backtick and lowercase as a cleanup

This commit is contained in:
Andreas Fabri 2019-08-21 02:51:04 -07:00
parent 1bf3680ade
commit f54fe71b11
2 changed files with 27 additions and 27 deletions

View File

@ -107,28 +107,28 @@ void set_alpha_max(NT alpha);
/// @{
/*!
Returns true for Gabriel faces.
returns `true` for Gabriel faces.
*/
bool is_Gabriel() const ;
/*!
Returns true for convex hull faces.
returns `true` for convex hull faces.
*/
bool is_on_chull() const;
/*!
Returns the `alpha_min`.
\pre `is_Gabriel()` returns false;
returns the `alpha_min`.
\pre `is_Gabriel()` returns `false`.
*/
NT alpha_min() const;
/*!
Returns the `alpha_mid`.
returns `alpha_mid`.
*/
NT alpha_mid() const;
/*!
Returns `alpha_max`.
returns `alpha_max`.
\pre `is_on_chull()` returns `false`.
*/
NT alpha_max() const;

View File

@ -55,11 +55,11 @@ Enum to classify the simplices of the underlying
triangulation with respect to a given alpha value.
Each k-dimensional simplex of the triangulation
can be classified as EXTERIOR, SINGULAR, REGULAR
or INTERIOR.
A \f$ k\f$ simplex is REGULAR if it is on the boundary
can be classified as `EXTERIOR`, `SINGULAR`, `REGULAR`
or `INTERIOR`.
A \f$ k\f$ simplex is `REGULAR` if it is on the boundary
of the alpha complex and belongs to a \f$ k+1\f$ simplex in this complex
and it is SINGULAR if it is a boundary simplex that is not included in a \f$ k+1\f$ simplex of the complex.
and it is `SINGULAR` if it is a boundary simplex that is not included in a \f$ k+1\f$ simplex of the complex.
*/
enum Classification_type {EXTERIOR, SINGULAR, REGULAR, INTERIOR};
@ -70,19 +70,19 @@ enum Classification_type {EXTERIOR, SINGULAR, REGULAR, INTERIOR};
/// @{
/*!
Introduces an empty fixed alpha shape and sets the alpha value to `alpha`.
builds an empty fixed alpha shape and sets the alpha value to `alpha`.
*/
Fixed_alpha_shape_3(FT alpha = 0);
/*!
Builds a fixed alpha shape from the triangulation `dt`,
builds a fixed alpha shape from the triangulation `dt`,
and sets the alpha value to `alpha`.
\attention This operation swaps `*this` and `dt`, that is `dt` is an empty triangulation once the fixed alpha shape is built.
*/
Fixed_alpha_shape_3(Dt& dt,FT alpha = 0);
/*!
Builds a fixed alpha shape for the points in the range
builds a fixed alpha shape for the points in the range
`[first,last)` and sets the alpha value to `alpha`.
\tparam InputIterator must be an input iterator with value type `Point` (the type point of the underlying triangulation.)
*/
@ -99,7 +99,7 @@ const FT& alpha = 0);
/*!
Inserts the point p in the underlying triangulation and returns the corresponding vertex.
inserts the point `p` in the underlying triangulation and returns the corresponding vertex.
The optional argument `start` is used as a starting place for the search.
The classification types of the new simplices are computed and that of the simplices incident
to the new ones are updated.
@ -109,14 +109,14 @@ Vertex_handle insert (Point p,Cell_handle start = Cell_handle());
/*!
Removes the vertex v from the underlying triangulation.
removes the vertex `v` from the underlying triangulation.
The classification types of new simplices and their incident faces are set or reset.
*/
void remove (Vertex_handle v);
/*!
Clears the structure.
clears the structure.
*/
void
clear();
@ -127,40 +127,40 @@ clear();
/// @{
/*!
Returns the \f$ \alpha\f$-value.
returns the \f$ \alpha\f$-value.
*/
const FT&
get_alpha(void) const;
/*!
Classifies the cell `c` of the underlying triangulation in the alpha complex.
classifies the cell `c` of the underlying triangulation in the alpha complex.
*/
Classification_type
classify(Cell_handle c) const;
/*!
Classifies the facet `f` of the underlying triangulation in the alpha complex.
classifies the facet `f` of the underlying triangulation in the alpha complex.
*/
Classification_type classify(Facet f) const;
/*!
Classifies the facet of the cell `f` opposite to the vertex with index
classifies the facet of the cell `f` opposite to the vertex with index
`i` of the underlying triangulation in the alpha complex.
*/
Classification_type classify(Cell_handle f, int i) const;
/*!
Classifies the edge `e` of the underlying triangulation in the alpha complex.
classifies the edge `e` of the underlying triangulation in the alpha complex.
*/
Classification_type classify(const Edge& e) const;
/*!
Classifies the vertex `v` of the underlying triangulation in the alpha complex.
classifies the vertex `v` of the underlying triangulation in the alpha complex.
*/
Classification_type classify(Vertex_handle v) const;
/*!
Writes the cells which are of type `type` in the alpha complex
writes the cells which are of type `type` in the alpha complex
to the sequence
pointed to by the output iterator `it`. Returns past the end
of the output sequence.
@ -169,7 +169,7 @@ template<class OutputIterator>
OutputIterator get_alpha_shape_cells(OutputIterator it, Classification_type type);
/*!
Writes the facets which are of type `type` in the alpha complex
writes the facets which are of type `type` in the alpha complex
to the sequence pointed to by the output iterator `it`. Returns past the end
of the output sequence.
*/
@ -177,7 +177,7 @@ template<class OutputIterator>
OutputIterator get_alpha_shape_facets(OutputIterator it, Classification_type type);
/*!
Writes the edges which are of type `type` in the alpha complex
writes the edges which are of type `type` in the alpha complex
to the sequence
pointed to by the output iterator `it`. Returns past the end
of the output sequence.
@ -186,7 +186,7 @@ template<class OutputIterator>
OutputIterator get_alpha_shape_edges(OutputIterator it, Classification_type type);
/*!
Writes the vertices which are of type `type` in the alpha complex
writes the vertices which are of type `type` in the alpha complex
to the sequence pointed to by the output iterator `it`. Returns past the end
of the output sequence.
*/
@ -198,7 +198,7 @@ OutputIterator get_alpha_shape_vertices(OutputIterator it, Classification_type t
}; /* end Fixed_alpha_shape_3 */
/*!
Inserts the fixed alpha shape `A` into the stream `os`.
inserts the fixed alpha shape `A` into the stream `os`.
An overlaoad of `operator<<` must be available for `GT::Point`.