Theoretical physics is a branch of physics that employs mathematical models and abstractions of physical objects and systems to rationalize, explain and predict natural phenomena. This is in contrast to experimental physics, which uses experimental tools to probe these phenomena. Theoretical physics consists of several different approaches. In this regard, theoretical particle physics forms a good example. For instance: "phenomenologists" might employ (semi-) empirical formulas and heuristics to agree with experimental results, often without deep physical understanding. "Modelers" (also called "model-builders") often appear much like phenomenologists, but try to model speculative theories that have certain desirable features (rather than on experimental data), or apply the techniques of mathematical modeling to physics problems. Some attempt to create approximate theories, called effective theories, because fully developed theories may be regarded as unsolvable or too complicated. Other theorists may try to unify, formalise, reinterpret or generalise extant theories, or create completely new ones altogether. Sometimes the vision provided by pure mathematical systems can provide clues to how a physical system might be modeled; e.g., the notion, due to Riemann and others, that space itself might be curved. Theoretical problems that need computational investigation are often the concern of computational physics. This course is an accelerated introduction to the conceptual and mathematical foundations of modern theoretical physics, with a particular emphasis on analytical mechanics, relativity, and quantum theory. Topics include the general structure of physical systems, classical mechanics and field theory, orbital motion, the principle of least action, symmetries and conservation laws, special relativity, probability and information theory, and an extensive introduction to quantum theory. Examples are drawn from many areas of physics, including statistical mechanics, Newtonian mechanics, electromagnetism, general relativity, quantum information, quantum field theory, and string theory. Prerequisites: The course is mathematically intensive and assumes a strong knowledge of high-school algebra, geometry, and trigonometry, as well as a high comfort level with abstract concepts. The course covers relevant topics from high-school physics, differential/integral calculus, and linear algebra as needed, so a familiarity with these subjects, while very helpful, is not strictly required.
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Minm Fee: 0 € /Year Maxm Fee : 3000 € / Year ( Fee Depends upon University and Country )