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:<math>
\boldsymbol\omega(t) \times A(t)\mathbf{r}_0 = T(t)A(t)\mathbf{r}_0
where A is an [[orientation matrix]]. It allows us to express the [[cross product]]▼
:<math>\boldsymbol\omega(t) \times A(t)\mathbf{r}_0 </math>▼
as a matrix multiplication. It is, by definition, a [[skew-symmetric matrix]] with zeros on the main diagonal and plus and minus the components of the angular velocity as the other elements
T(t) =
\begin{pmatrix}
0 & -\omega_z(t) & \omega_y(t) \\
\omega_z(t) & 0 & -\omega_x(t) \\
-\omega_y(t) & \omega_x(t) & 0 \\
\end{pmatrix}
▲</math>
▲where A is an [[orientation matrix]]. It allows us to express the [[cross product]]
▲:<math>\boldsymbol\omega(t) \times A(t)\mathbf{r}_0 </math>
▲as a matrix multiplication. It is, by definition, a [[skew-symmetric matrix]] with zeros on the main diagonal and plus and minus the components of the angular velocity as the other elements.
== See also ==
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