Prof. EL Mustapha Feddi | Semiconductors | Best Researcher Award
Professor at mohammed V university of Rabat, Morocco
Renowned physicist Prof. El Mustapha Feddi, based at ENSAM, Mohammed V University, Rabat, boasts a stellar academic journey with a Doctorat d’état in Physics of Semiconductors. His research prowess spans optoelectronic properties of semiconductor quantum dots, influencing diverse applications from solar cells to quantum computing. As a seasoned educator, he’s held key positions, including Head of Physics Department and Deputy Director for Scientific Research. With an H-index of 25 and numerous international collaborations, Prof. Feddi is recognized for his impactful contributions, evident in over 1900 citations and leadership in scientific journals. An expert bridging academia and global research, he continues to shape the future of physics.
Professional Profiles:
Current Position:
Professor affiliated with the Mohammed VI Polytechnic University in Ben Guérir since 2022.
Academic Achievements:
Doctorat d’état in Physics of Semiconductors, 1997, Faculté des sciences de Tétouan. Diplôme d’études supérieures in Physics of Semiconductors from the University of Metz, France (1987). Holds an H-index of 25, i10-index of 67, and has accumulated 1903 citations.
Teaching and Leadership Roles:
Held professorial positions at various institutions, including ENS de Tétouan and ENSET in Mohammadia and Rabat. Served as the Head of the Physics Department (1997-2005) and as Deputy Director for Scientific Research at ENSET Rabat (2013-2015). Currently, the Head of the Preparatory Classes at ENSAM Rabat.
Research Projects
Led a research project with the Institute of Materials Science at the University of Valencia on InAs quantum dots. Active member of the PHC Maghreb project with the University of Marseille, focusing on improving silicon quantum dot-based solar cells.
Expertise and Recognition:
Membership in the editorial board of “Optical and Quantum Electronics” (Springer). Expert evaluator for international scientific journals and CNRST (National Center for Scientific and Technical Research) from 2020 to 2023.
Research Focus:
Specializes in theoretical studies of optoelectronic properties of semiconductor quantum dots. Areas of interest include applications in solar cells, renewable energy, medical imaging, optoelectronic devices, HEMT transistors, quantum computing, and more. Expertise in the optical properties of nanostructures influenced by electric and magnetic fields. Active in ab-initio calculations in chalcopyrites, kësterites, and 2D materials.
Prof. El Mustapha Feddi’s prolific research encompasses a diverse range of topics in condensed matter physics and materials science. With a focus on semiconductor quantum dots, his work delves into the electronic and optical properties of materials like kesterite, Cu2CoGeS4, and Cu2ZnSn(S,Se)4, as evidenced by his groundbreaking studies published in reputable journals. Proficient in first principles studies using Density Functional Theory (DFT) and SCAPS-1D analysis, he explores applications in solar cells, quantum wells, and biomedical technology. His keen interest in nanotechnology, magnetism, and optoelectronic phenomena positions him as a leading authority in the field.
Peer Reviewer & Academic Engagements:
Prof. El Mustapha Feddi, citation metrics and indices from Google Scholar are as follows:
Citations: 1910 (All), 1383 (Since 2019)
h-index: 25 (All), 20 (Since 2019)
i10-index: 67 (All), 55 (Since 2019)
Publications (TOP NOTES)
Modeling of highly efficient CNGS based kesterite solar cell: A DFT study along with SCAPS-1D analysis, publication date: 2023.
First principles study on electronic and optical properties of Cu2CoGeS4 for photovoltaic conversion and photocatalytic applications, publication date: 2023.
Analytical Modeling and Optimization of Cu2ZnSn(S,Se)4 Solar Cells with the Use of Quantum Wells under the Radiative Limit, publication date: 2023.
Applications of Hybrid Metal Nanoparticle-Quantum Dot in Biomedical Applications, publication date: 2023.
Intense Laser Field Effect on the Photo-Ionization CrossSection of the First Exciton Transition in a Core/Shell
Quantum Dot Submitted to an Applied Electric Field, publication date: 2023.
Optical Gain of a Spherical InAs Quantum Dot under the Effects of the Intense Laser and Magnetic Fields, publication date: 2023.
Influence of Hole-Phonon Coupling on Thermodynamic and Magnetic Properties of Diluted Semiconductor: Ga1-xMnxAs in Quantum Dots. publication date: 2023.
Tuning the Electronic Properties of Janus GeSnS2 Monolayers through Strain and Electric Field, publication date: 2023.
Optoelectronic Properties of a Cylindrical Core/Shell Nanowire: Effect of Quantum Confinement and Magnetic Field, publication date: 2023.