Teaching of the GRE@T-PIONEeR courses are fully online or hybrid
(i.e., combination of online and in-person). Specialised
facilities allow for both online and physical interactions, such
as the hybrid Active Learning Classrooms at Chalmers University
of Technology, Gothenburg, Sweden and at the Budapest University
of Technology and Economics, Budapest, Hungary.
For online learning, a Learning Management System (LMS) is used
by the teachers for course delivery and management, providing
24/7 access to all teaching resources.
The planned dates for the interactive sessions are listed
below.
The participants to the interactive sessions are expected to
complete some preparatory amounting to ca. 40 hours of
self-studying prior to the interactive sessions.
Online self-paced learning phase taking place between August 8th, 2025, and September 5th, 2025. Synchronous activities offered between September 8th, 2025, and September 12th, 2025 (those activities can be attended online or onsite at Chalmers University of Technology, Gothenburg, Sweden).
Online self-paced learning phase taking place between September 26th, 2025, and October 24th, 2025. Synchronous activities offered between October 27th, 2025, and October 31st, 2025 (those activities can be attended online or onsite at Chalmers University of Technology, Gothenburg, Sweden).
Online self-paced learning phase taking place between November 7th, 2025, and December 5th, 2025. Synchronous activities offered between December 8th, 2025, and December 12th, 2025 (those activities can be attended online or onsite at Chalmers University of Technology, Gothenburg, Sweden).
Online self-paced learning phase taking place between December 12, 2025, and January 9th, 2026. Synchronous activities offered between January 12th, 2026, and January 16th, 2026 (those activities can be attended online or onsite at Chalmers University of Technology, Gothenburg, Sweden).
Online self-paced learning phase taking place between January 23rd, 2026, and February 20th, 2026. Synchronous activities offered between February 23rd, 2026, and February 27th, 2026 (those activities can be attended online or onsite at Chalmers University of Technology, Gothenburg, Sweden).
Online self-paced learning - DATES TO BE ANNOUNCED LATER. Synchronous activities - DATES TO BE ANNOUNCED LATER- (those activities can be attended online or onsite at Budapest University of Technology and Economics, Budapest, Hungary).
INFORMATION TO BE ANNOUNCED LATER.
INFORMATION TO BE ANNOUNCED LATER.
· The generation and evaluation of nuclear data
libraries.
· The processing of nuclear data libraries for use
in energy and non-energy applications.
· The assessment of nuclear data uncertainties.
EXAMPLES OF COURSE VIDEOS
· The principles of probabilistic methods in
steady-state conditions for fuel cell and assembly
calculations.
· The principles of deterministic methods in
steady-state conditions, their approximations, and
their range of validity for fuel cell and assembly
calculations.
· The use of those methods for macroscopic
cross-section generation.
· The principles of probabilistic methods in
steady-state conditions for core calculations.
· The principles of deterministic methods in
steady-state conditions, their approximations, and
their range of validity for core calculations.
· The use of those methods for reference
calculations or for core design, operation and
safety analysis.
EXAMPLES OF COURSE VIDEOS
· The principles of deterministic methods in
non-steady-state conditions, their approximations,
and their range of validity for core calculations.
· The principles of macroscopic modelling of nuclear
thermal-hydraulics and fuel thermo-mechanics.
· The numerical techniques used for multi-physics
coupling.
· The principles of nuclear reactor safety and
system behaviour.
· The principles of uncertainty and sensitivity
analysis applied to reactor transients.
EXAMPLES OF COURSE VIDEOS
· The principles of health physics and radiation
protection regulation.
· The instrumentation for radiation protection in
nuclear installations.
· The shielding calculation methods (both
deterministic and probabilistic methods), neutron
and gamma transport, and deep penetration problems.
· Hands-on exercises on the
AKR-2 training reactor
· Hands-on exercises on the
BME training reactor