The curriculum typically combines advanced coursework with independent research and includes:

• Advanced studies in thermodynamics, fluid mechanics, heat and mass transfer, energy conversion, and power system engineering

• Modeling, simulation, and optimization of thermal and energy systems using computational tools

• Research in renewable energy, energy efficiency, combustion, and environmental thermophysics

• Participation in seminars, workshops, and scientific conferences

• Completion of a doctoral dissertation presenting original research findings in power engineering or thermophysics

Common research areas include:

• Thermal power generation and plant optimization

• Renewable energy systems (solar, wind, geothermal, biomass)

• Combustion science and clean energy technologies

• Energy efficiency and energy management

• Thermofluid dynamics and heat exchangers

• Environmental impact of energy systems

• Cryogenics, refrigeration, and advanced thermal systems

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