* @p weights.
*
* In its default implementation, this function simply calls get_new_point()
- * on each row of @weights and appends those points to the output vector
+ * on each row of @p weights and appends those points to the output vector
* @p new_points. However, this function is more efficient if multiple new
* points need to be generated like in MappingQGeneric and the manifold does
* expensive transformations between a chart space and the physical space,
*
* This manifold will combine the ChartManifolds @p A and @p B given in the
* constructor to form a new ChartManifold by building the tensor product
- * $A\cross B$. The first @p spacedim_A dimensions in the real space and the
+ * $A\otimes B$. The first @p spacedim_A dimensions in the real space and the
* first @p chartdim_A dimensions of the chart will be given by manifold @p A,
* while the remaining coordinates are given by @p B. The manifold is to be
* used by a <tt>Triangulation@<dim, space_dim_A+space_dim_B@></tt>.
* \mathcal{P} : \{ \bullet \}
* := \{ \bullet \} - \frac{1}{\textrm{dim}} \left[ \{ \bullet \} : \mathbf{I} \right]\mathbf{I}
* = \mathcal{P}^{T} : \{ \bullet \}
- * = \texttt{dev_P} \left( \{ \bullet \} \right)
+ * = \texttt{dev\_P} \left( \{ \bullet \} \right)
* @f]
* and, therefore,
* @f[
- * \texttt{dev_P} \left( \{ \bullet \} \right) : \mathbf{I}
- * = \textrm{trace}(\texttt{dev_P} \left( \{ \bullet \} \right)) = 0 \, .
+ * \texttt{dev\_P} \left( \{ \bullet \} \right) : \mathbf{I}
+ * = \textrm{trace}(\texttt{dev\_P} \left( \{ \bullet \} \right)) = 0 \, .
* @f]
*
* This definition aligns with the fourth-order symmetric tensor that
* @f[
* \{ \bullet \} : \hat{\mathcal{P}}
* := J^{-2/\textrm{dim}} \left[ \{ \bullet \} - \frac{1}{\textrm{dim}}\left[\mathbf{C} : \{ \bullet \}\right] \mathbf{C}^{-1} \right]
- * = \texttt{Dev_P} \left( \{ \bullet \} \right) \, .
+ * = \texttt{Dev\_P} \left( \{ \bullet \} \right) \, .
* @f]
* It can therefore be readily shown that
* @f[
- * \texttt{Dev_P} \left( \{ \bullet \} \right) : \mathbf{C} = 0 \, .
+ * \texttt{Dev\_P} \left( \{ \bullet \} \right) : \mathbf{C} = 0 \, .
* @f]
*
* @note It may be observed that we have defined the tensor as the
* @f[
* \hat{\mathcal{P}}^{T} : \{ \bullet \}
* = J^{-2/\textrm{dim}} \left[ \{ \bullet \} - \frac{1}{\textrm{dim}} \left[\mathbf{C}^{-1} : \{ \bullet \}\right] \mathbf{C} \right]
- * = \texttt{Dev_P_T} \{ \bullet \}
+ * = \texttt{Dev\_P\_T} \{ \bullet \}
* @f]
*/
template <typename Number>