Fundamental Sciences for Energy
The mathematical, physical, chemical and computational foundations required to analyse complex energy problems with scientific rigour.
A selective English-taught Bachelor of Science at Aristotle University of Thessaloniki, designed for students who want to understand how clean-energy technologies are created, assessed and deployed. The programme connects chemistry, physics, materials science, data, engineering design and sustainability into one coherent academic pathway. It prepares students to approach renewable energy, storage, hydrogen, bioenergy and smart systems with scientific depth and technical confidence.
The programme introduces clean energy as an integrated field of science and engineering. Students progress from fundamental scientific principles to energy materials, conversion technologies, system-level design and evidence-based sustainability assessment.
The mathematical, physical, chemical and computational foundations required to analyse complex energy problems with scientific rigour.
The materials, electrochemical principles and molecular-level processes that underpin batteries, hydrogen systems, catalysis and energy conversion technologies.
The links between bioenergy, biomass utilisation, resource circularity and the environmental performance of energy systems in applied production contexts.
Renewable and low-carbon technologies — solar, wind, hydro, geothermal, marine energy, hydrogen, clean combustion and advanced conversion pathways — alongside nuclear, treated as a clean, very-low-emission source rather than a renewable one.
System modelling, plant design, smart grids, optimisation, energy finance and sustainability assessment for informed technical and strategic decisions.
The programme is organised as a coherent four-year academic pathway. The first three years establish the scientific, laboratory and engineering core through twenty-seven compulsory courses, while the final year allows students to select one specialisation direction and complete a Senior Project and a Capstone Project — 240 ECTS in total, delivered entirely in English.
Students select one of three specialisation directions and complete three compulsory direction courses, two electives and two supervised projects across the final two semesters.
The degree develops the scientific understanding, engineering judgement and analytical skills required for technical, research-oriented and sustainability-focused roles in a sector shaped by decarbonisation, electrification, energy storage, circularity and climate resilience.
Apply thermodynamics, transport phenomena, modelling and optimisation to evaluate and improve real energy processes, facilities and technologies.
Understand how energy materials, electrochemical devices, hydrogen systems and intelligent networks connect within the wider clean-energy value chain.
Use life-cycle, environmental, economic and data-driven methods to support credible, evidence-based decarbonisation decisions.