Highly accomplished Doctoral Researcher in computational materials science specializing in theoretical modeling for sustainable energy, with a strong record of publications in high-impact journals. Leverages advanced atomistic simulations, primarily Density Functional Theory (DFT) and ab initio molecular dynamics (AIMD), to engineer next-generation energy materials for alkali-metal ion batteries and efficient hydrogen production. Seeking a Postdoctoral role to contribute to cutting-edge research and development in sustainable energy technologies.
Teaching Assistant
Rabat, Morocco
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Summary
Directed practical work sessions for undergraduate Physics students, enhancing hands-on learning and foundational knowledge in key scientific disciplines.
Highlights
Guided over 100 undergraduate students through practical work sessions in Physics II (Electricity, Optics, Thermodynamics, and Mechanics), fostering hands-on learning and reinforcing foundational scientific knowledge.
Developed and delivered engaging instructional materials, resulting in improved student comprehension and experimental proficiency.
Provided individualized support and mentorship to students, contributing to their academic success and problem-solving skills in complex physics concepts.
Doctoral Researcher
Rabat, Morocco
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Summary
Led multi-scale computational modeling of 2D materials to advance renewable energy applications, contributing to high-impact journal publications.
Highlights
Pioneered the application of advanced computational models, including DFT, AIMD, and Monte Carlo, to analyze electrochemical and physical properties of materials for Li/Na-ion batteries and hydrogen storage, resulting in multiple Q1 journal publications.
Investigated and optimized strain engineering, heterostructures, and doping strategies to significantly enhance battery performance and energy conversion system efficiency.
Published 5 articles in high-impact Q1 journals (IF 8.1 - 9.8) on novel 2D materials, heterostructures, and strain effects for sustainable energy applications.
Contributed to the development of next-generation energy materials through rigorous theoretical modeling and simulation, bridging fundamental science with real-world energy solutions.
Research Intern
Rabat, Morocco
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Summary
Gained hands-on experience in modeling and simulating 2D nanomaterials for energy storage and optoelectronic applications, integrating computational and experimental validation techniques.
Highlights
Applied computational analysis and experimental validation techniques to model and simulate 2D nanomaterials, contributing to advancements in energy storage and optoelectronic applications.
Collaborated on research projects focused on material science, gaining practical experience in data interpretation and scientific reporting.
Developed proficiency in specialized software and methodologies for nanomaterial characterization and performance prediction.
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Ph.D. in Physics
Condensed Matter and Materials Science
Courses
Graphene heterostructures
Black phosphorene
Fast-charging
DFT
Ionic diffusion
Battery anodes
AIMD
Li/Na-ion batteries
Energy production and storage
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Master's Degree
Computational Physics
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Bachelor's Degree
Physics of Matter
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Scientific Baccalaureate
Experimental Sciences
Awarded By
Mohammed V University of Rabat
Received an honorable mention for master's thesis research on computational modeling of materials for energy applications, recognizing excellence in academic research.
Published by
Journal of Energy Storage
Summary
Published in a Q1 journal with an Impact Factor of 9.8, this research details novel graphene heterostructure anodes for enhanced Li/Na-ion battery performance.
Published by
Renewable Energy
Summary
Featured in a Q1 journal with an Impact Factor of 9.3, this study explores anisotropic strain effects to optimize phosphorene/graphene heterostructures for sustainable energy.
Published by
International Journal of Hydrogen Energy
Summary
Published in a Q1 journal with an Impact Factor of 8.3, this research investigates high-efficiency photocatalytic hydrogen production using monolayer Bi2S4 via first-principles study.
Published by
Journal of Power Sources
Summary
Published in a Q1 journal with an Impact Factor of 8.1, this study presents P6C5 monolayer as a promising anode material for high-performance sodium-ion batteries.
Atomistic Modeling, Quantum Espresso, Wien2k, LAMMPS, Yambo, BoltzTrap, ANSYS, COMSOL, Simulation Methods, DFT (Density Functional Theory), AIMD (Ab Initio Molecular Dynamics), Monte Carlo, Data Analysis, Nanostructure Design, Publishing, Electrochemical Storage, Strain Engineering, Heterostructures, Doping Strategies, Energy Conversion Systems, 2D Materials, Li/Na-ion Batteries, Hydrogen Storage.
Python, C, Fortran, Linux, Windows, OriginLab, VESTA, XCrySDen, Microsoft Word, Microsoft Excel, Microsoft PowerPoint.
Project Management, Team Collaboration, Leadership, Communication, Problem-Solving, Fast Learner, Adaptability, Ability to Work Under Pressure, Instructional Design, Mentorship.
PES/Expert, Hassan II Academy of Science and Technology, benyous.a@gmail.com
PES, Mohammed V University, Rabat, akenzle@yahoo.com
PH, Mohammed V University, Rabat, Affiliated Professor, UM6P, Ben Guerir, omar.mounkachi@gmail.com
PES, Mohammed V University, Rabat, ghilan.fatima@um5.ac.ma