Lie Theory [electronic resource] : Unitary Representations and Compactifications of Symmetric Spaces / edited by Jean-Philippe Anker, Bent Orsted.
Contributor(s): Anker, Jean-Philippe [editor.] | Orsted, Bent [editor.] | SpringerLink (Online service)Material type: TextSeries: Progress in Mathematics: 229Publisher: Boston, MA : Birkhäuser Boston, 2005Description: X, 207 p. 20 illus. online resourceContent type: text Media type: computer Carrier type: online resourceISBN: 9780817644307Subject(s): Mathematics | Group theory | Topological groups | Lie groups | Harmonic analysis | Functions of complex variables | Differential geometry | Mathematics | Topological Groups, Lie Groups | Differential Geometry | Several Complex Variables and Analytic Spaces | Abstract Harmonic Analysis | Group Theory and GeneralizationsAdditional physical formats: Printed edition:: No titleDDC classification: 512.55 | 512.482 LOC classification: QA252.3QA387Online resources: Click here to access online
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to Symmetric Spaces and Their Compactifications -- Compactifications of Symmetric and Locally Symmetric Spaces -- Restrictions of Unitary Representations of Real Reductive Groups.
Semisimple Lie groups, and their algebraic analogues over fields other than the reals, are of fundamental importance in geometry, analysis, and mathematical physics. Three independent, self-contained volumes, under the general title Lie Theory, feature survey work and original results by well-established researchers in key areas of semisimple Lie theory. Unitary Representations and Compactifications of Symmetric Spaces, a self-contained work by A. Borel, L. Ji, and T. Kobayashi, focuses on two fundamental questions in the theory of semisimple Lie groups: the geometry of Riemannian symmetric spaces and their compactifications; and branching laws for unitary representations, i.e., restricting unitary representations to (typically, but not exclusively, symmetric) subgroups and decomposing the ensuing representations into irreducibles. Ji's introductory chapter motivates the subject of symmetric spaces and their compactifications with carefully selected examples. A discussion of Satake and Furstenberg boundaries and a survey of the geometry of Riemannian symmetric spaces in general provide a good background for the second chapter, namely, the Borel–Ji authoritative treatment of various types of compactifications useful for studying symmetric and locally symmetric spaces. Borel–Ji further examine constructions of Oshima, De Concini, Procesi, and Melrose, which demonstrate the wide applicability of compactification techniques. Kobayashi examines the important subject of branching laws. Important concepts from modern representation theory, such as Harish–Chandra modules, associated varieties, microlocal analysis, derived functor modules, and geometric quantization are introduced. Concrete examples and relevant exercises engage the reader. Knowledge of basic representation theory of Lie groups as well as familiarity with semisimple Lie groups and symmetric spaces is required of the reader.