Both microvoids and helium (He) impurities are widely present in tungsten (W) plasma-
facing materials (PFMs), where the interaction between microvoids and He atoms has led to …

The mechanical behavior of tungsten under tensile deformation was investigated using
molecular dynamics simulations, with a focus on the effects of temperature, pressure, crystal …

Based on simulation results and theoretical analysis according to an atomistically informed
continuum-scale model for the surface morphological response of tungsten plasma-facing …

Based on a continuous-domain model, capable of accessing the spatiotemporal scales
relevant to fuzz formation on the surface of plasma-facing component (PFC) tungsten, we …

Tungsten (W) has been widely studied and spotlighted as a plasma-facing material (PFM) in
the extreme environment of nuclear fusion due to its excellent physical properties. It is …

This research investigates the interaction between high-speed tungsten (W) dust and
plasma-facing components (PFCs) in fusion reactors, particularly focusing on W walls …

Tungsten has been considered as the most qualified candidate for the plasma-facing
material of modern fusion devices up to date. However, in the future tokamaks such as ITER …

Tungsten (W) is regarded as the most promising candidates for plasma-facing materials
(PFMs) in future fusion reactors. However, W will be exposed to high fluxes of helium (He) …

Tungsten and tungsten-based alloys are the leading material choices for the divertor plasma
facing components (PFCs) in future fusion reactors. Recrystallization may occur when they …

Developing high performance plasma facing materials (PFMs) is one of the greatest
challenges for fusion reactors, because PFMs face unprecedented harsh environments …