category object in an (∞,1)-category, groupoid object
synthetic differential geometry
Introductions
from point-set topology to differentiable manifolds
geometry of physics: coordinate systems, smooth spaces, manifolds, smooth homotopy types, supergeometry
Differentials
Tangency
The magic algebraic facts
Theorems
Axiomatics
Models
differential equations, variational calculus
Chern-Weil theory, ∞-Chern-Weil theory
Cartan geometry (super, higher)
homotopy theory, (∞,1)-category theory, homotopy type theory
flavors: stable, equivariant, rational, p-adic, proper, geometric, cohesive, directed…
models: topological, simplicial, localic, …
see also algebraic topology
Introductions
Definitions
Paths and cylinders
Homotopy groups
Basic facts
Theorems
By a smooth functor one may generally understand an internal functor in the category of SmoothManifolds, hence a homomorphism between internal categories or internal groupoids (Lie groupoids) in SmoothManifolds.
Slightly alternatively, a smooth functor may be understood as an enriched functor between enriched categories over SmoothManifolds.
Much more specifically, “smooth functor” is used by Kriegl & Michor 97, Sec 29.5 to refer to an endofunctor of FinDimVect, when is viewed as a category enriched in the category of smooth manifolds.
That is, a smooth functor is a functor such that the map is smooth for every , .
Currently, the remainder of this entry focuses on this specific notion.
The iterated tensor product is a smooth functor.
The iterated wedge product is a smooth functor
The concept of smooth functor can be extended to multivariate functors , and also to contravariant? functors , such as the dual .
Last revised on March 30, 2023 at 15:01:04. See the history of this page for a list of all contributions to it.