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use crate::topo_impls::*;
use crate::topo_traits::*;
use truck_topology::*;
impl<P: Clone, C: Clone, S: Clone> Sweep<P, C, S> for Vertex<P> {
type Swept = Edge<P, C>;
/// Transforms a vertex and creates an edge by connecting vertices.
/// # Examples
/// ```
/// use truck_topology::*;
/// use truck_modeling::topo_traits::*;
/// let v = Vertex::new(1);
/// let edge = v.sweep(
/// &move |i: &usize| *i + 1,
/// &usize::clone,
/// &<()>::clone,
/// &move |i: &usize, j: &usize| *i * 10 + j,
/// &move |_, _| (),
/// );
/// assert_eq!(edge.front().point(), 1);
/// assert_eq!(edge.back().point(), 2);
/// assert_eq!(edge.curve(), 12);
/// ```
fn sweep<
FP: Fn(&P) -> P,
FC: Fn(&C) -> C,
FS: Fn(&S) -> S,
CP: Fn(&P, &P) -> C,
CC: Fn(&C, &C) -> S,
>(
&self,
point_mapping: &FP,
_: &FC,
_: &FS,
connect_points: &CP,
_: &CC,
) -> Self::Swept {
let v = self.mapped(point_mapping);
connect_vertices(self, &v, connect_points)
}
}
impl<P: Clone, C: Clone, S: Clone> Sweep<P, C, S> for Edge<P, C> {
type Swept = Face<P, C, S>;
/// Transforms an edge and creates a face by connecting vertices and edges.
/// # Examples
/// ```
/// use truck_topology::*;
/// use truck_modeling::topo_traits::*;
/// let edge = Edge::new(
/// &Vertex::new(1),
/// &Vertex::new(2),
/// 100,
/// );
/// let face = edge.sweep(
/// &move |i: &usize| *i + 2,
/// &move |j: &usize| *j + 100,
/// &usize::clone,
/// &move |i: &usize, j: &usize| *i * 10 + j,
/// &move |i: &usize, j: &usize| *i + *j,
/// );
///
/// assert_eq!(face.surface(), 300);
/// assert_eq!(face.boundaries().len(), 1);
///
/// let boundary: Wire<usize, usize> = face.boundaries()[0].clone();
/// assert_eq!(boundary.len(), 4);
///
/// assert_eq!(boundary[0], edge);
///
/// assert_eq!(boundary[1].front().point(), 2);
/// assert_eq!(boundary[1].back().point(), 4);
/// assert_eq!(boundary[1].curve(), 24);
///
/// assert_eq!(boundary[2].front().point(), 4);
/// assert_eq!(boundary[2].back().point(), 3);
/// // the curve of second edge is determined by connect_curves
/// assert_eq!(boundary[2].curve(), 200);
///
/// assert_eq!(boundary[3].front().point(), 3);
/// assert_eq!(boundary[3].back().point(), 1);
/// assert_eq!(boundary[3].curve(), 13);
/// ```
fn sweep<
FP: Fn(&P) -> P,
FC: Fn(&C) -> C,
FS: Fn(&S) -> S,
CP: Fn(&P, &P) -> C,
CC: Fn(&C, &C) -> S,
>(
&self,
point_mapping: &FP,
curve_mapping: &FC,
_: &FS,
connect_points: &CP,
connect_curves: &CC,
) -> Self::Swept {
let edge = self.mapped(point_mapping, curve_mapping);
connect_edges(self, &edge, connect_points, connect_curves)
}
}
impl<P: Clone, C: Clone, S: Clone> Sweep<P, C, S> for Wire<P, C> {
type Swept = Shell<P, C, S>;
/// Transforms a wire and creates a shell by connecting vertices and edges.
/// # Examples
/// ```
/// use truck_topology::*;
/// use truck_modeling::topo_traits::*;
/// use shell::ShellCondition;
/// let v = Vertex::news(&[1, 2, 3, 4]);
/// let wire = Wire::from(vec![
/// Edge::new(&v[0], &v[1], 100),
/// Edge::new(&v[1], &v[2], 110),
/// Edge::new(&v[3], &v[2], 120).inverse(),
/// Edge::new(&v[3], &v[1], 130),
/// ]);
/// let shell = wire.sweep(
/// &move |i: &usize| *i + 4,
/// &move |j: &usize| *j + 100,
/// &usize::clone,
/// &move |i: &usize, j: &usize| *i * 10 + j,
/// &move |i: &usize, j: &usize| *i + *j,
/// );
/// assert!(shell.is_connected());
///
/// let face1 = &shell[1];
/// assert_eq!(face1.surface(), 320);
/// let boundary1 = &face1.boundaries()[0];
/// assert_eq!(boundary1[0].curve(), 110);
/// assert_eq!(boundary1[1].curve(), 37);
/// assert_eq!(boundary1[2].curve(), 210);
/// assert_eq!(boundary1[3].curve(), 26);
/// assert_eq!(boundary1[0].front().point(), 2);
/// assert_eq!(boundary1[1].front().point(), 3);
/// assert_eq!(boundary1[2].front().point(), 7);
/// assert_eq!(boundary1[3].front().point(), 6);
///
/// let face2 = &shell[2];
/// assert_eq!(face2.surface(), 340);
/// let boundary2 = &face2.boundaries()[0];
/// assert_eq!(boundary2[0].curve(), 120);
/// assert_eq!(boundary2[1].curve(), 48);
/// assert_eq!(boundary2[2].curve(), 220);
/// assert_eq!(boundary2[3].curve(), 37);
/// assert_eq!(boundary2[0].front().point(), 3);
/// assert_eq!(boundary2[1].front().point(), 4);
/// assert_eq!(boundary2[2].front().point(), 8);
/// assert_eq!(boundary2[3].front().point(), 7);
///
/// assert_eq!(boundary1[1].id(), boundary2[3].id());
/// assert_ne!(boundary1[1], boundary2[3]);
/// ```
fn sweep<
FP: Fn(&P) -> P,
FC: Fn(&C) -> C,
FS: Fn(&S) -> S,
CP: Fn(&P, &P) -> C,
CC: Fn(&C, &C) -> S,
>(
&self,
point_mapping: &FP,
curve_mapping: &FC,
_: &FS,
connect_points: &CP,
connect_curves: &CC,
) -> Self::Swept {
let wire = self.mapped(point_mapping, curve_mapping);
connect_wires(self, &wire, connect_points, connect_curves).collect()
}
}
impl<P: Clone, C: Clone, S: Clone> Sweep<P, C, S> for Face<P, C, S> {
type Swept = Solid<P, C, S>;
/// Transforms a face and creates a solid by connecting vertices, edges and faces.
/// # Examples
/// ```
/// use truck_topology::*;
/// use truck_modeling::topo_traits::*;
/// let v = Vertex::news(&[1, 2]);
/// let edge = Edge::new(&v[0], &v[1], 12);
/// let face = edge.sweep(
/// &move |i: &usize| *i + 2,
/// &move |i: &usize| *i + 22,
/// &usize::clone,
/// &move |i: &usize, j: &usize| *i * 10 + *j,
/// &move |i: &usize, j: &usize| *i * 100 + *j,
/// );
/// let solid = face.sweep(
/// &move |i: &usize| *i + 4,
/// &move |i: &usize| *i + 44,
/// &move |i: &usize| *i + 3333,
/// &move |i: &usize, j: &usize| *i * 10 + *j,
/// &move |i: &usize, j: &usize| *i * 100 + *j,
/// );
/// let shell = &solid.boundaries()[0];
/// # assert_eq!(shell.shell_condition(), shell::ShellCondition::Closed);
///
/// // The boundary shell has 6 faces since this solid is a cube.
/// assert_eq!(shell.len(), 6);
///
/// // the first face of the boundary shell is the inversed original face.
/// assert_eq!(shell[0].id(), face.id());
/// assert_ne!(shell[0].orientation(), face.orientation());
///
/// // Check the condition of the third face.
/// assert_eq!(shell[2].surface(), 2468);
/// let bdry = &shell[2].boundaries()[0];
/// assert_eq!(bdry[0].curve(), 24);
/// assert_eq!(bdry[1].curve(), 48);
/// assert_eq!(bdry[2].curve(), 68);
/// assert_eq!(bdry[3].curve(), 26);
///
/// // Check the last face: seiling.
/// assert_eq!(shell[5].surface(), 4567);
/// ```
fn sweep<
FP: Fn(&P) -> P,
FC: Fn(&C) -> C,
FS: Fn(&S) -> S,
CP: Fn(&P, &P) -> C,
CC: Fn(&C, &C) -> S,
>(
&self,
point_mapping: &FP,
curve_mapping: &FC,
surface_mapping: &FS,
connect_points: &CP,
connect_curves: &CC,
) -> Self::Swept {
let mut shell = vec![self.inverse()];
let seiling = self.mapped(point_mapping, curve_mapping, surface_mapping);
let biter0 = self.boundary_iters().into_iter().flatten();
let biter1 = seiling.boundary_iters().into_iter().flatten();
shell.extend(connect_raw_wires(
biter0,
biter1,
connect_points,
connect_curves,
));
shell.push(seiling);
Solid::debug_new(vec![shell.into()])
}
}
impl<P: Clone, C: Clone, S: Clone> Sweep<P, C, S> for Shell<P, C, S> {
type Swept = Vec<Result<Solid<P, C, S>>>;
/// Transforms a shell and tries to create solids by connecting vertices, edges and faces.
///
/// In this function, the shell is broken down into connected components and each of components
/// extruded to form a solid.
///
/// # Remarks
/// For each component, this method returns `Result` of sweeping,
/// since there is no clear guarantee that a solid can be formed by the extrusion of the shell.
/// At least, a component must be oriented and not be closed to be extruded.
fn sweep<
FP: Fn(&P) -> P,
FC: Fn(&C) -> C,
FS: Fn(&S) -> S,
CP: Fn(&P, &P) -> C,
CC: Fn(&C, &C) -> S,
>(
&self,
point_mapping: &FP,
curve_mapping: &FC,
surface_mapping: &FS,
connect_points: &CP,
connect_curves: &CC,
) -> Self::Swept {
self.connected_components()
.into_iter()
.map(move |shell| {
let mut bdry = Shell::new();
let mut seiling = shell.mapped(point_mapping, curve_mapping, surface_mapping);
bdry.extend(shell.face_iter().map(|face| face.inverse()));
let bdries0 = shell.extract_boundaries();
let bdries1 = seiling.extract_boundaries();
let biter0 = bdries0.iter().flat_map(Wire::edge_iter);
let biter1 = bdries1.iter().flat_map(Wire::edge_iter);
bdry.extend(connect_wires(
biter0,
biter1,
connect_points,
connect_curves,
));
bdry.append(&mut seiling);
Solid::try_new(vec![bdry])
})
.collect()
}
}