Although gas hydrates have not yet been produced commercially, several lab and hlfield-
scale trials have demonstrated the feasibility of producing gas from subsurface gas hydrate …

Research data and visual evidence to understand the interaction between hydrate
dissociation and micro-seepage in sediment are currently lacking. In this study, X-ray …

Addressing the escalating impacts of climate change, this study explores the potential of CO
2 storage in submarine sediments, presenting a promising strategy for sustainable global …

Natural gas hydrates are abundantly detected in the clayey-silty deposits of the South China
Sea (SCS). The long-term hydrate extraction process may trigger creep deformation and …

The safe and efficient production of methane hydrate (MH) has attracted much attention, and
the engineering geological risks in MH production are highly valued. Safety evaluation of the …

An accurate description of the reservoir characteristics is essential to the precise prediction
of gas production from nature gas hydrate (NGH) deposits. In most numerical studies related …

Multi-phase (gas, saturated water, and unsaturated water) seepage is bound to exist in
natural gas hydrates (NGHs) production process. The effect of water flow, especially for …

CO 2 capture and storage technology have the potential to help reach net zero emissions.
CO 2-enhanced oil recovery (CO 2 EOR) is a favourable method. Limited pilot testing has …

Natural gas hydrate is a new energy source with huge reserves, and the carbon content of
hydrates is twice the carbon content of all proven fossil fuels combined, but the natural gas …

Macroscopic geomechanical properties of methane hydrate-bearing sands (MHBSs) have
attracted much scholarly attention. But the associated particle-level mechanisms often rely …