1. Numerical approaches
a)Computational Fluid Dynamics (CFD)
i. Radiation hydrodynamics
ii. Magnetohydrodynamics (MHD)
iii. Smoothed Particle Hydrodynamics (SPH)
b) Kinetic models
i. Particle in cell
ii. Delta-f
iii. Vlasov and Fokker Planck
iv. Gyrokinetic
c) Transport
i. Deterministic
ii. Monte-carlo
2. Applications
a) Fundamental plasma physics
b) MCF
i. MHD Stability
ii. Gyrokinetics and transport
iii. Edge turbulence
iv. Plasma-neutral interactions
v. Fast particle physics
vi. Advanced geometries
c) Laser plasma
i. High Energy Density Physics
ii. ICF
iii. QED-plasmas
iv. Laboratory-astrophysics
v. Electron acceleration
vi. Ion acceleration
d) Low temperature plasmas and electrostatics
3. Scientific software development
a) Modern, sustainable, software development
b) Parallelism and scalability, including heterogeneous parallelism
c) Many-core and GPU programming
d) Optimisation and vectorisation
e) Languages
f) Data handling and IO
4. Beyond the laboratory
5. Other
