
Part 1. Contents. Basic Overview of Superconductivity. The Meissner Effect. The superconductor exhibits perfect diamagnetism. QuickField modules to simulate superconductors: magnetostatics, AC magnetics, transient magnetics. Specifying superconducting regions. Cooling in zero magnetic field or in finite magnetic field. Looking at the problem in QuickField, boundary conditions. Relative permeability. Flux lines, magnitude of flux density. Individual values of the field.
Part 2. Changing edges conditions. Mechanical torque working on the superconductor disc. Parametric, serial analysis with LabelMover. Setting parameters for rotating. Deviation of the field.
Part 3. Ring superconductor in axewise symmetry. Fieldcooled boundary condition vs. zerofieldcooled boundary condition. Looking at the problem in QuickField. Flux density colour maps.
Part 4. Superconducting rings. The model. Analysis of magnetic field pictures. Flux density tables.
Part 5. Calculating total flux to the ring, screening current, inductance. Creating contour around the ring.
Part 6. Superconducting Sphere in an external magnetic field. Physical values. Different boundary conditions. Results: deviation of the field, diagrams of current density. Changing the model (meshing).
Part 7. How to construct a superconductor magnet. The model, a torroidal ring. Properties. Field picture and plots. Turning off the external magnetic field. Electric potential field plot. Total flux is constant  we have a superconductor magnet.
Part 8. Type I and type II superconductivity. Magnetization curves. Nonlinear BH characteristics. Reference for superconductor magnets. The problem in QuickField. Flux distribution.
Part 9. Modeling field penetration in superconductors. Illustrating superconductor levitation. Analyzing results. Mechanical force. Varying the position of the magnet. Work in LabelMover.
Part 10. Work in LabelMover. Setting values. Simulation results. Distance for levitation. Stress distribution. Coupled problem on the same geometry model: magnetostatics  stress analysis. Displacement. Discussion of superconducting and permeable fields.
