Energetics and Power Engineering

Joint PhD studies with the Lithuanian Energy Institute.

The KTU Energetics and Power Engineering PhD programme is designed for young researchers who want to combine theory and practice to develop innovative and efficient technologies. Priority topics in this field of study include sustainable energy, thermal engineering of transfer processes and smart technologies for power systems. Doctoral students study and work with state-of-the-art research equipment and participate in interdisciplinary projects.

Relevance
The research carried out in KTU’s Energetics and Power Engineering PhD programme focuses on solving global challenges to ensure sustainable energy use and reduce environmental impact. In the area of sustainable energy, efficient energy generation solutions are developed that combine renewable and fossil energy sources. Research into the thermal engineering of transfer processes contributes to the development of advanced industrial technologies for greater efficiency. Modelling of intelligent energy systems enables the development of sustainable and secure energy supply systems. These studies contribute to the modernisation of the energy sector to meet the needs of society and industry.

about field of science

Cycle	Third cycle
Language	Lithuanian, English
Duration	4 y.
Degree awarded	Doctor of Science

Partners

Lithuanian Energy Institute

Contacts

Doctoral School
Student Info Center
Studentų st. 50
LT-51368, Kaunas
email phd@ktu.lt

Topic title	Possible scientific supervisors	Source of funding
Fundamental and applied research on transfer phenomena in thermal engineering	doc. dr. Linas Paukštaitis	state-funded
Hybrid Model–Data-Driven Methods for Reliable Monitoring and Control in Future Decentralized Power Grids	prof. dr. Saulius Gudžius	state-funded	Research Topic Summary. The research focuses on developing reliable state estimation and control algorithms for future low-inertia, highly distributed energy systems dominated by inverter-based and variable renewable generation. As these systems become more dynamic and increasingly dependent on cyber-physical communication networks, traditional monitoring and control methods lose effectiveness. The research will develop mathematical and hybrid (digital-twin- and data-driven) techniques that efficiently use limited measurement and communication resources, and will validate distributed control solutions under critical events and data uncertainties. The expected outcome is a set of robust methods that enable stable and secure operation of next-generation power systems under high variability and restricted communication conditions.
Analysis of determination methods of factors caused disturbances and faults in high voltage power grid	prof. dr. Audrius Jonaitis	state-funded

Topic title

Possible scientific supervisors

Source of funding

Fundamental and applied research on transfer phenomena in thermal engineering

doc. dr. Linas Paukštaitis

state-funded

Hybrid Model–Data-Driven Methods for Reliable Monitoring and Control in Future Decentralized Power Grids

prof. dr. Saulius Gudžius

state-funded

Analysis of determination methods of factors caused disturbances and faults in high voltage power grid

prof. dr. Audrius Jonaitis

state-funded