Modern Differential Geometry in Gauge Theories [electronic resource] : YangMills Fields, Volume II / by Anastasios Mallios.

Por: Mallios, Anastasios [author.]Tipo de material: TextoTextoEditor: Boston : Birkhuser Boston, 2010Edición: 1Descripción: online resourceTipo de contenido: text Tipo de medio: computer Tipo de portador: online resourceISBN: 9780817646349Trabajos contenidos: SpringerLink (Online service)Tema(s): Mathematics | Field theory (Physics) | Global analysis | Global differential geometry | Mathematical physics | Quantum theory | Mathematics | Differential Geometry | Mathematical Methods in Physics | Field Theory and Polynomials | Elementary Particles, Quantum Field Theory | Optics and Electrodynamics | Global Analysis and Analysis on ManifoldsFormatos físicos adicionales: Sin títuloClasificación CDD: 516.36 Clasificación LoC:QA641-670Recursos en línea: de clik aquí para ver el libro electrónico
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Springer eBooksResumen: Differential geometry, in the classical sense, is developed through the theory of smooth manifolds. Modern differential geometry from the authors perspective is used in this work to describe physical theories of a geometric character without using any notion of calculus (smoothness). Instead, an axiomatic treatment of differential geometry is presented via sheaf theory (geometry) and sheaf cohomology (analysis). Using vector sheaves, in place of bundles, based on arbitrary topological spaces, this unique approach in general furthers new perspectives and calculations that generate unexpected potential applications. Modern Differential Geometry in Gauge Theories is a two-volume research monograph that systematically applies a sheaf-theoretic approach to such physical theories as gauge theory. Beginning with Volume 1, the focus is on Maxwell fields. All the basic concepts of this mathematical approach are formulated and used thereafter to describe elementary particles, electromagnetism, and geometric prequantization. Maxwell fields are fully examined and classified in the language of sheaf theory and sheaf cohomology. Continuing in Volume 2, this sheaf-theoretic approach is applied to YangMills fields in general. The text contains a wealth of detailed and rigorous computations and will appeal to mathematicians and physicists, along with advanced undergraduate and graduate students, interested in applications of differential geometry to physical theories such as general relativity, elementary particle physics and quantum gravity.
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YangMills Theory:General Theory -- Abstract YangMills Theory -- Moduli Spaces of -Connections of YangMills Fields -- Geometry of YangMills -Connections -- General Relativity -- General Relativity, as a Gauge Theory. Singularities.

Differential geometry, in the classical sense, is developed through the theory of smooth manifolds. Modern differential geometry from the authors perspective is used in this work to describe physical theories of a geometric character without using any notion of calculus (smoothness). Instead, an axiomatic treatment of differential geometry is presented via sheaf theory (geometry) and sheaf cohomology (analysis). Using vector sheaves, in place of bundles, based on arbitrary topological spaces, this unique approach in general furthers new perspectives and calculations that generate unexpected potential applications. Modern Differential Geometry in Gauge Theories is a two-volume research monograph that systematically applies a sheaf-theoretic approach to such physical theories as gauge theory. Beginning with Volume 1, the focus is on Maxwell fields. All the basic concepts of this mathematical approach are formulated and used thereafter to describe elementary particles, electromagnetism, and geometric prequantization. Maxwell fields are fully examined and classified in the language of sheaf theory and sheaf cohomology. Continuing in Volume 2, this sheaf-theoretic approach is applied to YangMills fields in general. The text contains a wealth of detailed and rigorous computations and will appeal to mathematicians and physicists, along with advanced undergraduate and graduate students, interested in applications of differential geometry to physical theories such as general relativity, elementary particle physics and quantum gravity.

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