Abstract
Let M be a monoid and \(G:\mathbf {Mon} \rightarrow \mathbf {Grp}\) be the group completion functor from monoids to groups. Given a collection \(\mathcal {X}\) of submonoids of M and for each \(N\in \mathcal {X}\) a collection \(\mathcal {Y}_N\) of subgroups of G(N), we construct a model structure on the category of M-spaces and M-equivariant maps, called the \((\mathcal {X},\mathcal {Y})\)-model structure, in which weak equivalences and fibrations are induced from the standard \(\mathcal {Y}_N\)-model structures on G(N)-spaces for all \(N\in \mathcal {X}\). We also show that for a pair of collections \((\mathcal {X},\mathcal {Y})\) there is a small category \({{\mathbf {O}}}_{(\mathcal {X},\mathcal {Y})}\) whose objects are M-spaces \(M\times _NG(N)/H\) for each \(N\in \mathcal {X}\) and \(H\in \mathcal {Y}_N\) and morphisms are M-equivariant maps, such that the \((\mathcal {X},\mathcal {Y})\)-model structure on the category of M-spaces is Quillen equivalent to the projective model structure on the category of contravariant \({{\mathbf {O}}}_{(\mathcal {X},\mathcal {Y})}\)-diagrams of spaces.
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Erdal, M.A. Homotopy theory of monoid actions via group actions and an Elmendorf style theorem. Collect. Math. 75, 331–359 (2024). https://doi.org/10.1007/s13348-022-00388-z
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DOI: https://doi.org/10.1007/s13348-022-00388-z