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 …

In fusion reactor, tungsten (W) has been selected as a candidate for plasma-facing materials
due to its excellent properties. However, W-PFMs suffer from helium (He) bubbles where He …

Tungsten (W) and W-based alloys are the leading candidates for plasma-facing materials
(PFMs) in future fusion reactors. However, the high energy neutrons generated in fusion …

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

We report a systematic computational analysis of the mechanical behavior of plasma-facing
component (PFC) tungsten focusing on the impact of void and helium (He) bubble defects …

Tungsten (W) was considered as one important candidate for the magnetically constrained
plasma first wall materials. The H impurities have a strong influence on the mechanical and …

We have performed systematic first-principles calculations to predict the interaction between
transition metal (TM) solutes and hydrogen in the interstitial site as well as the vacancy in …

Under the continuous irradiation of high‐density and high‐energy photons from the plasma
core of a fusion reactor, the plasma‐facing materials (PFMs) of tungsten (W) are in …

Tungsten (W) and W alloys are regarded as the most promising candidates for plasma
facing materials (PFMs), which will be widely used in the next generation of fusion reactors …

Tungsten is a promising plasma facing material for fusion reactors. Despite many favorable
properties, helium ions incoming from the plasma are known to dramatically affect the …