Index of notation for sets of continuous maps

Overview

This page is to keep track of the pages used for spaces of continuous maps

Index

1. $C(X,Y)$ - for topological spaces $(X,\mathcal{ J })$ and $(Y,\mathcal{ K })$, $C(X,Y)$ is the set of all continuous maps between them.
2. $C(I,X)$ - $I:\eq[0,1]\subset\mathbb{R}$, set of all paths on a topological space $(X,\mathcal{ J })$
   • Sometimes written: $C([0,1],X)$
3. $C(X,\mathbb{R})$ - The algebra of all real functionals on $X$. $\mathbb{R}$ considered with usual topology
   • See also: $C(X,\mathbb{K})$
4. $C(X,\mathbb{C})$ - The algebra of all complex functionals on $X$. $\mathbb{C}$ considered with usual topology
   • See also: $C(X,\mathbb{K})$
5. $C(X,\mathbb{K})$ - The algebra of all functionals on $X$, where $\mathbb{K}$ is either the reals, $\mathbb{R}$ or the complex numbers, $\mathbb{C}$, equipped with their usual topology.
6. $C(X,\mathbb{F})$ - structure unsure at time of writing - set of all continuous functions of the form $f:X\rightarrow\mathbb{F}$ where $\mathbb{F}$ is any field with an absolute value, with the topology that absolute value induces.
7. $C(K,\mathbb{R})$ - $K$ must be a compact topological space. Denotes the algebra of real functionals from $K$ to $\mathbb{R}$ - in line with the notation $C(X,\mathbb{R})$.
8. $C(K,\mathbb{C})$ - $K$ must be a compact topological space. Denotes the algebra of complex functionals from $K$ to $\mathbb{C}$ - in line with the notation $C(X,\mathbb{C})$.
9. $C(K,\mathbb{K})$ - $K$ must be a compact topological space. Denotes either $C(K,\mathbb{R})$ or $C(K,\mathbb{C})$ - we do not care/specify the particular field - in line with the notation $C(X,\mathbb{K})$.
10. $C(K,\mathbb{F})$ - denotes that the space $K$ is a compact topological space, the meaning of the field corresponds to the definitions for $C(X,\mathbb{F})$ as given above for that field - in line with the notation $C(X,\mathbb{F})$.

See also

• Doctrine:Notation for sets of continuous maps