Kharkiv National University

What you'll study

The programme blends taught modules and a substantial research project to provide both theoretical foundations and hands‑on laboratory experience. Core topics typically include advanced electromagnetic theory, quantum and solid‑state physics, semiconductor and nanoscale materials, and classical and quantum optics. Applied modules commonly cover microwave and antenna engineering, nanophotonics, plasmonics, nanofabrication techniques (lithography, thin‑film deposition), and spectroscopic methods for characterising nanostructures.

• Fundamental theory: advanced electrodynamics, quantum mechanics for condensed matter, transport phenomena in low‑dimensional systems.
• Device and systems: microwave and millimetre‑wave systems, antenna design, photonic components and integrated optical circuits.
• Nanoscience and fabrication: nanomaterials, thin films, scanning probe and electron microscopy, cleanroom processes and device packaging.
• Measurement and modelling: optical and electronic spectroscopy, noise measurement techniques, numerical methods (FEM, FDTD) and simulation tools.
• Research project/dissertation: an original research project carried out in university laboratories or collaborating institutes, culminating in a written thesis and oral defence.
• Optional modules and seminars: current topics in nanotechnology, entrepreneurship in high‑tech sectors, and advanced laboratory rotations.

Entry requirements

Applicants are normally expected to hold a relevant bachelor’s degree in physics, radiophysics, electrical engineering, materials science or a closely related subject from a recognised higher education institution. Selection typically considers academic transcripts, a statement of purpose outlining research interests, and at least one academic reference.

Depending on the applicant's background, the admissions panel may require evidence of competence in core subject areas (for example, electromagnetism and solid‑state physics) and may recommend or require preparatory coursework. Proficiency in the language of instruction is required; international applicants should provide recognised language certificates or demonstrate equivalent ability. Shortlisted candidates may be invited to an interview or to take an entrance test in relevant subjects.

Career prospects

Graduates from this programme go on to careers across research, industry and academia. Typical roles include research scientist or engineer in photonics, microwave and RF engineering, semiconductor and nanofabrication facilities, and instrumentation companies. Other common pathways are positions in telecommunications, sensor and medical‑device development, materials characterisation and quality control, and technical consulting.

The degree also provides a strong foundation for doctoral study (PhD) in radiophysics, nanotechnology, materials science or related fields, and for roles in innovation management or technology transfer where a deep technical background is required.

Why study at Kharkiv National University

Kharkiv National University (Karazin University) has a long tradition in physics and radiophysics teaching and research, with established departments and research laboratories focused on electromagnetic theory, solid‑state physics and nanostructured materials. Students benefit from access to specialised laboratory equipment, cleanroom facilities through institutional collaborations, and supervision by faculty active in both fundamental and applied research.

The university’s location in a major scientific and industrial hub provides strong links with local research institutes and high‑technology companies, offering opportunities for collaborative projects and industrial placements. The programme’s combination of theoretical rigour and experimental training prepares graduates for technical roles in industry and for further research careers.