04235nmm a2200313 u 4500001001200000003002700012005001700039007002400056008004100080020001800121100002800139245011700167246009100284250001700375260004800392300003200440505173600472653002502208653005602233700002902289700002802318710003402346041001902380989003802399490006302437856007202500082001002572520133902582EB000713418EBX0100000000000000056650000000000000000.0cr|||||||||||||||||||||140122 ||| eng a97894009644641 aSeifert, H.J.e[editor]00aMathematical Aspects of SuperspacehElektronische Ressourcecedited by H.J. Seifert, C.J.S. Clarke, A. Rosenblum31aProceedings of the NATO Advanced Research Workshop, Hamburg, Germany, July 12-16, 1983 a1st ed. 1984 aDordrechtbSpringer Netherlandsc1984, 1984 aXII, 214 pbonline resource0 aNon-linear Realization of Supersymmetry -- 1. Introduction -- 2. The Akulov-Volkov field -- 3. Superfields -- 4. Standard fields -- 5. N > 1/N = 1 -- 6. N = 1 supergravity -- References -- Fields, Fibre Bundles and Gauge Groups -- 1. Manifolds -- 2. Fibre bundles -- 3. Gauge Groups -- 4. Space-Time -- Path Integration on Manifolds -- 1. Introduction -- 2. Gaussian measures, cylinder set measures, and the Feynman-Kac formula -- 3. Feynman path integrals -- 4. Path integration on Riemannian manifolds -- 5. Gauge invariant equations; diffusion and differential forms -- Acknowledgements, References -- Graded Manifolds and Supermanifolds -- Preface and cautionary note -- 0. Standard notation -- 1. The category GM -- 2. The geometric approach -- 3. Comparisons -- 4. Lie supergroups -- Table: “All I know about supermanifolds” -- References -- Aspects of the Geometrical Approach to Supermanifolds -- 1. Abstract -- 2. Building superspace over an arbitrary spacetime -- 3. Super Lie groups -- 4. Compact supermanifolds with non-Abelian fundamental group -- 5. Developments and applications -- References -- Integration on Supermanifolds -- 1. Introduction -- 2. Standard integration theory -- 3. Integration over odd variables -- 4. Superforms -- 5. Integration on Er,s -- 6. Integration on supermanifolds -- References -- Remarks on Batchelor’s Theorem -- Classical Supergravity -- 1. Definition of classical supergravity -- 2. Dynamical analysis of classical field theories -- 3. Formal dynamical analysis of classical supergravity -- 4. The exterior algebra formulation of classical supergravity -- 5. Does classical supergravity make sense? -- Appendix: Notations and conventions -- References -- List of participants aMathematical physics aTheoretical, Mathematical and Computational Physics1 aClarke, C.J.S.e[editor]1 aRosenblum, A.e[editor]2 aSpringerLink (Online service)07aeng2ISO 639-2 bSBAaSpringer Book Archives -20040 aNato Science Series C:, Mathematical and Physical Sciences uhttps://doi.org/10.1007/978-94-009-6446-4?nosfx=yxVerlag3Volltext0 a530.1 aOver the past five years, through a continually increasing wave of activity in the physics community, supergravity has come to be regarded as one of the most promising ways of unifying gravity with other particle interaction as a finite gauge theory to explain the spectrum of elementary particles. Concurrently im portant mathematical works on the arena of supergravity has taken place, starting with Kostant's theory of graded manifolds and continuing with Batchelor's work linking this with the superspace formalism. There remains, however, a gap between the mathematical and physical approaches expressed by such unanswered questions as, does there exist a superspace having all the properties that physicists require of it? Does it make sense to perform path integral in such a space? It is hoped that these proceedings will begin a dialogue between mathematicians and physicists on such questions as the plan of renormalisation in supergravity. The contributors to the proceedings consist both of mathe maticians and relativists who bring their experience in differen tial geometry, classical gravitation and algebra and also quantum field theorists specialized in supersymmetry and supergravity. One of the most important problems associated with super symmetry is its relationship to the elementary particle spectrum