Air Gap Fields in Electrical Machines: Harmonics and Modeling of Movement

Keyphrases

• Electrical Machines 100%
• Air-gap Field 100%
• Dirichlet-to-Neumann Map 100%
• Analytical Method 50%
• Air Gap 50%
• Rotating Electrical Machines 50%
• Electromechanical Devices 50%
• Boundary Value Problem 25%
• Accurate Solution 25%
• Numerical Methods 25%
• Magnetic Flux Density 25%
• Mathematical Tools 25%
• Neumann Boundary Condition 25%
• Material Point 25%
• Space Harmonics 25%
• Series Expansion 25%
• Developement 25%
• Fourier Series Expansion 25%
• Coordinate System 25%
• Domain Boundary 25%
• Riemannian Geometry 25%
• Field Harmonics 25%
• Rotor 25%
• Finite Element Mesh 25%
• Electromagnetic Behavior 25%
• Time Harmonics 25%
• Coordinate Expression 25%
• Electromagnetic Analysis 25%
• Metric Tensor 25%
• Stator 25%
• Moving Body 25%
• FE Implementation 25%
• Air-gap Harmonics 25%
• Efficient numerical Methods 25%

Engineering

• Electrical Machine 100%
• Gap Field 100%
• Harmonics 100%
• Dirichlet 80%
• Subproblem 80%
• Rotating Electrical Machine 40%
• Boundary Value 20%
• Time Domain 20%
• Frequency Domain 20%
• Domain Boundary 20%
• Accurate Solution 20%
• Numerical Methods 20%
• Magnetic Flux Density 20%
• Reformulation 20%
• Neumann Boundary Condition 20%
• Electromagnetic Analysis 20%
• Metric Tensor 20%
• Fourier Series 20%
• Material Point 20%
• Rotors 20%
• Moving Body 20%
• Finite Element Mesh 20%

Mathematics

• Subproblem 100%
• Boundary Value Problems 50%
• Finite Element Method 25%
• Frequency Domain 25%
• Metric Tensor 25%
• Series Expansion 25%
• Coordinate Expression 25%
• Neumann Boundary Condition 25%
• Fourier Series Expansion 25%
• Riemannian Geometry 25%
• Time Domain 25%
• Fixed Coordinate System 25%
• Magnetic Flux 25%
• Flux Density 25%
• Mathematical Method 25%