Lead Institutions: University of York ~ Universidad Politécnica de Madrid ~ Hellenic Mediterranean University
Focus Areas
- Multi‑physics radiation‑hydrodynamics.
- Particle‑in‑cell & hybrid‑PIC modelling of fast ignition.
- Materials response under extreme conditions.
Objectives & Activities
- 5‑day Bootcamp at University of Yok, in York, UK, indicative Jan 2027.
- 5‑day Bootcamp at UPM, in Madrid, Spain, indicative Apr 2027.
- 10‑day Intensive Program at HMU, in Rethymno, Greece, indicative Jul 2027.
- Educational material development
Importance
Modern research in Inertial Fusion Energy (IFE) relies not only on high-power lasers and advanced diagnostics, but also on powerful computational simulations. These tools allow scientists to design, test and optimize fusion targets, laser configurations, and materials—long before any experiment is carried out.
As fusion systems grow more complex, simulation becomes essential for understanding the extreme conditions inside the target (pressures of millions of atmospheres, temperatures of millions of degrees), predicting plasma behavior, and developing materials that can withstand these conditions over time.
Yet, this field demands a unique blend of skills: physics, numerical methods, high-performance computing, and materials science. To meet this need, this section of the project focuses on building strong educational foundations simulation techniques specific to laser-driven fusion.
Objectives to learn:
- How to model laser–plasma interactions and hydrodynamic implosions
- How to simulate energy transport, shock wave propagation, and fusion burn
- How to use and interpret results from state-of-the-art simulation codes
- How to model materials under extreme radiation and temperature
By training students and young researchers in these areas, WP4 of the LaserFusion project prepare the next generation of scientists and engineers who will drive the development of sustainable fusion energy in Europe and beyond.