What we provide
You'll gain both the advanced theoretical knowledge and the hands-on technical skills needed to design, operate, and manage nuclear facilities — always with safety, reliability, and international standards at the core.
Through a curriculum built for real-world impact, you'll learn to:
- Simulate and analyse nuclear power plant operations using cutting-edge software tools;
- Design, build, and commission nuclear power plants, from blueprint to start-up and beyond;
- Perform critical safety calculations, including nuclear and radiation safety assessments and probabilistic safety analysis;
- Evaluate process flow diagrams and pipeline systems for nuclear power plants;
- Navigate regulatory frameworks, applying industrial, radiation, and fire safety standards to nuclear facility design.
Why you should apply
Nuclear energy is one of the most demanding — and most rewarding — fields in engineering. The world needs specialists who can push technology forward while never compromising on safety. This programme gives you exactly that: the expertise to solve complex engineering challenges, the confidence to work at the highest safety standards, and the credentials to build a career across research, design, operation, and regulation.
Graduate ready to work in nuclear power plants, research institutes, design bureaus, and regulatory bodies — anywhere the future of energy is being built.
Where our graduates work
- Akkuyu Nuclear Power Plant, Turkey
- Electricity Generation Company EÜAŞ, Turkey
FORMAT
- Language of instruction - English
- Duration — 2 academic years / 120 ECTS
- Degree awarded - Master's degree
- Study mode - full-time
TUITION FEE
International students 506 000 rubles per academic year
*2025-2026 academic year
- Bachelor's or Specialist's degree in a relevant area
- English language proficiency - B+ (CEFR B2)
- Test in a relevant field of studies/ Test requirements
- Online interview in English with the program coordinator
Russian Federation Quota apply by December 1, 2026
Open Doors: Russian Scholarship Project apply by December 10, 2026
August 01, 2026 – for applicants from countries with visa regime
September 10, 2026 – for applicants from visa-free countries
Application period starts on February 01, 2026.
Academic year 2024-2025 starts September 01, 2026
ADMISSION SUPPORT
- interstudy@spbstu.ru
- interadmission@spbstu.ru
- admissioninfo@spbstu.ru
8 (800) 101-18-99
195220 Russia, St. Petersburg, 28 Grazhdansky Ave., room 228
CURRICULUM
1 Semester
2 Semester
- Mathematical Physics
- Digital Resources of Scientific Research
- Numerical Methods in Heat and Mass Transfer
- Nuclear Knowledge Management
- Advanced Nuclear Reactors
- Physics of Nuclear Reactors
- Thermohydraulics of Nuclear Reactors
- Steam and Gas Turbines )
- Internship (Obtaining Primary Skills in Software Operation Related to Professional Activities)
- English for Professional Activities
- Basics of Scientific Research
- Reactor Control and Protection Systems
- Kinetics of Nuclear Reactors
- Economics of Nuclear Power Engineering
- NPP Pumps
- Nuclear Power Plants
- Thermo-Hydraulics of Nuclear Reactors
- Modelling of Vaporization Processes (
- Scientific and Research Work
- Internship (Obtaining Primary Skills in Software Operation Related to Professional Activities)
3 Semester
4 Semester
- Safety of Nuclear Sites
- Operation of NPP
- Modelling of NPP Heat Balances
- Project Management / Scientific Research Management
- MOOC (Massive Open Online Course)
- Scientific and Research Work (Learning Primary Skills of Scientific and Research Work, Educational Internship)
- Technological (Design and Technological) Internship (NPP Engineering)
- Preparation and Defense of the Master’s Thesis
- Preparation and Pass of the State Exam
- Pre-graduation Internship
- Technological (Design and Technological) Internship
MASTER THESIS TOPCS
Analysis of reactivity change due to burn up in VVER1000 reactor using program WIMS
Analysis of the steady-state thermal-mechanical behavior of oxide fuel rods for high burnup in VVER 1000 reactor using FRAPCON
Analysis of using thermal non-destructive evaluation method for diagnosing Nuclear Power Plant pipeline wall thinning
Application of gene expression programming and single-heated channel approach in developing a correlation for coolant temperature of VVER 1000 reactor in steady-state
Comprehensive analysis of VVER 1000 spray system performance for postulated severe accidents using CONTAIN code
Developing a multiphysics solver of LOFA accident for VVER1000 reactor using numerical methods
Developing a set of steady-state correlations for maximum fuel temperature in VVER 1000 reactor using gene expression programming and COBRA
Сomparative analysis of regulation documents in the field of arrangement and operation of localizing safety systems for Nuclear Power Plants
Сomparative analysis of regulation documents in the field of Nuclear Power Plant safety assurance
PROGRAM COORDINATORS


