Shale gas, although unconventional, is a prospective clean energy source. Shale gas
production is a complex multi-scale process with its spatial size ranging from the nanoscale …

Shale gas is a promising alternative energy due to the advantages of large reserves and
high energy efficiency. The amount of adsorbed gas in shale nanopores is a significant …

As the typical unconventional reservoir, shale gas is believed to be the most promising
alternative for the conventional resources in future energy patterns, attracting more and …

Understanding the shale gas adsorption behavior within organic nanopores is crucial for its
development. The pore surfaces commonly exhibit random inherent roughness, which can …

Quantitative characterization of shale gas flow in fractured shale is a key problem in shale
gas extraction. In this study, 3D multi-scale structures in fractured shale were reconstructed …

Understanding and controlling the gas flow at the nanoscale has tremendous implications in
the fields of separation science, catalytic reactions, and energy storage, conversion and …

A better understanding on the multiscale transport of shale gas will further the advancement
of shale gas extraction. Traditional lattice Boltzmann method (LBM) simulations usually …

The pore structure of shale oil reservoirs is complex, and the microscale and nanoscale
effect is obvious in the development of shale oil reservoirs. Understanding the oil flow …

Conventional flow models based on Darcy's flow physics fail to model shale gas production
data accurately. The failure to match field data and laboratory-scale evidence of non-Darcy …

Shale gas is becoming an increasingly promising alternative energy resource because of its
high efficiency and environment-friendly characteristic. The amount of adsorbed gas on the …