Molecular Dynamics of Hydrocarbon-Water Transport in Illite Nanopores

Equilibrium and nonequilibrium molecular dynamics simulations investigate hydrocarbon-water mixtures in slit-shaped illite nanopores. The dataset likely contains results from two pore models with different surface chemistries, analyzing phenomena like water adsorption and bridge formation influenced by long-range electric fields. Velocity profiles from NEMD simulations demonstrate the impact of water bridges on transport.

Use Cases

• Modeling hydrocarbon transport in clay-rich geological formations based on pore surface chemistry.
• Analyzing the effect of long-range electrostatic forces on water structure and flow in nanopores.
• Simulating velocity profiles for nanofluidic systems with charged surfaces.
• Studying water adsorption and bridge formation mechanisms in mineral nanopores.

Strengths

• Dataset is derived from controlled molecular dynamics simulations of two distinct illite pore models.
• Published under an Open Access (green) license, facilitating reuse.
• Cross-platform presence on PapersWithCode suggests recognized research importance.

Limitations

• Key metadata like row count, column names, and file size are unknown across all sources.
• No explicit last updated date is provided, limiting assessment of freshness.
• The specific data format and structure are not described.

Provenance

Source

Hao Xiong, University of Oklahoma

Collection Method

Generated via equilibrium and nonequilibrium molecular dynamics (MD/NEMD) simulations.