DISCOVER OUR TRAINING AND EDUCATIONAL MATERIAL
Learn with GO-VIKING
To reach a widespread application of the research results, GO-VIKING gradually releases
educational material and trainings for young scientists, master and PhD students on
Fluid-Structure Interaction related to nuclear applications, based on the contents
provided by the project's experts.
Discover our latest education materials here below!
GO-VIKING Open Lecture on Flow-Induced Vibration: The Numerical Approach

Watch the "GO-VIKING Open Lecture on Flow-Induced Vibration: The Numerical Approach" to delve into the critical role of flow-induced vibrations across multiple engineering fields. Presented by Alexander van Zuijlen, this lecture explores the intricate interactions between fluid flows and deformable structures through a detailed numerical lens. Learn about the three-field approach, which intricately links the dynamics of flow, structure, and mesh movement, and discover the impacts of various coupling methods on system behaviour. This session is essential for anyone interested in the advanced numerical modeling techniques that define fluid-structure interactions in real-world applications
GO-VIKING Open Lecture on Flow-Induced Vibration: The Experimental Approach

Flow-induced vibration (FIV) is a critical challenge in engineering, affecting
piping
systems,
valves, and nuclear fuel bundles. This lecture will focus on the experimental
investigation of
FIV in tube arrays, commonly found in heat exchangers and steam generators, and the
complex
vibratory behaviors they experience under cross-flow conditions. Key experimental
methods used
to study FIV, including liquid, gas, and two-phase flow investigations, will be
discussed. In
this lecture, by Prof. Marwan Hassan (University of Guelph) will also cover the
impact
of
various parameters on vibration response, such as Reynolds number, tube spacing, and
damping
characteristics.
Flow-Induced Vibrations in Nuclear Power Plants: A Literature Review.

Discover key insights in our document, "Flow-Induced Vibrations in Nuclear Power Plants: A Literature Review." This report addresses the significant impact of Flow-Induced Vibrations (FIV) on the operational safety and efficiency of nuclear power plants. As the global demand for low-carbon energy sources increases, understanding and mitigating FIV is crucial. Our review highlights the mechanisms of FIV, the associated risks, and the latest technological advancements to ensure continuous and safe nuclear power operations. Essential reading for industry professionals and researchers focused on enhancing nuclear energy reliability.
Introduction to Fluid‑Structure Interaction (FSI) / Flow‑Induced
Tutorial: Fluid-Structure Interaction Simulation of a Cantilever Rod in STAR-CCM+

This tutorial, developed as part of the GO-VIKING project, provides a step-by-step
guide
to
performing a fluid-structure interaction (FSI) simulation of a cantilever rod using
Simcenter
STAR-CCM+ (V2306). This resource is provided for educational purposes and was
prepared
by
Mohammed Muaaz M.D. Hussain (NRG PALLAS, Petten, The Netherlands), with project
management by
Kevin Zwijsen.
It is available for use in training and educational courses, with credit attributed
to
the
authors and GO-VIKING.
Demonstration video: in-plane fluid elastic instability in a full-scale steam generator mock-up with nonlinear supports

This video, provided courtesy of Canadian Nuclear Laboratories (CNL), delves into the phenomenon of in-plane fluid elastic instability in a full-scale steam generator mock-up with nonlinear supports. Designed for educational purposes, this demonstration video serves as a valuable visual resource for understanding complex fluid-structure interactions in nuclear applications.