Let (left(B_{t}ight)_{t in mathbb{R}_{+}})denote a standard Brownian motion. Given (T>0), find the stochastic integral decomposition of (left(B_{T}ight)^{3})

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Let \(\left(B_{t}ight)_{t \in \mathbb{R}_{+}}\)denote a standard Brownian motion. Given \(T>0\), find the stochastic integral decomposition of \(\left(B_{T}ight)^{3}\) as

\[

\begin{equation*}

\left(B_{T}ight)^{3}=C+\int_{0}^{T} \zeta_{t, T} d B_{t} \tag{4.39}

\end{equation*}

\]

where \(C \in \mathbb{R}\) is a constant and \(\left(\zeta_{t, T}ight)_{t \in[0, T]}\) is an adapted process to be determined.

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