Doctoral studies / Doctoral programmes / Power electrical engineering

Power electrical engineering

Graduate profile

A PhD graduate in Power Electrical Engineering is a highly qualified expert and researcher with advanced knowledge reflecting current and emerging trends in power engineering, power electronics, electric drives, and energy systems, including applications in automotive technologies and electromobility. Graduates possess a strong and systematic understanding of electrical power systems, combined with advanced expertise in control systems, including the design, implementation, and optimization of modern control algorithms. The programme equips graduates with broad and interdisciplinary knowledge that supports research in both traditional power engineering domains - such as analysis and operation of energy systems, power semiconductor devices, and power electronic converters - and key cross-cutting areas including electromagnetic compatibility, thermal management, and energy storage systems. This interdisciplinary perspective enables graduates to address complex challenges arising from the integration of renewable energy sources, electrified transport, and intelligent power infrastructures. Doctoral graduates master scientific methods of basic and applied research, demonstrating strong abilities in critical analysis, abstraction, and the synthesis of new and complex concepts. Through independent and original research conducted with high scientific integrity, they contribute to the advancement of knowledge in power electrical engineering, with results suitable for publication in international peer-reviewed journals and conferences. Graduates are capable of solving complex research and engineering problems in energy, transport, and industrial applications, making effective use of advanced computational tools and scientific literature. They are well prepared for research leadership roles, able to define research objectives, coordinate multidisciplinary teams, and communicate and defend their results at international scientific and professional forums. Independent, analytical, and ethical thinking is a defining characteristic of their professional profile.

 

Employment profile

Graduates find employment in research institutions, universities, and high-technology industries focused on power electronics, energy systems, electric drives, and electromobility. Typical roles include power systems researcher, power electronics and drives engineer, energy systems specialist, electromobility technology developer, or R&D project leader. Graduates are highly sought-after specialists capable of contributing to sustainable energy solutions and technological innovation, fully aligned with the doctoral (EQF Level 8) profile in power electrical engineering.

KNOWLEDGE

  • Advanced power engineering and electrical energy systems
  • Power electronics, power semiconductor devices, and converters
  • Electric drives and electromobility technologies
  • Control systems and advanced control algorithm design
  • Energy systems analysis and operation
  • Electromagnetic compatibility and thermal management
  • Energy storage systems and their integration
  • Interdisciplinary aspects of modern power systems
  • Current research trends and international standards

SKILL

  • Analysis, modelling, and optimization of power and energy systems
  • Design and implementation of power electronic and drive systems
  • Development and tuning of control algorithms
  • Solving complex engineering and research problems in energy and transport
  • Application of advanced computational tools and simulation software
  • Critical evaluation of scientific literature and research data
  • Design and execution of basic and applied research
  • Preparation of high-quality scientific publications and technical reports

COMPETENCY

  • Independent and critical scientific thinking
  • Ability to synthesize new concepts and innovative solutions
  • Research leadership and project coordination
  • Effective communication and presentation of research results
  • Teamwork in multidisciplinary and international environments
  • Ethical, responsible, and socially aware engineering practice
  • Lifelong learning and adaptation to emerging technologies

Open PhD. positions

Optimalizácia prevádzky ES SR s využitím malých modulárnych
reaktorov z hľadiska ich umiestnenia a veľkosti inštalovaného
výkonu
Marek Höger

Adaptívne prediktívne riadenie vnútorného prostredia budov
na báze strojového učenia a experimentálnej validácie
v inteligentnej budove
Marek Roch

Analýza využitia spolupráce meničov distribuovanej výroby pri riešení
porúch v distribučnej sústave
Marek Roch

DC/DC redundantný napájací zdroj pre autonómne robotické systémy
Michal Frivaldský

Výskum paralelnej spolupráce modulárnych rezonančných meničov
Michal Frivaldský

3-fázový obojsmerný izolovaný PFC menič
Michal Praženica

3-fázový PFC injektor s využitím moderných WBG polovodičov
Michal Praženica

Online monitorovanie a diagnostika porúch v elektrických pohonoch
Pavol Makyš

Návrh vysoko účinnostného elektrického motora s permanentnými
magnetmi pre nízko výkonové aplikácie
Pavol Rafajdus

Nelineárny dynamický model trakčnej batérie elektromobilu
Pavol Špánik

Vývoj algoritmov pre optimalizáciu výkonovej bilancie skupiny prosumerov
s ohľadom na cenu elektriny na dennom a vnútrodennom trhu s elektrinou
 Peter Braciník

Optimalizácia asset managementu prvkov prenosovej sústavy využitím
metód umelej inteligencie
Peter Braciník

Doctoral study plan

Supervisors

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Pavol Belány

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Peter Braciník

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Michal Frivaldský

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Miroslav Gutten

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Marek Höger

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Daniel Korenčiak

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Pavol Makyš

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Alena Otčenášová

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Michal Praženica

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Pavol Rafajdus

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Marek Roch

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Pavol Špánik