The program integrates advanced engineering principles, thermodynamics, fluid mechanics, electrical power systems, renewable energy, and energy efficiency studies. Key components typically include:

• Advanced coursework in energy systems, power generation, thermofluid dynamics, and electrical and mechanical aspects of energy engineering

• Applied research projects in collaboration with industry or energy enterprises

• Modeling, simulation, and optimization of thermal, electrical, and hybrid energy systems

• Participation in research seminars, workshops, and professional conferences

• Completion of a professional-oriented dissertation or capstone project addressing practical energy engineering challenges

Common research areas include:

• Thermal power plants and energy conversion systems

• Renewable and sustainable energy technologies (solar, wind, hydro, biomass)

• Smart grids, power distribution, and energy management systems

• Energy efficiency and environmental impact mitigation

• Electrical and mechanical system integration for power engineering

• Advanced materials and technologies for energy applications

  NOTE: The university may have additional program-specific eligibility requirements.
  It is recommended to verify these on the official university website.