2018
DOI: 10.1007/s40062-018-0217-3
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Delooping derived mapping spaces of bimodules over an operad

Abstract: From a map of operads η : O → O , we introduce a cofibrant replacement of O in the category of bimodules over itself such that the corresponding model of the derived mapping space of bimodules Bimod h O (O ; O )is an algebra over the one dimensional little cubes operad C 1 . In the present work, we also build an explicit weak equivalence of C 1 -algebras from the loop spaceIn particular, if we apply the identifications (3) to the map η : C d → C n , then we get an explicit description of the iterated loop spac… Show more

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Cited by 4 publications
(14 citation statements)
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“…Our main result Theorem 4.1 is then that the following is a homotopy fiber sequence (1) Bimod h P (P, Q•X) → X → Operad h (P, Q), where the superscript h is used to show that we consider the derived version of the corresponding mapping spaces. This result can be considered as a generalisation of the delooping result [7,11] (2)…”
Section: Introductionmentioning
confidence: 62%
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“…Our main result Theorem 4.1 is then that the following is a homotopy fiber sequence (1) Bimod h P (P, Q•X) → X → Operad h (P, Q), where the superscript h is used to show that we consider the derived version of the corresponding mapping spaces. This result can be considered as a generalisation of the delooping result [7,11] (2)…”
Section: Introductionmentioning
confidence: 62%
“…The operad P may naturally be considered as a reduced bimodule of itself. We will use (a slight variant of) the cofibrant resolution BP of P as a bimodule introduced by Ducoulombier in [7]. The points are equivalence classes [T ; {t v } ; {x v }] where T is a tree, {t v } is a family of real numbers in the interval [0 , 1] indexing the vertices and {x v } is a family of points in WP labelling the vertices.…”
Section: 2mentioning
confidence: 99%
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