Abstract Methane (CH4) is inexpensive, high in heating value, relatively low in carbon
footprint compared to coal, and thus a promising energy resource. However, the locations of …

A review of hydrogen production technologies using plasma was presented especially with
a view point of reaction mechanism. In the hydrogen production process to which plasma is …

In this paper, a multi-layer feed-forward deep neural network was introduced into the
plasma/plasma catalysis kinetics modeling. The deep learning-assisted modeling enables …

In this paper, in order to improve hydrogen production, the effect of dissolved oxygen (DO)
on methane (CH 4) reforming was studied by liquid phase microwave discharge firstly. DO …

In recent years, enormous efforts have been devoted to alleviating global energy demand
and the climate crisis. This has instigated the search for alternative energy sources with a …

Hydrogenation, an alternative to conventional cracking, is poised to revolutionize heavy oil
upgrading by raising the hydrogen-to-carbon ratio at lower process pressures and …

Hydrogenation is an essential step for heavy oil upgrading by raising the H/C ratio but
commonly requires high H 2 pressure and high temperature. Non-thermal plasma provides …

With the increase in the greenhouse effect and reduction of fossil fuel resources, it is urgent
to find a feasible solution to directly convert power to chemicals using renewable energy and …

Plasma hydrogenation technology represents a sustainable and environment-friendly
solution to upgrade heavy oil, but the underlying mechanisms of plasma hydrogenation for …

Plasma-catalytic CH 4 dry reforming is an emerging technology that takes advantage of
plasma-catalysis interactions to implement the conversion of CH 4 and CO 2 into syngas …