In each let \(f(t)=t^3,\vec{r}(t) = \langle t^2, t-1, 1 \rangle \) and \(\vec{s}(t)=\langle \sin t, e^t, t \rangle \). Find \(\vec{r}(t)\), given that \(\vec{r}''(t)=\langle \cos t, \sin t, e^t \rangl...In each let \(f(t)=t^3,\vec{r}(t) = \langle t^2, t-1, 1 \rangle \) and \(\vec{s}(t)=\langle \sin t, e^t, t \rangle \). Find \(\vec{r}(t)\), given that \(\vec{r}''(t)=\langle \cos t, \sin t, e^t \rangle\), \(\vec{r}'(0) =\langle 0,0,0 \rangle \text{ and }\vec{r}(0)=\langle 0,0,0 \rangle\).
In each let \(f(t)=t^3,\vec{r}(t) = \langle t^2, t-1, 1 \rangle \) and \(\vec{s}(t)=\langle \sin t, e^t, t \rangle \). Find \(\vec{r}(t)\), given that \(\vec{r}''(t)=\langle \cos t, \sin t, e^t \rangl...In each let \(f(t)=t^3,\vec{r}(t) = \langle t^2, t-1, 1 \rangle \) and \(\vec{s}(t)=\langle \sin t, e^t, t \rangle \). Find \(\vec{r}(t)\), given that \(\vec{r}''(t)=\langle \cos t, \sin t, e^t \rangle\), \(\vec{r}'(0) =\langle 0,0,0 \rangle \text{ and }\vec{r}(0)=\langle 0,0,0 \rangle\).