Hydrogen is considered a clean and efficient energy carrier crucial for sha** the net-zero
future. Large-scale production, transportation, storage, and use of green hydrogen are …

Blending hydrogen into high-strength pipeline steels for high-pressure transmission may
cause materials' hydrogen embrittlement (HE) failure. Although the hydrogen-induced failure …

The antagonism between strength and resistance to hydrogen embrittlement in metallic
materials is an intrinsic obstacle to the design of lightweight yet reliable structural …

To support our increasing energy demand, steel pipelines are deployed in transporting oil
and natural gas resources for long distances. However, numerous steel structures …

Hydrogen is well known to embrittle high-strength steels and impair their corrosion
resistance. One of the most attractive methods to mitigate hydrogen embrittlement employs …

Hydrogen embrittlement is a complex phenomenon, involving several length-and
timescales, that affects a large class of metals. It can significantly reduce the ductility and …

The development of reliable and longevous infrastructures and structural components is the
key for the implementation of a hydrogen economy that is currently enjoying unprecedented …

To couple strengthening with hydrogen-insensitive design in steels, many research employ
nanosized carbides to trap hydrogen atoms from diffusion. Herein, by using the pearlite steel …

The design of atomic-scale microstructural traps to limit the diffusion of hydrogen is one key
strategy in the development of hydrogen-embrittlement–resistant materials. In the case of …

This paper gives an overview of recent progress in microstructure-specific hydrogen
map** techniques. The challenging nature of map** hydrogen with high spatial …