania State University.

• Numerical methods in electromagnetics with a particular emphasis on the Method of Moments(MoM).

• Electromagnetic analysis of electrically large problems by using Domain Decomposition(DD) techniques.

• Development of an efficient and accurate algorithm for the fast prototyping of microwave circuits and printed antennas etched on dielectric media.

• Investigation of the issues associated with the Method of Moments at very low frequency.

• Efficient numerical analysis of printed antennas and microwave circuits operating on a wide frequency band.

• Efficient design and analysis of printed antennas and microwave circuits through the Dyadic Green's Functions (DGF's).

• Design of microwave circuits and antennas multi-layered dielectric media.

• Efficient calculation of the Dyadic Green's Functions for layered dielectric media by using semi-analytic methods such as the Discrete Complex Image Methods (DCIM).

Course: Electromagnetic Compatibility