Elementary Approach to Special Relativity
This book presents an alternative representation of Einstein's Special Theory of Relativity, which makes Special Relativity
much more comprehensible. Moreover, one will come across a fundamental relationship between the Special Theory of Relativity and the mechanics of space lattice. Les mer
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Leveringstid: Sendes innen 21 dager
På grunn av Brexit-tilpasninger og tiltak for å begrense covid-19 kan det dessverre oppstå forsinket levering.
This book presents an alternative representation of Einstein's Special Theory of Relativity, which makes Special Relativity
much more comprehensible. Moreover, one will come across a fundamental relationship between the Special Theory of Relativity
and the mechanics of space lattice. In all previous formulations, the Einsteinian special principle of relativity, in one
or the other form is used as the starting point for Special Relativity. In correspondence to this principle, one takes it
as granted apriori, that all observers independent of their uniform motion to each other measure one and the same propagation
velocity of a light signal. This book is thought of as a lecture for physicists, mathematicians and computer scientists and
concentrates on the students of these fields. The book should reach a broad circle of interested readers from the fields of
natural sciences and philosophy and provide and invigorating experience for engineers.
1 The Discovery of the Ether
2 The Ether and the Wave Equation
3 The Physical Elements of the Special Theory of Relativity
4 Where does the Wave Equation Come from?
5 The Wave Equation and the Third Axiom
6 Lattice and the Continuum
7 Crystalline Solid - Dislocations
8 The sine-Gordon Equation of a Dislocation
9 Natural Measuring-Rods and Clocks
10 Measuring-rods and Clocks in Motion
11 A Clock Paradox
12 Measurement of the Critical Velocity
13 The Lorentz Transformation
14 The Linear Approximation of Special Relativity
15 The Principle of Relativity: The Lost Crystal
16 Two Axiomatic Systems for Special Relativity
17 The Twin Paradox
18 The Doppler Effect
19 Aberration
20 Tachyons and Causality
21 Violation of Relativity - the Rediscovered Crystal
22 Particles and Fields
23 A Particle Solution - the Inertia of Energy
24 The Michelson Experiment
25 Elastic Displacements and Waves
26 Eigen Stresses and Dislocations
27 The Separation of Eigen Stresses
28 Particles and Tachyons
29 Tachyons of the Plastic Deformation
30 On the Problem of Causality: Particle - Tachyon Collisions
2 The Ether and the Wave Equation
3 The Physical Elements of the Special Theory of Relativity
4 Where does the Wave Equation Come from?
5 The Wave Equation and the Third Axiom
6 Lattice and the Continuum
7 Crystalline Solid - Dislocations
8 The sine-Gordon Equation of a Dislocation
9 Natural Measuring-Rods and Clocks
10 Measuring-rods and Clocks in Motion
11 A Clock Paradox
12 Measurement of the Critical Velocity
13 The Lorentz Transformation
14 The Linear Approximation of Special Relativity
15 The Principle of Relativity: The Lost Crystal
16 Two Axiomatic Systems for Special Relativity
17 The Twin Paradox
18 The Doppler Effect
19 Aberration
20 Tachyons and Causality
21 Violation of Relativity - the Rediscovered Crystal
22 Particles and Fields
23 A Particle Solution - the Inertia of Energy
24 The Michelson Experiment
25 Elastic Displacements and Waves
26 Eigen Stresses and Dislocations
27 The Separation of Eigen Stresses
28 Particles and Tachyons
29 Tachyons of the Plastic Deformation
30 On the Problem of Causality: Particle - Tachyon Collisions
Helmut Gunther was professor at the Bielefeld University of Applied Sciences for Mathematics and Physics until 2005 and currently
teaches relativity theory at the Humboldt University in Berlin.