Operads in Algebra, Topology and PhysicsOperads are powerful tools, and this is the book in which to read about them. --Bulletin of the London Mathematical Society Operads are mathematical devices that describe algebraic structures of many varieties and in various categories. Operads are particularly important in categories with a good notion of ``homotopy'', where they play a key role in organizing hierarchies of higher homotopies. Significant examples from algebraic topology first appeared in the sixties, although the formal definition and appropriate generality were not forged until the seventies. In the nineties, a renaissance and further development of the theory were inspired by the discovery of new relationships with graph cohomology, representation theory, algebraic geometry, derived categories, Morse theory, symplectic and contact geometry, combinatorics, knot theory, moduli spaces, cyclic cohomology, and, last but not least, theoretical physics, especially string field theory and deformation quantization. The book contains a detailed and comprehensive historical introduction describing the development of operad theory from the initial period when it was a rather specialized tool in homotopy theory to the present when operads have a wide range of applications in algebra, topology, and mathematical physics. Many results and applications currently scattered in the literature are brought together here along with new results and insights. The basic definitions and constructions are carefully explained and include many details not found in any of the standard literature. |
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Autres éditions - Tout afficher
Operads in Algebra, Topology and Physics Martin Markl,Steven Shnider,James D. Stasheff Aperçu limité - 2007 |
Operads in Algebra, Topology and Physics Martin Markl,Steven Shnider,James D. Stasheff Aucun aperçu disponible - 2002 |
Expressions et termes fréquents
arity associative algebra automorphisms axioms chain complex coalgebra cobar complex cochain coderivation cofibrant cohomology colim colimit commutative compactification component Con(M configuration space corresponding cyclic homology cyclic operad defined Definition degree denote described det(T dg operad diagram differential graded direct sum edge(T elements equation equivariant Example factors Figure finite set free operad functor Fy(n genus given graded vector space Hochschild homology homotopy equivalence homotopy type identified induced infinite loop space internal edges introduced isomorphism classes Koszul complex Koszul operad labeled Lemma Lie algebra linear little disks metric minimal model modular E-module modular operad module moduli space monoidal structure morphism non-E operad notation operad operad composition operad structure operations P-algebra permutation planar trees points proof Proposition prove quadratic operad Recall relation rooted trees satisfying Section strongly homotopy surjection symmetric group symmetric monoidal category T,-module tensor product Theorem theory triple trivial Vert(T vertex vertices
Fréquemment cités
Page 175 - This proves the first part of the theorem. The second part follows immediately.
