Department of Electrical Power Engineering and Mechatronics Engineering
Teachers Count
20
Dr. MUTAZ IBRAHIM AHMAD AL-GHZAWAT
Head of Department of Electrical Power and Mechatronics Engineering
Department of Electrical Power & Mechatronics Engineering
Program Overview
The academic programs within the department are designed to prepare highly qualified engineers with strong scientific and technical foundations in various fields of electrical engineering. The programs aim to meet the evolving demands of the labor market while keeping pace with emerging technologies and global engineering challenges. In addition, the graduate program is structured to align with international advancements in research and innovation in the field of Electrical Power Engineering.
The department offers three academic tracks within the electrical engineering domain: Electrical Power Engineering, Mechatronics Engineering, and Integrated Renewable Energy Engineering. This diversity enables students to adapt to rapid developments in the labor market and supports interdisciplinary integration within the field of electrical engineering.
Mission
To provide an advanced scientific and practical learning environment that equips students with the knowledge, skills, and competencies required in various fields of electrical engineering, in alignment with labor market needs and the advancement of scientific research.
Program Educational Objectives (PEOs)
- Equip students with the fundamental knowledge and technical skills necessary to analyze, design, and develop electrical systems and devices, while enhancing their problem-solving capabilities in complex engineering contexts.
- Promote awareness of environmental sustainability and encourage the integration of sustainable practices in the design and application of electrical technologies.
- Develop students’ communication and teamwork skills to enable effective collaboration in multidisciplinary engineering environments, particularly through capstone projects.
- Provide opportunities for hands-on training and practical experience through internships, industrial training, and fieldwork.
- Foster and support scientific research and technological development in the field of electrical engineering.
Core Values
- Safety: Ensuring the implementation of appropriate measures to prevent electrical hazards and maintain the safety of systems and equipment.
- Quality: Ensuring that electrical systems and products comply with recognized international standards, contributing to reliable performance and sustainability.
- Sustainability: Promoting environmentally responsible practices, minimizing energy consumption, and encouraging the use of renewable energy sources.
- Innovation: Encouraging continuous engagement with emerging technologies and advancements in the electrical engineering field.
- Collaboration: Promoting interdisciplinary teamwork to ensure successful implementation of engineering projects.
- Efficiency and Economy: Achieving optimal efficiency and cost-effectiveness in the design and implementation of electrical systems.
- Ethics: Adhering to professional ethical standards, institutional regulations, and promoting integrity in engineering practice.
Academic Programs
The department offers academic degrees at the intermediate diploma, bachelor’s, and master’s levels in Electrical Engineering.
1. Intermediate Diploma Programs
- Energy Technology
- Electrical Installations and Equipment
The diploma degree is awarded upon the successful completion of (72) credit hours, in addition to practical training and passing the comprehensive examination.
2. Bachelor’s Degree Programs
- Electrical Power Engineering
- Mechatronics Engineering
- Integrated Renewable Energy Engineering
The bachelor’s degree is awarded upon the successful completion of (160) credit hours, in addition to practical training.
3. Master’s Degree Program (Power and Control Engineering)
The Master’s program in Power and Control Engineering was launched in 2015 in response to labor market needs and as a natural extension of the success of the undergraduate programs. The degree is awarded upon the successful completion of (33) credit hours, along with the preparation and defense of a thesis.
Laboratories and Practical Facilities
The department is equipped with a comprehensive range of advanced laboratories and workshops that support outcome-based and experiential learning, including:
- Industrial Automation Laboratory
- PLC and Industrial Automation Laboratory
- Digital Fundamentals Laboratory
- Electrical Machines Laboratory
- Electronics Laboratory
- Hydraulic and Pneumatic Systems Laboratory
- Control Systems Laboratories (Control 1 and Control 2)
- Electrical Installations Laboratory
- PLC Laboratory
- Electrical Circuits Laboratory
- Power Electronics Drive Laboratory
- Measurement and Signal Processing Laboratory
- Power Electronics Laboratory
- Microprocessor and Assembly Language Laboratory
- Robotics and Artificial Intelligence Laboratory
- Photovoltaic Systems Laboratory
- Wind Energy Systems Laboratory
- Power Systems Analysis Laboratories (1, 2, 3)
- Digital Logic Design Laboratory
- Renewable Energy Integration Laboratory
- Power System Protection Laboratory
- Electrical Workshops
Department Majors
1
Credit Hour
Bachelor Degree
Program Overview
The Electrical Power Engineering program focuses on the study, design, operation, and maintenance of electrical power systems, including generation, transmission, and distribution. It provides students with strong theoretical foundations and practical skills in power systems, electrical machines, protection, control, and energy quality. The program also integrates modern technologies and renewable energy concepts to ensure sustainable and efficient power systems.
Key Learning Outcomes
By the end of the program, graduates will be able to:
- Understand and apply fundamental concepts of electrical power systems.
- Design and analyze generation, transmission, and distribution networks.
- Operate and maintain electrical machines and power equipment.
- Apply protection and control techniques for power system stability.
- Analyze power quality issues and propose effective solutions.
- Use engineering software for modeling and simulation of power systems.
- Integrate renewable energy sources into electrical networks.
- Work effectively in multidisciplinary engineering environments.
Curriculum Structure (Summary)
- Core Requirements: Mathematics, physics, electrical circuits, computer skills.
- Major Requirements: Power systems, electrical machines, transmission and distribution, protection systems, high voltage engineering.
- Applied Courses: Power electronics, power quality, renewable energy systems, control systems, simulation.
- Practical Training: Specialized laboratories in circuits, machines, and power systems.
- Graduation Project: Design or research-based project in electrical power engineering.
Career Opportunities
- Power generation, transmission, and distribution companies.
- Renewable energy projects (solar and wind).
- Industrial plants and electrical systems operation.
- Engineering consulting firms.
- Governmental energy institutions.
- Maintenance and operation companies.
- Research and development centers.
- Academic and training institutions.
1
Credit Hour
Bachelor Degree
Program Overview
The Integrated Renewable Energy Engineering program focuses on the study, design, and development of clean energy systems, including solar and wind energy, as well as energy storage technologies and their integration with conventional power grids. The program emphasizes sustainability, efficient resource utilization, and alignment with the global transition toward green energy. It combines solid engineering foundations with practical applications to prepare graduates capable of innovation in modern energy fields.
Key Learning Outcomes
By the end of the program, graduates will be able to:
- Demonstrate a solid understanding of renewable energy sources and technologies.
- Design and analyze solar and wind energy systems.
- Integrate renewable energy systems with conventional electrical grids.
- Evaluate and improve the performance and efficiency of energy systems.
- Utilize engineering software for modeling and simulation of energy systems.
- Manage and operate energy storage systems effectively.
- Apply sustainability principles and energy efficiency standards in engineering projects.
- Work effectively within multidisciplinary teams in energy-related fields.
Curriculum Structure (Summary)
The curriculum includes the following components:
- Core Requirements: Mathematics, physics, electrical circuits, and computer skills.
- Major Requirements: Solar energy systems, wind energy, power systems, energy storage, and energy efficiency.
- Applied Courses: Solar system design, wind power plants, power electronics, smart grids, and energy systems simulation.
- Practical Training: Laboratory work and field training in renewable energy applications.
- Graduation Project: A design-based or applied project in a renewable energy field.
Career Opportunities
Graduates can pursue careers in:
- Solar and wind energy companies and projects.
- Power generation and electricity distribution companies.
- Engineering consultancy firms in the energy sector.
- Governmental and regulatory energy institutions.
- Research and development centers in sustainable energy.
- Energy efficiency and auditing companies.
- Academic and technical training institutions.
1
Credit Hour
Bachelor Degree
Program Overview
The Mechatronics Engineering program integrates mechanical, electrical, electronic, and control engineering to design and develop intelligent systems. It focuses on industrial automation, robotics, embedded systems, and modern control technologies, preparing graduates to meet the demands of advanced industries and smart technologies.
Key Learning Outcomes
By the end of the program, graduates will be able to:
- Understand the integration of mechanical, electrical, and electronic systems.
- Design and analyze control and embedded systems.
- Develop and operate robotic and automation systems.
- Apply programmable logic controllers (PLC) in industrial applications.
- Use modeling and simulation tools for system analysis.
- Work with sensors and intelligent control systems.
- Diagnose faults and improve system performance.
- Collaborate effectively in multidisciplinary teams.
Curriculum Structure (Summary)
- Core Requirements: Mathematics, physics, electrical circuits, engineering mechanics, computer skills.
- Major Requirements: Control systems, embedded systems, robotics, electronics, mechatronic system design.
- Applied Courses: Industrial automation, PLC, sensors, AI in engineering, simulation.
- Practical Training: Laboratories in robotics, control, and embedded systems.
- Graduation Project: Applied or design-based project in mechatronics.
Career Opportunities
- Industrial automation and manufacturing sectors.
- Robotics and intelligent systems companies.
- Control systems and automation firms.
- Electronics and embedded systems industries.
- Research and development centers.
- Maintenance and industrial operation companies.
- Academic and technical training institutions.
1
Credit Hour
Master’s Degree
Program Overview
The Master of Electrical Power and Control Engineering program is designed to prepare highly qualified engineers with advanced knowledge and research skills in electrical power systems and modern control engineering. The program focuses on the analysis, operation, and development of electrical energy systems, as well as the design of intelligent control systems and their applications in industry and energy sectors. It aligns with recent technological advancements in smart grids, renewable energy, automation, and digital transformation, aiming to equip graduates with the ability to innovate and contribute to scientific research and vital industries.
Key Learning Outcomes
By the end of the program, graduates will be able to:
- Perform advanced analysis of electrical power systems and ensure efficient operation.
- Design and develop conventional and modern control systems.
- Utilize modeling and simulation tools for analyzing power and control systems.
- Apply smart grid concepts and integrate renewable energy into power systems.
- Evaluate system stability, diagnose faults, and improve system performance.
- Conduct scientific research and produce academic publications.
- Use advanced engineering software for analysis and design.
- Work effectively in multidisciplinary research and engineering teams.
Curriculum Structure (Summary)
- Core Requirements: Advanced power systems, engineering mathematics, and control systems.
- Major Requirements: Power system analysis, power system stability, advanced control systems, smart grids, renewable energy integration.
- Applied Courses: System modeling and simulation, advanced power electronics, intelligent control systems, engineering data analysis.
- Thesis: A research-based thesis addressing a scientific or applied problem in electrical power or control engineering.
Career Opportunities
- Power generation, transmission, and distribution companies.
- Smart grid and renewable energy projects.
- Industrial automation and control systems.
- Research and development centers.
- Engineering consultancy firms.
- Governmental and regulatory institutions.
- Universities and higher education institutions.
1
Credit Hour
Diploma
Program Overview
The Diploma in Energy Technology, Electrical Installations and Equipment is designed to prepare skilled technicians with practical and applied knowledge in electrical systems, energy technologies, and installation works. The program focuses on developing hands-on competencies in electrical wiring, installation, maintenance, and operation of electrical equipment, with an emphasis on safety standards and modern energy applications. It aims to meet the growing demand in the labor market for qualified technical personnel in electrical and energy-related fields.
Key Learning Outcomes
By the end of the program, graduates will be able to:
- Understand fundamental concepts of electrical circuits and energy systems.
- Perform electrical installations for residential, commercial, and industrial systems.
- Install, operate, and maintain electrical equipment and components.
- Apply electrical safety standards and occupational safety procedures.
- Diagnose and repair faults in electrical systems and equipment.
- Read and interpret electrical drawings and technical diagrams.
- Use basic electrical testing and measurement instruments.
- Work effectively in technical teams within energy and electrical sectors.
Curriculum Structure (Summary)
- Core Requirements: Basic electricity, mathematics, physics fundamentals, technical drawing, computer basics.
- Specialized Courses: Electrical installations, wiring systems, electrical machines, control basics, power systems fundamentals.
- Applied Training: Workshops and laboratories for installation, maintenance, and troubleshooting of electrical systems.
- Field Training: Practical training in companies and institutions related to electrical energy and installations.
- Graduation Requirement: Practical competency-based assessment or applied project in electrical installations.
Career Opportunities
- Electrical installation and maintenance companies.
- Construction and building services sectors.
- Industrial plants and maintenance departments.
- Energy and electrical service companies.
- Government and public utility sectors.
- Technical workshops and contracting companies.
- Renewable energy installation projects (basic level).
العربية 
English