A Broader View of Relativity: General Implications of Lorentz and Poincare ́ Invariance
A Broader View of Relativity shows that there is still new life in old physics. The book examines the historical context and theoretical underpinnings of Einstein''s theory of special relativity and describes Broad Relativity, a generalized theory of coordinate transformations between inertial reference frames that includes Einstein''s special relativity as a special case. It shows how the principle of relativity is compatible with multiple concepts of physical time and how these different procedures for clock synchronization can be useful for thinking about different physical problems, including many-body systems and the development of a Lorentz-invariant thermodynamics. Broad relativity also provides new answers to old questions such as the necessity of postulating the constancy of the speed of light and the viability of Reichenbach''s general concept of time. The book also draws on the idea of limiting-four-dimensional symmetry to describe coordinate transformations and the physics of particles and fields in non-inertial frames, particularly those with constant linear accelerations. This new edition expands the discussion on the role that human conventions and unit systems have played in the historical development of relativity theories and includes new results on the implications of broad relativity for clarifying the status of constants that are truly fundamental and inherent properties of our universe. Sample Chapter(s). Chapter 1: Introduction and Overview (326 KB). Contents: The Historical and Physical Context of Relativity Theory: Space, Time and Inertial Frames; On the Right Track: Voigt, Lorentz, and Larmor; The Novel Creation of the Young Einstein; A Broader View of Relativity: The Central Role of the Principle of Relativity: Relativity Based Solely on the Principle of Relativity; Experimental Tests I & II; Group Properties of Taiji Relativity and Common Relativity; Common Relativity and Quantum Mechanics; Extended Relativity: A Weaker Postulate for the Speed of Light; The Role of the Principle of Relativity in the Physics of Accelerated Frames: The Principle of Limiting Lorentz and Poincar(r) Invariance; Physical Properties of Spacetime in Accelerated Frames; Dynamics of Classical and Quantum Particles in Constant-Linear-Acceleration Frames; Group and Lie Algebra Properties of Accelerated Spacetime Transformations; Appendices: Systems of Units and the Development of Relativity Theories; Quantum Electrodynamics in Both Linearly Accelerated and Inertial Frames; and other papers. Readership: Researchers in the field of relativity theory and advanced undergraduate students as a supplementary text.
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The Novel Creation of the Young Einstein
The Central Role of the Principle of Relativity
Relativity Based Solely on the Principle of Relativity
The Role of the Principle of Relativity in the Physics of Accelerated Frames
The Principle of Limiting Lorentz and Poincare Invariance
The Principle of Limiting Lorentz and Poincare Invariance
Extended Lorentz Transformations for Frames with ConstantLinearAccelerations
Physical Properties of Spacetime in Accelerated Frames
Extended Lorentz Transformations for Accelerated Frames and a Resolution to the TwoSpaceship Paradox
Dynamics of Classical and Quantum Particles in ConstantLinearAcceleration Frames
Quantization of Scalar Spinor and Electromagnetic Fields in ConstantLinearAcceleration Frames
Experimental Tests I
Group Properties of Taiji Relativity and Common Relativity
Invariant Actions in Relativity Theories and Truly Universal
and Fundamental Constants
Common Relativity and ManyBody Systems
Common Relativity and the 3K Cosmic Microwave Background
Common Relativity and Quantum Mechanics
Common Relativity and Fuzzy Quantum Field Theory
A Weaker Postulate for the Speed of Light
Group and Lie Algebra Properties of Accelerated Spacetime Transformations
Coordinate Transformations for Frames with a GeneralLinearAcceleration
A Taiji Rotational Transformation with Limiting 4Dimensional Symmetry
A Systems of Units and the Development of Relativity Theories
B Can One Derive the Lorentz Transformation From Precision Experiments?
Quantum Electrodynamics in Inertial and NonInertial Frames D YangMills Gravity with Translation Gauge Symmetry in Inertial and Noninertial Fra...
Other editions - View all
4-vector accelerated frames atomic charged particle clock common relativity common-second constant-linear-acceleration coordinate transformations covariant decay length defined definition derived dilation Dirac equation discussed Einstein electromagnetic field electron energy equation of motion ether evolution variable experimental extended relativity F and F F frame formulation function fundamental constants fuzzy gauge inertial frame interval J. P. Hsu Jong-Ping Hsu Lagrangian Leonardo Hsu Let us consider light signal limit of zero limiting 4-dimensional symmetry Lorentz and Poincare Lorentz group Lorentz transformation mass Maxwell's equations measured meter metric tensor Michelson-Morley experiment momentum muon natural units non-inertial frames Nuovo Cimento observers obtain photon Phys physical laws physicists Poincare groups Poincare invariance Poincare's principle of relativity quantities quantum electrodynamics quantum field theory relativistic relativity theory result space spacetime transformation spatial special relativity speed of light synchronization taiji relativity Theory of Relativity universal constant usual velocity Wu transformation zero acceleration
Page 17 - I will explain to you in a moment, we incline to overlook this fact. There are really four dimensions, three which we call the three planes of Space, and a fourth, Time. There is, however, a tendency to draw an unreal distinction between the former three dimensions and the latter, because it happens that our consciousness moves intermittently in one direction along the latter from the beginning to the end of our lives.
Page 35 - Einstein simply postulates what we have deduced, with some difficulty and not altogether satisfactorily, from the fundamental equations of the electromagnetic field. By doing so, he may certainly take credit for making us see in the negative result of experiments like those of Michelson, Rayleigh and Brace, not a fortuitous compensation of opposing effects, but the manifestation of a general and fundamental principle.
Page 25 - God had laid about the world to allow a sort of philosopher's treasure hunt to the esoteric brotherhood. He believed that these clues were to be found partly in the evidence of the heavens and in the constitution of...