In physics and mathematics, the Lorentz group is the group of Lorentz transformations applicable to four-dimensional Minkowski spacetime and expresses the fundamental symmetry of space and time of all known (non-gravitational) fundamental laws. In particular, it is central to the laws of classical and quantum field theory, special relativity, Maxwell's equations for electromagnetism, the Dirac equation, and the Standard Model of particle physics amongst others. These have historical importance in mainstream physics, as well as connections to more cutting-edge areas of modern-day research.
This book explains the Lorentz group in a language familiar to physicists, using the language of two-by-two matrices. While the three-dimensional rotation group is one of the standard mathematical tools in physics, the Lorentz group applicable to the four-dimensional Minkowski space is still very strange to most physicists. However, it plays an essential role in a wide swathe of physics and is becoming the essential language for modern and rapidly developing fields such as quantum optics, information science as well as themes within condensed matter physics.
The first edition was primarily devoted to understanding high-energy physics developed during the latter half of the 20th Century, and the application of the same set of mathematical tools to optical sciences.
In this new edition, the authors added five new chapters in order to expand their coverage on discussions on optical and information sciences. They also deal with some fundamental questions in quantum mechanics, such as the question of whether the localized probability distribution in quantum mechanics is consistent with relativity, and the question of whether quantum mechanics and special relativity can be derived from the same basket of equations, as in the case of Maxwell's equations where both electricity and magnetism can be derived from the same set of equations.
This book explains the Lorentz group in a language familiar to physicists, using the language of two-by-two matrices. While the three-dimensional rotation group is one of the standard mathematical tools in physics, the Lorentz group applicable to the four-dimensional Minkowski space is still very strange to most physicists. However, it plays an essential role in a wide swathe of physics and is becoming the essential language for modern and rapidly developing fields such as quantum optics, information science as well as themes within condensed matter physics.
The first edition was primarily devoted to understanding high-energy physics developed during the latter half of the 20th Century, and the application of the same set of mathematical tools to optical sciences.
In this new edition, the authors added five new chapters in order to expand their coverage on discussions on optical and information sciences. They also deal with some fundamental questions in quantum mechanics, such as the question of whether the localized probability distribution in quantum mechanics is consistent with relativity, and the question of whether quantum mechanics and special relativity can be derived from the same basket of equations, as in the case of Maxwell's equations where both electricity and magnetism can be derived from the same set of equations.
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