Electrical Power and Renewable Energy Engineering
Electrical Power and Renewable Energy Engineering is a multidisciplinary program preparing graduates to design, operate, and manage modern power systems and sustainable energy technologies, including smart grids, solar, wind, and energy efficiency, supporting reliable, clean, and resilient energy futures.
Duration of Study
Four Years (144 Credits plus field training, AGPA ≥ 2)
Degree
Bachelor of Science in Electrical Power and Renewable Energy Engineering
Credit Hours
144 Credit Hours
Program Highlights
The Electrical Power and Renewable Energy Engineering (EPR) program provides comprehensive education in the analysis, design, operation, and management of modern electrical power systems and sustainable energy technologies. The program integrates core electrical engineering principles with advanced knowledge of renewable energy systems, including solar, wind, and energy storage, to address the growing global demand for clean, reliable, and efficient energy.
Students develop strong theoretical foundations supported by extensive practical training in laboratories, simulation environments, and industry placements. The curriculum emphasizes power generation, transmission, distribution, smart grids, power electronics, control systems, and the integration of renewable energy sources into conventional power networks.
The program fosters innovation, problem-solving, and engineering design skills, enabling graduates to develop sustainable energy solutions that meet technical, economic, and environmental requirements. It also promotes awareness of professional ethics, safety standards, and the societal and environmental impacts of energy systems.
Graduates are well-prepared for careers in power utilities, renewable energy companies, industrial sectors, and consulting firms, as well as for postgraduate studies and research. The program is designed in alignment with national and international accreditation standards (e.g., NAQAAE and ABET (EAC)), ensuring high-quality education and global competitiveness.
Available Departments
Skill Development
Detailed Skills Development Framework (EPR):
- Fundamental Engineering Knowledge
Graduates develop strong foundations in:
- Electrical circuit analysis (DC/AC)
- Electromagnetics and fields
- Engineering mathematics (linear algebra, differential equations, and probability)
- Physics relevant to energy systems
- Programming and numerical methods (e.g., MATLAB, Python)
- Electrical Power Systems Competencies
Students gain the ability to:
- Analyze power generation, transmission, and distribution systems
- Perform load flow, short-circuit, and stability studies
- Design and operate substations and protection systems
- Apply smart grid technologies and energy management systems
- Ensure power system reliability, stability, and resilience
- Renewable Energy Systems Expertise
Graduates acquire skills in:
- Solar energy systems (PV design, installation, and performance analysis)
- Wind energy conversion systems
- Energy storage technologies (batteries, hydrogen, hybrid systems)
- Integration of renewables into power grids
- Hybrid and off-grid renewable system design
- Power Electronics and Drives
Students learn to:
- Design and analyze power electronic converters (AC/DC, DC/DC, and DC/AC)
- Work with motor drives and control systems
- Implement energy-efficient power conversion solutions
- Apply converters in renewable energy applications
- Control Systems and Automation
Graduates are trained to:
- Model and control dynamic systems
- Design controllers for power and energy applications
- Apply PLCs, SCADA, and industrial automation
- Integrate IoT and AI in smart energy systems
- Digital and Computational Skills
Students develop:
- Simulation skills using ETAP, PSCAD, and MATLAB/Simulink
- Data analysis and visualization
- AI and machine learning basics for energy forecasting
- Cybersecurity awareness in smart grids
- Engineering Design and Innovation
Graduates can:
- Design complete electrical and renewable energy systems
- Conduct feasibility and techno-economic study (or techno-economic assessment (TEA)
- Optimize system performance and efficiency
- Develop innovative, sustainable energy solutions
- Practical and Laboratory Skills
Students gain hands-on experience in:
- Electrical machines and power systems laboratories
- Renewable energy laboratories (solar, wind simulators)
- Power electronics and control laboratories
- Field training in power plants and renewable energy installations
- Sustainability and Environmental Awareness
Graduates understand:
- Environmental impacts of energy systems
- Energy efficiency and conservation techniques
- Climate change and Sustainable Development Goals (SDGs)
- Green engineering practices
- Professional and Employability Skills
Students develop:
- Teamwork and multidisciplinary collaboration
- Technical communication and reporting
- Project management and leadership
- Ethics, safety standards, and regulatory compliance
- Lifelong learning and adaptability
- Research and Analytical Skills
Graduates are capable of:
- Conducting experiments and interpreting data
- Applying scientific research methods
- Writing technical papers and reports
- Solving complex, open-ended engineering problems
- Industry Readiness and Entrepreneurship
Students are prepared to:
- Work in utilities, renewable energy companies, and consulting firms
- Engage in energy project development and management
- Understand energy markets and policies
- Launch startups in clean energy and smart technologies
Program Educational Objectives (PEOs)
PEO 1 – Professional Practice
Graduates will practice successfully as electrical and renewable energy engineers in industry, utilities, and consulting, contributing to reliable and sustainable power systems.
PEO 2 – Technical Competence & Innovation
Graduates will apply advanced engineering knowledge and modern tools to design, analyze, and improve electrical power and renewable energy systems.
PEO 3 – Lifelong Learning & Development
Graduates will pursue continuous professional development, higher education, and certifications in emerging energy technologies.
PEO 4 – Leadership & Societal Impact
Graduates will demonstrate leadership, ethical responsibility, and commitment to sustainability, safety, and societal needs.
Program Learning Outcomes (PLOs)
PLO 1 – Engineering Knowledge
Apply mathematics, science, and engineering principles to solve complex electrical power and renewable energy problems.
PLO 2 – Problem Analysis
Identify, formulate, and analyze complex power and energy engineering problems using appropriate methods.
PLO 3 – Design/Development of Solutions
Design electrical and renewable energy systems that meet specified needs with consideration of safety, sustainability, and economic factors.
PLO 4 – Investigation
Conduct experiments, analyze data, and interpret results to improve system performance and validate solutions.
PLO 5 – Modern Tool Usage
Use modern engineering tools and software (e.g., simulation and modeling platforms) appropriately in power and energy applications.
PLO 6 – Engineer and Society
Apply engineering solutions with awareness of societal, environmental, and regulatory contexts, including sustainability.
PLO 7 – Ethics
Demonstrate ethical and professional responsibility in engineering practice.
PLO 8 – Communication
Communicate effectively with technical and non-technical audiences through reports, presentations, and documentation.
PLO 9 – Individual and Team Work
Function effectively as an individual and as a member or leader in multidisciplinary teams.
PLO 10 – Project Management & Finance
Apply engineering management principles, project planning, and economic decision-making.
PLO 11 – Lifelong Learning
Recognize the need for and engage in independent and lifelong learning in a rapidly evolving energy sector.
Useful Links
Admission
Requirements
Academic Prerequisites
- Egyptian Thanaweya Amma (Mathematics Division/Scientific Mathematics): Must hold a “علمي رياضة” certificate.
- American Diploma: 8 subjects including Mathematics, Physics, Chemistry, English + SAT/ACT/EST.
- Canadian Diploma: 8 subjects from Grades/ Scientific Mathematics 11 & 12 including Mathematics, Physics, Chemistry, English.
- French Baccalaureate: 7 subjects including Mathematics, Physics, Chemistry, English.
- IGCSE: 8 O-Level + 1 AL/AS Math including Mathematics, Physics, Chemistry, English + approved subjects.
- International Baccalaureate: Mathematics & Physics at Higher Level + English; min 24 points.
- Nile Certificate (CNISE): 7 L1 subjects including Arabic, English, Chemistry, Physics, Mathematics + L2/3 Mathematics.
- Abitur: 7 subjects including Mathematics, Physics, Chemistry, English.
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