Molecular Insights into Hybrid CH<sub>4</sub> Physisorption-Hydrate Formation in Spiral Halloysite Nanotubes: Implications for Energy Storage

Molecular Insights into Hybrid CH<sub>4</sub> Physisorption-Hydrate Formation in Spiral Halloysite Nanotubes: Implications for Energy Storage

A microscopic insight into hybrid CH<sub>4</sub> physisorption-hydrate formation in halloysite nanotubes (HNTs) is vital for understanding the solidification storage of natural gas in the HNTs and developing energy storage technology. Herein, large-scale microsecond classical molecular d...

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Bibliographic Details
Main Author: Fengyi Mi (12244409) (author)
Other Authors: Zhongjin He (1879960) (author), Jiangtao Pang (8742180) (author), Othonas A. Moultos (7306286) (author), Thijs J. H. Vlugt (7306289) (author), Fulong Ning (4520674) (author)
Published: 2024
Subjects:
Cell Biology
Physiology
Pharmacology
Ecology
Space Science
Biological Sciences not elsewhere classified
Chemical Sciences not elsewhere classified
whereas excessively high
simulation results indicate
4 </ sub
2 </ sub
strongly adsorbs h
spiral halloysite nanotubes
solidification storage technology
hydration hybrid method
hydrate formation inside
storage via physisorption
halloysite nanotubes
hydration hybrid
solidification storage
storage via
hydrate formation
form inside
hybrid ch
energy storage
tightly trapped
surface properties
profoundly influenced
outer surfaces
outer surface
natural gas
molecules inside
microscopic insight
kinetic characteristics
kinetic behavior
inner surface
hydrate solids
form nanobubbles
excellent nanomaterials
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