Table of Contents
Table of Contents
Introduction
Chapter 1. Maxwell Equations, Geometry Effects on Constitutive Relations
Chapter 2. Electrodynamics, Complex Rotation Group, Media, Gravity
Chapter 3. Dirac–Kahler Field Theory, a 2-Potential Approach to Electrodynamics
Chapter 4. 10-Dimensional Matrix Approach
Chapter 5. Dirac–Kahler Theory, Relation between Spinor and Tensor Formulations
Chapter 6. Graviton in a Curved Space-Time Background and Gauge Symmetry
Chapter 7. Particle with Spin 2 and Anomalous Magnetic Moment
Chapter 8. Spherical Solutions for Dirac–Kahler and Dirac Particles
Chapter 9. Electromagnetic Spherical Solutions in Models S<sub>3</sub> and H<sub>3</sub>
Chapter 10. 10-Dimensional Spherical Solutions in Riemann Space S<sub>3</sub>
Chapter 11. Solutions with Cylindric Symmetry in Spherical Space
Chapter 12. Solutions with Cylindric Symmetry in Lobachevsky Space
Chapter 13. On Simulating a Medium with Special Properties by Lobachevsky Geometry
Chapter 14. Maxwell Equations, Squaring Procedure, and Separation of the Variables
Chapter 15. Helicity Operator and Spin 1 Field in Lobachevsky and Rieman Models
Chapter 16. Spin 1 Particle in the Coulomb Field
Chapter 17. Particle with Spin 1 in a Magnetic Field
Chapter 18. Particle with Spin 1 in a Magnetic Field on the Hyperbolic Plane
Chapter 19. Particle with Spin 1 in a Magnetic Field on the Spherical Plane
Chapter 20. Electromagnetic Waves in de Sitter Space-Time
Chapter 21. Spherical Waves of Spin 1 Particle in Anti de Sitter Space-Time
Chapter 22. Calculation of the Reflection Coefficient for Particles in de Sitter Space
Chapter 23. On Solutions of Maxwell Equations in the Schwarzschild Space-Time
Chapter 24. Conclusions and Summaries
Bibliography
Index
