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Dr. Mai Osama Sallam

Associate Professor

Faculty Office Ext.

1752

Faculty Building

UB1

Office Number

303

Biography

Dr. Mai received her B.Sc. degree in Electronics and Communications Engineering from Ain Shams University, her M.Sc. degree in Physics from The American University in Cairo (AUC), and her Ph.D. degree in Electrical Engineering from Katholieke Universiteit Leuven (KU Leuven), Belgium. 

She is an Associate Professor at Nile University. Her research interests include antenna design, computational electromagnetics, plasmonics, and nanophotonics, with applications in wireless communications, 5G/6G, and electromagnetic sensing. She has authored and co-authored a US patent and numerous peer-reviewed publications in international journals and conferences. 

Dr. Mai has received several international research awards and grants, including the Nokia Bell Scientific Prize, ECAP–TICRA Grant, COMSTECH Research Grant, and APS–EPS–ICTP Travel Award Fellowship. She was a Fulbright Junior Faculty Development Program scholar at The University of Texas at Austin in 2022 and a Visiting Scholar at KU Leuven in 2025. She has been an Associate Member of the International Center of Theoretical Physics (ICTP) since 2024 and visited ICTP in 2026 as part of the ICTP Associateship programme (2024–2029). 

Achievements
  • OIC-COMSTECH Research Grant for Young Women Researchers (2025-2026) 
  • APS–EPS–ICTP Travel Award Fellowship (2025) 
  • ECAP-TICRA Grant for Early Careers in Antennas and Propagation (2024) 
  • Fulbright Junior Faculty Development Fellowship, University of Texas in Austin (2022).
  • Nokia Bell Scientific Prize, Belgium (2018).
  • Highest GPA award, The American University in Cairo (2011).
Research Tracks
  • Electromagneitcs and antennas
  • Computational electromagnetics
  • Plasmonics and Nanophotonics 

Projects
1
Research Project

Plasmonic Sensors for Biomedical and Infra-Red Detection Application

Objective/Contributions: The project aims at proposing a new Infra-Red sensor design by employing a plasmonic effect. Plasmonic devices have great potential for biomedical applications due to the sensitivity of the localized surface plasmon resonance to the surrounding medium. Therefore, proposed metasurface sensors are tuned for Biomedical applications as medical diagnostic tools. Enhancing
Research Project

Terahertz Metamaterial Structures for Biomedical Sensing Applications

A new design of interdigitated E-shaped metamaterial sensor has been proposed. The structure has been intensively studied using CST software and is optimized to achieve ultrahigh sensitivity at the Terahertz range. Two different structures of the E-shaped sensors have been proposed. Both structures are characterized by a high absorption level at their resonant peaks with an ultra-high sensitivity
Optical Nano-antennas for Photovoltaic and Infra-red Sensing Applications
Research Project

Optical Nano-antennas for Photovoltaic and Infra-red Sensing Applications

Objectives: The main objectives of the project are listed below: Developing new plasmonic nano structures along with proposing new array topologies by considering uniform distribution, 2D or 3D linear and gaussian distributions. Also, the proposed work aims at investigating the passivation effect of the nanoparticles by surrounding it with a thin layer of silica. Testing different metaheuristics