Faculty Office Ext.
1752
Faculty Building
UB1
Office Number
303
Biography
Assistant Professor specializing in aerospace structures, finite element analysis, CFD, aeroelasticity, renewable energy systems, and design optimization. More than 15 years of experience in teaching, research, and industrial consultancy, with 26+ publications, funded research projects, Fulbright research experience at Duke University, and extensive ANSYS-based CFD/FEA projects for HVAC, fire safety, vibration, thermal systems, and structural design.
Achievements
- School of Engineering, Cairo University Award for best Ph.D. Dissertation "Cairo University, February 2021".
- Cairo University Awards for International Publications "Cairo University, 2015-2019".
- The FULBRIGHT/AMIDEAST award for achieving the fellowship at Duke University "Fulbright/Amideast, 2015-2019".
- The graduation project was awarded the title of Best Project in Mechanics from Egyptian Engineering Day (EED), Samsung Real Dreams Award (SRDA), and Young Innovation Award (YIA), July 2010.
- Ideal student "Aerospace Engineering Department, July 2010".
- Award for being the second in class" Outstanding student, Faculty of Engineering, Cairo University "Aerospace Engineering Department, 2010".
- Dean’s list "Cairo University, 2006-2010".
- Accepted STDF grant entitled "Piezoelectric energy harvesting in renewable energy applications, mathematical foundation, and implementation" 2 Million EGY
Research Tracks
- Aeroelasticity
- Finite Element Analysis
- Composite Structures
- Design Optimization
- Renewable Energy
- Engineering Mathematics
Projects
Research Project
Parabolic Trough Collector for Home Applications
One of the challenges results from climate change is the shortage in electricity networks. The crises result from the climate change along with the repercussions of Covid-19 make it important to rely more on clean energy sources such as Parabolic Trough Collectors (PTCs- are parabolic shape reflectors that reflects the sun energy into a central tube in the focal point), Solar (Photovoltaic) cells
Research Project
Wings Aeroelastic Experimental Analysis Using Piezoelectric Materials
The study of aeroelasticity is very important for any spacecraft vehicles such as aircrafts, missiles, and helicopter rotary plates which are moved in the air, there are two phenomena discussed as follows “Divergence” and “Flutter”. In the present work, we concentrate on the analytical and experimental analysis of wing flutter using wind tunnel testing in addition to flutter suppression using
Research Project
Satellite Analysis and Design
The parametric design and optimization of the satellite composite laminated plates with conventional stacking sequence under static load. We create finite element code using MATLAB software to calculate the deformation of the composite satellite plate. The model has been created to study the effect of changing fiber orientation on the displacement of the composite satellite plate. The MATLAB code
Research Project
Wind Turbine Aeroelastic Analysis and Design
As a result of the high demand for clean and sustainable energy resources, increasing the rotor diameter and tower height is the trend of development to capture more energy from the wind. The long flexible blades are sensitive to any vibrations; therefore, the flutter analysis of wind turbine blades became highly required. A lot of research work has been dedicated to studying the flutter phenomena
Research Project
Parabolic Trough solar collector
Abstract This project aims to revolutionize the design and optimization of multi-stage parabolic trough solar collectors (PTCs) to address the limitations of conventional PTC systems, such as inefficiency and high costs for home applications. The research focuses on developing a novel design that integrates multiple stages of heat absorption and transfer mechanisms, leveraging cutting-edge
Research Project
Piezoelectric energy harvesting in renewable energy applications, mathematical foundation, and implementation.
Abstract In the present project, we develop a novel mathematical model for a hybrid piezo-BWT energy harvesting that will be coded, implemented, and tested through the project lifetime. This goal can be achieved in six phases that are described in the present section. Fund STDF