Added notation for space of measurable functions.

src/measure/measurable-maps/in-measure.tex

@@ -1,6 +1,14 @@
 \section{Convergence in Measure}
 \label{section:convergence-in-measure}
 
+\begin{definition}[In Measure]
+\label{definition:in-measure}
+    Let $(X, \cm, \mu)$ be a measure space, $(Y, d)$ be a metric space, then the uniform
+\end{definition}
+
+
+
+
 \begin{definition}[Convergence in Measure]
 \label{definition:convergence-in-measure}
     Let $(X, \cm, \mu)$ be a measure space, $(Y, d)$ be a metric space, and $\fF$ be a filter of $(\cm, \cb_Y)$-measurable functions, and $f$ be a $(\cm, \cb_Y)$-measurable function, then $\fF \to f$ \textbf{in measure} if for each $\eps > 0$, 

src/measure/measurable-maps/measurable-maps.tex

@@ -4,6 +4,8 @@
 \begin{definition}[Measurable Function]
 \label{definition:measurable-function}
     Let $(X, \cm)$ and $(Y, \cn)$ be measurable spaces and $f: X \to Y$ be a mapping, then $f$ is \textbf{$(\cm, \cn)$-measurable} if $f^{-1}(E) \in \cm$ for all $E \in \cn$.
+
+    The set $\mathscr{M}(X; Y)$ is the \textbf{space of measurable functions} from $X$ to $Y$. 
 \end{definition}