Boundary element fast multipole method for modeling electrical brain stimulation with voltage and current electrodes

Keyphrases

• Finite Element Method 100%
• Electrical Brain Stimulation 100%
• Current Electrode 100%
• Fast multipole Boundary Element Method 100%
• Integral Equations 66%
• Human Head Model 66%
• Computational Cost 33%
• Electric Field (E-field) 33%
• Modeling Techniques 33%
• Submillimeter 33%
• Fast Speed 33%
• Analytical Solution 33%
• Activation Function 33%
• Surface Charge Density 33%
• Dipole 33%
• Surface Electrodes 33%
• Relative Difference 33%
• Boundary Element Method 33%
• Conservation Laws 33%
• Practical Electrodes 33%
• Fine Resolution 33%
• Floating Electrode 33%
• Reciprocity Principle 33%
• Shunt Current 33%
• Electrode Model 33%
• Fast multipole Method 33%
• Embedded Electrodes 33%
• Global Conservation 33%
• High-resolution Modeling 33%
• Modeling pipeline 33%
• Volumetric Meshes 33%
• Kirchhoff's Current Law 33%
• Charge Conservation Law 33%
• Higher Order Spatial Derivative 33%
• EEG Forward Problem 33%
• Helmholtz Reciprocity 33%

Engineering

• Fast Multipole Method 100%
• Finite Element Analysis 75%
• Conservation Law 50%
• Surface Charge Density 25%
• Mesoscale 25%
• Kirchhoff 25%
• Helmholtz's Law 25%
• Current Law 25%
• Reciprocity Principle 25%
• Relative Difference 25%
• Fine Resolution 25%
• High Resolution 25%
• Computational Cost 25%
• Main Result 25%
• Boundary Element Method 25%
• Electric Field 25%