Oxford? comma.

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Bokuan Li
2026-06-14 21:26:17 -04:00
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\begin{theorem}[Lebesgue-Radon-Nikodym] \begin{theorem}[Lebesgue-Radon-Nikodym]
\label{theorem:lebesgue-radon-nikodym} \label{theorem:lebesgue-radon-nikodym}
Let $(X, \cm)$ be a measurable space, $\mu$ be a $\sigma$-finite positive measure on $(X, \cm)$, $H$ be a Hilbert space over $K \in \RC$ and $\nu: \cm \to H$ be a finite vector measure, then there exists a unique pair of finite vector measures $\nu_a, \nu_s: \cm \to H$ such that: Let $(X, \cm)$ be a measurable space, $\mu$ be a $\sigma$-finite positive measure on $(X, \cm)$, $H$ be a Hilbert space over $K \in \RC$, and $\nu: \cm \to H$ be a finite vector measure, then there exists a unique pair of finite vector measures $\nu_a, \nu_s: \cm \to H$ such that:
\begin{enumerate} \begin{enumerate}
\item $\nu = \nu_a + \nu_s$. \item $\nu = \nu_a + \nu_s$.
\item $\nu_a$ is absolutely continuous with respect to $\mu$. \item $\nu_a$ is absolutely continuous with respect to $\mu$.