Time and Space Weight and Inertia

Preface to the English EditionPrefaceI. Foundations 1. Reality, Viewed as a Stream of Events. Space and Time within Events 2 . Pictures and Diagrams 3 . Coordinates. Point-Instants 4. Rotations and Translations 5. The Fundamental Velocity 6. Einstein's Fundamental Thesis of the Constant Velocity of Light. The Transformation Formulae for Translations 7. Intervals. Durations, Distances and Telethigmata 8. Newton and EinsteinII. One-Plus-One-Dimensional Chronogeometry 1. The Enduring Path 2. Rhombuses of Conjugate Intervals and Rectangles of Here-Now Rays 3 . Triangles 4. Metre Stick and Clock 5. The Slowing Down of Translating Clocks and the Contraction of Translating Measuring Rods 6. Chronogeometrically Uniform Acceleration 7. The Accelerated Rigid Measuring Rod 8. The Accelerated Ideal Metre ClockIII. The Chromogeometry of TIme and Space 1. The Intervals with (1 + 3 ) Components 2 . Conjugate Intervals 3. Tetrads of Conjugate Vectors 4. The Various Manifolds and their Mutual Relationships 5. The Separation Interval of Non-intersecting Time Tracks and Straight Lines 6. Durationless Planes and Straight Lines. Here-Now Rays 7. The Algebraic Determination of Magnitudes 8. Tensors and Dual VectorsIV. The Lorentz Transformations 1. The Tetrads of Unit Vectors 2 . Accelerationless Rotations 3 . Rotationless Accelerations (Pseudo-Revolutions) 4. Kinematic PrecessionV. Rotations and Accelerations in Terms of Pseudo-Revolutions 1. The Compound Reorientation of Normalized Tetrads of Unit Vectors 2 . The Conjugate Axes of an Infinitesimal Transformation 3 . The Motion of a Rigid Body 4. A Special Case of the Motion of a Rigid Body 5. Michelson's Experiment and the Ideal Spherical Light Wave Clock 6. Accelerating Coordinates and the Equivalence HypothesisVI. Metric and Other Tensors 1. The Gauge Figure 2 . Contravariant, Covariant, and Mixed Tensors of Different Ranks 3 . The Metric Tensor 4. Special Tensors 5. Differentiating TensorsVII. Dynamical Relationships 1. Mass 2 . Dynamical Variables of Two Particles 3 . Internal Angular Momentum 4. The Internal Angular Momentum of a Collection of Particles 5. External Rotation, Centre of Inertia and Polarized Inertia 6. Interaction in Terms of Telehapses 7. Creation and Annihilation of Matter 8. ActionVIII. The Dynamical Tensor 1. Density of Presence and Density of Passage 2 . The Dynamical Tensor 3 . The Principal Axes of the Dynamical Tensor 4. Conservation of Energy and MomentumIX. The Equations of the Theory of Electrons 1. The Density of the Electric Current and Charge 2 . Polarization and Magnetization 3 . The Charge-Free Electromagnetic Field and Its Potentials 4. The Electromagnetic Field and the Charges. The Energy-Momentum TensorX . Accelerating and Curving Events 1. The Unique Value of the Acceleration in Free Fall 2 . The Parallel Displacement of a Vector. Geodesic Lines 3 . The Geodesic Derivatives 4. Curvature 5. The Cycle of a Chronogeometric Compass 6. The Formal Properties of the Riemann TensorXI. Geodesic Adaptations 1. Geodesic Lines 2 . The Free Fall 3 . Radially Adapted (Geodesic) Coordinates 4. Geodesic Coordinates Carried Along in Free Fall 5. Tidal EffectsXII. The Field Equations and the Spherical Gravitational Field 1. The Field Equations 2. The Static Field with Spherical Symmetry 3 . Free Fall of Planets Towards a Centre with Spherical Symmetry 4. The So-Called Curving of Light Rays 5. The Red-Shift of Spectral Lines 6. The Geodesic PrecessionAppendix: Effect of Gravity on Nuclear Resonance InteractionBibliographyIndex