Uncertainty quantification in MD simulations of concentration driven ionic flow through a silica nanopore. I. Sensitivity to physical parameters of the pore

Keyphrases

• Uncertainty Quantification 100%
• Molecular Dynamics Simulation 100%
• Pore Diameter 100%
• Physical Parameters 100%
• Molecular Dynamics 100%
• Ionic Flux 100%
• Gate Charge 100%
• Ionic Flow 100%
• Silica Nanopores 100%
• System Dynamics 50%
• Silica Pore 50%
• Control Algorithm 50%
• Bayesian Inference 50%
• Pore Surface 50%
• Charge Density 50%
• Thermal Noise 50%
• Polynomial Chaos Expansion 50%
• Na + 50%
• Sodium 50%
• Forward Propagation 50%
• Chloride Ion 50%
• Size Effect 50%
• Counterflow 50%
• Parametric Uncertainty 50%
• Ion Mobility 50%
• Dynamic Prediction 50%
• Pore Model 50%
• Intrinsic Noise 50%
• Propagation Study 50%
• Concentration Control 50%

Engineering

• Uncertainty Quantification 100%
• Computer Simulation 100%
• Pore Diameter 100%
• Physical Parameter 100%
• Nanopore 100%
• Observables 50%
• Parametric Uncertainty 50%
• Control Algorithm 50%
• Size Effect 50%
• Thermal Noise 50%
• Charge Density 50%
• Counterflow 50%

Material Science

• Nanopore 100%
• Density 50%
• Indium Ion 50%