Files
OneCAD-Draft/src/scene/dimension_assoc.rs
T

901 lines
32 KiB
Rust

use acadrust::entities::Dimension;
use acadrust::objects::{
AssocDimensionAssociation, AssocDimensionReference, AssociativeData,
AssociativeObject, ObjectType,
};
use acadrust::types::{Handle, Vector3};
use acadrust::EntityType;
use cadkernel::geom2d::{
angle_within_arc, arc as tessellate_arc, arc_span, closest_point, Arc as KernelArc,
BulgeArc, Circle as KernelCircle, Curve as KernelCurve, DEFAULT_SEGMENTS_PER_RADIAN,
};
use cadkernel::space::Plane;
use std::f64::consts::TAU;
use crate::command::DimensionAssociationSource;
use super::{ChangeKind, Scene};
#[derive(Clone, Copy, Debug)]
pub(crate) struct RadialSourceGeometry {
pub plane: Plane,
pub center: [f64; 2],
pub radius: f64,
pub start_angle: f64,
pub end_angle: f64,
pub limited: bool,
pub marker: i32,
}
impl RadialSourceGeometry {
pub(crate) fn center_world(self) -> Vector3 {
vector3(self.plane.point_at(self.center))
}
pub(crate) fn point_at_angle(self, angle: f64) -> Vector3 {
vector3(self.plane.point_at([
self.center[0] + self.radius * angle.cos(),
self.center[1] + self.radius * angle.sin(),
]))
}
pub(crate) fn angle_at(self, point: DPoint) -> f64 {
let projected = self.plane.project(point).unwrap_or(self.center);
(projected[1] - self.center[1]).atan2(projected[0] - self.center[0])
}
pub(crate) fn chord_at(self, point: DPoint) -> Vector3 {
self.point_at_angle(self.angle_at(point))
}
pub(crate) fn opposite_chord_at(self, point: DPoint) -> Vector3 {
self.point_at_angle(self.angle_at(point) + std::f64::consts::PI)
}
fn contains_angle(self, angle: f64) -> bool {
!self.limited || angle_within_arc(angle, self.start_angle, self.end_angle)
}
fn curve(self) -> KernelCurve {
if self.limited {
KernelCurve::Arc(KernelArc {
centre: self.center,
radius: self.radius,
start_angle: self.start_angle,
end_angle: self.end_angle,
})
} else {
KernelCurve::Circle(KernelCircle {
centre: self.center,
radius: self.radius,
})
}
}
fn distance_squared_to(self, point: DPoint) -> f64 {
let Some(projected) = self.plane.project(point) else {
return f64::INFINITY;
};
let planar = closest_point(&self.curve(), projected).distance;
let world = self.plane.point_at(projected);
let dx = world[0] - point[0];
let dy = world[1] - point[1];
let dz = world[2] - point[2];
planar * planar + dx * dx + dy * dy + dz * dz
}
}
type DPoint = [f64; 3];
fn vector3(point: DPoint) -> Vector3 {
Vector3::new(point[0], point[1], point[2])
}
fn dpoint(point: Vector3) -> DPoint {
[point.x, point.y, point.z]
}
fn radial_candidates(entity: &EntityType) -> Vec<RadialSourceGeometry> {
let Some(planar) = crate::entities::curve::entity_curve(entity) else {
return Vec::new();
};
match planar.curve {
KernelCurve::Circle(circle) => vec![RadialSourceGeometry {
plane: planar.plane,
center: circle.centre,
radius: circle.radius,
start_angle: 0.0,
end_angle: 0.0,
limited: false,
marker: 0,
}],
KernelCurve::Arc(arc) => vec![RadialSourceGeometry {
plane: planar.plane,
center: arc.centre,
radius: arc.radius,
start_angle: arc.start_angle,
end_angle: arc.end_angle,
limited: true,
marker: 0,
}],
KernelCurve::Polyline(polyline) => (0..polyline.vertices.len())
.filter_map(|index| {
let arc = polyline.segment_arc(index)?;
let (start_angle, end_angle) = if arc.sweep >= 0.0 {
(arc.start_angle, arc.end_angle)
} else {
(arc.end_angle, arc.start_angle)
};
Some(RadialSourceGeometry {
plane: planar.plane,
center: arc.center,
radius: arc.radius,
start_angle,
end_angle,
limited: true,
marker: index as i32,
})
})
.collect(),
_ => Vec::new(),
}
}
pub(crate) fn radial_source_at(
entity: &EntityType,
point: Vector3,
) -> Option<RadialSourceGeometry> {
radial_candidates(entity).into_iter().min_by(|first, second| {
first
.distance_squared_to(dpoint(point))
.total_cmp(&second.distance_squared_to(dpoint(point)))
})
}
fn radial_source_for_marker(entity: &EntityType, marker: i32) -> Option<RadialSourceGeometry> {
radial_candidates(entity)
.into_iter()
.find(|candidate| candidate.marker == marker)
}
fn radial_source_matching(
entity: &EntityType,
center: Vector3,
radius: f64,
chord: Vector3,
) -> Option<RadialSourceGeometry> {
radial_candidates(entity).into_iter().min_by(|first, second| {
let score = |candidate: &RadialSourceGeometry| {
point_distance_squared(candidate.center_world(), center)
+ (candidate.radius - radius).powi(2)
+ candidate.distance_squared_to(dpoint(chord)) * 1e-6
};
score(first).total_cmp(&score(second))
})
}
fn point_distance_squared(first: Vector3, second: Vector3) -> f64 {
let dx = first.x - second.x;
let dy = first.y - second.y;
let dz = first.z - second.z;
dx * dx + dy * dy + dz * dz
}
fn ocs_point(x: f64, y: f64, elevation: f64, normal: Vector3) -> Vector3 {
let point = crate::scene::view::transform::ocs_point_to_wcs(
(x, y, elevation),
(normal.x, normal.y, normal.z),
);
Vector3::new(point.0, point.1, point.2)
}
fn circle_curve(circle: &acadrust::entities::Circle) -> KernelCurve {
KernelCurve::Circle(KernelCircle {
centre: [circle.center.x, circle.center.y],
radius: circle.radius,
})
}
fn bulge_center_world(
first: [f64; 2],
second: [f64; 2],
bulge: f64,
elevation: f64,
normal: Vector3,
) -> Option<Vector3> {
let center = BulgeArc::from_bulge(first, second, bulge)?.center;
Some(ocs_point(center[0], center[1], elevation, normal))
}
fn next_segment_index(count: usize, closed: bool, segment: usize) -> Option<usize> {
if segment + 1 < count {
Some(segment + 1)
} else if closed && segment < count {
Some(0)
} else {
None
}
}
fn polyline_arc_center(entity: &EntityType, segment: usize) -> Option<Vector3> {
match entity {
EntityType::LwPolyline(polyline) => {
let count = polyline.vertices.len();
let first = *polyline.vertices.get(segment)?;
let second = *polyline
.vertices
.get(next_segment_index(count, polyline.is_closed, segment)?)?;
bulge_center_world(
[first.location.x, first.location.y],
[second.location.x, second.location.y],
first.bulge,
polyline.elevation,
polyline.normal,
)
}
EntityType::Polyline2D(polyline) => {
let count = polyline.vertices.len();
let first = polyline.vertices.get(segment)?;
let second = polyline
.vertices
.get(next_segment_index(count, polyline.is_closed(), segment)?)?;
bulge_center_world(
[first.location.x, first.location.y],
[second.location.x, second.location.y],
first.bulge,
polyline.elevation,
polyline.normal,
)
}
_ => None,
}
}
fn source_points(entity: &EntityType) -> Vec<Vector3> {
match entity {
EntityType::Line(line) => vec![line.start, line.end],
EntityType::Arc(arc) => vec![arc.start_point_wcs(), arc.end_point_wcs()],
EntityType::Circle(_) => Vec::new(),
EntityType::LwPolyline(polyline) => polyline
.vertices
.iter()
.map(|vertex| {
ocs_point(
vertex.location.x,
vertex.location.y,
polyline.elevation,
polyline.normal,
)
})
.collect(),
EntityType::Polyline2D(polyline) => polyline
.vertices
.iter()
.map(|vertex| {
ocs_point(
vertex.location.x,
vertex.location.y,
polyline.elevation,
polyline.normal,
)
})
.collect(),
_ => Vec::new(),
}
}
fn source_reference(entity: &EntityType, point: Vector3) -> Option<(i32, f64)> {
let curve_parameter = match entity {
EntityType::Circle(circle) => {
let center = circle.center_wcs();
if point_distance_squared(center, point) <= 1e-16 {
return Some((-3, 0.0));
}
let (axis_x, axis_y) = circle.axes_wcs();
let offset = point - center;
Some(offset.dot(&axis_y).atan2(offset.dot(&axis_x)))
}
EntityType::Arc(arc) => {
let local = crate::scene::view::transform::wcs_point_to_ocs(
(point.x, point.y, point.z),
(arc.normal.x, arc.normal.y, arc.normal.z),
);
let dx = local.0 - arc.center.x;
let dy = local.1 - arc.center.y;
if dx * dx + dy * dy <= 1e-16 {
return Some((-3, 0.0));
}
Some(dy.atan2(dx))
}
_ => None,
};
if let Some(parameter) = curve_parameter {
return Some((-2, parameter));
}
source_marker(entity, point).map(|marker| (marker, 0.0))
}
fn source_marker(entity: &EntityType, point: Vector3) -> Option<i32> {
source_points(entity)
.into_iter()
.enumerate()
.min_by(|(_, first), (_, second)| {
point_distance_squared(*first, point)
.total_cmp(&point_distance_squared(*second, point))
})
.map(|(index, _)| index as i32)
}
fn resolve_reference(scene: &Scene, reference: &AssocDimensionReference) -> Option<Vector3> {
let source = *reference.xrefs.first()?;
let entity = scene.document.get_entity(source)?;
if reference.main_gs_marker == -4 {
let segment = reference.osnap_distance.round().max(0.0) as usize;
return polyline_arc_center(entity, segment);
}
if reference.main_gs_marker == -3 {
return match entity {
EntityType::Circle(circle) => Some(circle.center_wcs()),
EntityType::Arc(arc) => Some(arc.center_wcs()),
_ => None,
};
}
if reference.main_gs_marker == -2 {
return match entity {
EntityType::Circle(circle) => {
Some(circle.point_at_angle_wcs(reference.osnap_distance))
}
EntityType::Arc(arc) => Some(arc.point_at_angle_wcs(reference.osnap_distance)),
_ => None,
};
}
if let EntityType::Circle(circle) = entity {
let stored = crate::scene::view::transform::wcs_point_to_ocs(
(
reference.osnap_point.x,
reference.osnap_point.y,
reference.osnap_point.z,
),
(circle.normal.x, circle.normal.y, circle.normal.z),
);
let curve = circle_curve(circle);
let stored_parameter = curve.parameter_at([stored.0, stored.1]) * TAU;
let parameter = if reference.osnap_distance.abs() > 1e-12
|| stored_parameter.abs() <= 1e-12
{
reference.osnap_distance
} else {
stored_parameter
};
let parameter = if parameter.is_finite() { parameter } else { 0.0 };
let point = curve.point_at(parameter / TAU);
return Some(ocs_point(
point[0],
point[1],
circle.center.z,
circle.normal,
));
}
source_points(entity)
.get(reference.main_gs_marker.max(0) as usize)
.copied()
}
fn dimension_inference_points(dimension: &Dimension) -> Option<[Vector3; 2]> {
match dimension {
Dimension::Linear(linear) => Some([linear.first_point, linear.second_point]),
Dimension::Aligned(aligned) => Some([aligned.first_point, aligned.second_point]),
_ => None,
}
}
fn source_distance_squared(entity: &EntityType, point: Vector3) -> Option<f64> {
if let EntityType::Circle(circle) = entity {
let point = crate::scene::view::transform::wcs_point_to_ocs(
(point.x, point.y, point.z),
(circle.normal.x, circle.normal.y, circle.normal.z),
);
let radial_error = closest_point(&circle_curve(circle), [point.0, point.1]).distance;
let plane_error = point.2 - circle.center.z;
return Some(radial_error * radial_error + plane_error * plane_error);
}
source_points(entity)
.into_iter()
.map(|candidate| point_distance_squared(candidate, point))
.min_by(f64::total_cmp)
}
fn dimension_reference_points(dimension: &Dimension) -> Vec<Vector3> {
match dimension {
Dimension::Linear(linear) => vec![linear.first_point, linear.second_point],
Dimension::Aligned(aligned) => vec![aligned.first_point, aligned.second_point],
Dimension::Angular3Pt(angular) => vec![
angular.angle_vertex,
angular.first_point,
angular.second_point,
],
Dimension::Angular2Ln(angular) => vec![
angular.first_point,
angular.second_point,
angular.angle_vertex,
angular.definition_point,
],
_ => Vec::new(),
}
}
pub(crate) fn dimension_is_associative(
document: &acadrust::CadDocument,
dimension: Handle,
) -> bool {
document.objects.values().any(|object| {
let ObjectType::Associative(object) = object else {
return false;
};
let AssociativeData::DimensionAssociation(association) = &object.data else {
return false;
};
association.dimension == dimension
&& association.associativity != 0
&& association.references.iter().flatten().any(|reference| {
reference
.xrefs
.iter()
.any(|source| document.get_entity(*source).is_some())
})
})
}
pub(crate) fn radial_extension_points(
document: &acadrust::CadDocument,
dimension: Handle,
gap: f64,
extension: f64,
) -> Option<Vec<Vector3>> {
let EntityType::Dimension(dimension_entity) = document.get_entity(dimension)? else {
return None;
};
let target_point = match dimension_entity {
Dimension::Radius(radius) => radius.definition_point,
Dimension::Diameter(diameter) => diameter.angle_vertex,
_ => return None,
};
let association = document.objects.values().find_map(|object| {
let ObjectType::Associative(object) = object else {
return None;
};
let AssociativeData::DimensionAssociation(association) = &object.data else {
return None;
};
(association.dimension == dimension).then_some(association)
})?;
let reference = association.references[0].first()?;
let source = document.get_entity(*reference.xrefs.first()?)?;
let radial = radial_source_for_marker(source, reference.main_gs_marker)?;
if !radial.limited || radial.radius <= 1e-12 {
return None;
}
let target = radial.angle_at(dpoint(target_point));
if radial.contains_angle(target) {
return None;
}
let from_start = arc_span(target, radial.start_angle);
let from_end = arc_span(radial.end_angle, target);
let gap_angle = gap.max(0.0) / radial.radius;
let extension_angle = extension.max(0.0) / radial.radius;
let span = from_start.min(from_end);
if span <= gap_angle + 1e-10 {
return None;
}
let (start, end, reverse) = if from_start <= from_end {
(
target - extension_angle,
radial.start_angle - gap_angle,
true,
)
} else {
(
radial.end_angle + gap_angle,
target + extension_angle,
false,
)
};
let mut points: Vec<_> = tessellate_arc(
radial.center,
radial.radius,
start,
end,
0.0,
DEFAULT_SEGMENTS_PER_RADIAN,
)
.into_iter()
.map(|point| vector3(radial.plane.point_at([point[0], point[1]])))
.collect();
if reverse {
points.reverse();
}
Some(points)
}
impl Scene {
pub(crate) fn attach_dimension_association(
&mut self,
dimension: Handle,
sources: Vec<Option<Handle>>,
) {
self.attach_dimension_association_sources(
dimension,
sources
.into_iter()
.map(|source| source.map(DimensionAssociationSource::inferred))
.collect(),
);
}
pub(crate) fn attach_dimension_association_sources(
&mut self,
dimension: Handle,
sources: Vec<Option<DimensionAssociationSource>>,
) {
let Some(EntityType::Dimension(dimension_entity)) =
self.document.get_entity(dimension)
else {
return;
};
let radial_data = match dimension_entity {
Dimension::Radius(radius) => Some((
radius.angle_vertex,
radius.measurement(),
radius.definition_point,
)),
Dimension::Diameter(diameter) => Some((
diameter.center(),
diameter.measurement() * 0.5,
diameter.angle_vertex,
)),
_ => None,
};
if let Some((center, measured_radius, chord)) = radial_data {
let Some(source) = sources.iter().flatten().next().copied() else {
return;
};
let Some(source_entity) = self.document.get_entity(source.handle) else {
return;
};
let radial = source
.marker
.and_then(|marker| radial_source_for_marker(source_entity, marker))
.or_else(|| radial_source_matching(source_entity, center, measured_radius, chord));
let Some(radial) = radial else {
return;
};
let angle = if source.marker.is_some() && source.parameter.is_finite() {
source.parameter
} else {
radial.angle_at(dpoint(chord))
};
let reference = AssocDimensionReference {
class_name: "AcDbOsnapPointRef".to_string(),
osnap_type: 10,
xrefs: vec![source.handle],
main_subent_type: 1,
main_gs_marker: radial.marker,
osnap_distance: angle,
osnap_point: chord,
..AssocDimensionReference::default()
};
self.store_dimension_association(
dimension,
[vec![reference], Vec::new(), Vec::new(), Vec::new()],
1,
sources,
);
return;
}
let source_data = dimension_reference_points(dimension_entity);
if source_data.is_empty() {
return;
}
let resolved: Vec<Option<(Handle, i32, f64, u8)>> = source_data
.iter()
.take(4)
.enumerate()
.map(|(index, point)| {
let source = sources.get(index).copied().flatten()?;
let entity = self.document.get_entity(source.handle)?;
let (marker, parameter) = match source.marker {
Some(marker) => (marker, source.parameter),
None => source_reference(entity, *point)?,
};
let osnap_type = if matches!(entity, EntityType::Circle(_)) {
10
} else {
1
};
Some((source.handle, marker, parameter, osnap_type))
})
.collect();
if resolved.iter().all(Option::is_none) {
return;
}
let reference = |source: Handle,
marker: i32,
parameter: f64,
osnap_type: u8,
point: Vector3| AssocDimensionReference {
class_name: "AcDbOsnapPointRef".to_string(),
osnap_type,
xrefs: vec![source],
main_subent_type: 1,
main_gs_marker: marker,
osnap_distance: parameter,
osnap_point: point,
..AssocDimensionReference::default()
};
let mut references: [Vec<AssocDimensionReference>; 4] =
std::array::from_fn(|_| Vec::new());
let mut associativity = 0;
for (index, resolved) in resolved.into_iter().enumerate() {
if index >= references.len() {
break;
}
if let Some((source, marker, parameter, osnap_type)) = resolved {
associativity |= 1 << index;
references[index].push(reference(
source,
marker,
parameter,
osnap_type,
source_data[index],
));
}
}
self.store_dimension_association(dimension, references, associativity, sources);
}
fn store_dimension_association(
&mut self,
dimension: Handle,
references: [Vec<AssocDimensionReference>; 4],
associativity: i32,
sources: Vec<Option<DimensionAssociationSource>>,
) {
let association_handle = self.document.allocate_handle();
let mut object = AssociativeObject::new("DIMASSOC", "AcDbDimAssoc");
object.handle = association_handle;
object.reactors.push(dimension);
object.data = AssociativeData::DimensionAssociation(AssocDimensionAssociation {
associativity,
dimension,
references,
..AssocDimensionAssociation::default()
});
self.document
.objects
.insert(association_handle, ObjectType::Associative(object));
let mut reactor_targets = vec![dimension];
reactor_targets.extend(sources.into_iter().flatten().map(|source| source.handle));
reactor_targets.sort_by_key(|handle| handle.value());
reactor_targets.dedup();
for handle in reactor_targets {
if let Some(entity) = self.document.get_entity_mut(handle) {
if !entity.common().reactors.contains(&association_handle) {
entity.common_mut().reactors.push(association_handle);
}
}
}
}
pub(crate) fn infer_dimension_sources(
&self,
dimension: Handle,
) -> [Option<Handle>; 2] {
let Some(EntityType::Dimension(entity)) = self.document.get_entity(dimension)
else {
return [None, None];
};
let radial_data = match entity {
Dimension::Radius(radius) => Some((
radius.angle_vertex,
radius.measurement(),
radius.definition_point,
)),
Dimension::Diameter(diameter) => Some((
diameter.center(),
diameter.measurement() * 0.5,
diameter.angle_vertex,
)),
_ => None,
};
if let Some((center, radius, chord)) = radial_data {
let tolerance = radius.abs().max(1.0) * 1e-9;
let source = self
.document
.entities()
.filter(|candidate| candidate.common().handle != dimension)
.filter_map(|candidate| {
let radial = radial_source_matching(
candidate,
center,
radius,
chord,
)?;
let center_error = point_distance_squared(radial.center_world(), center);
let radius_error = (radial.radius - radius).powi(2);
(center_error + radius_error <= tolerance * tolerance).then_some((
center_error + radius_error,
candidate.common().handle,
))
})
.min_by(|first, second| first.0.total_cmp(&second.0))
.map(|(_, handle)| handle);
return [source, None];
}
let Some(points) = dimension_inference_points(entity) else {
return [None, None];
};
points.map(|point| {
self.document
.entities()
.filter(|entity| entity.common().handle != dimension)
.filter_map(|entity| {
source_distance_squared(entity, point)
.map(|distance| (distance, entity.common().handle))
})
.filter(|(distance, _)| *distance <= 1e-16)
.min_by(|first, second| first.0.total_cmp(&second.0))
.map(|(_, handle)| handle)
})
}
pub(crate) fn refresh_associative_dimensions(
&mut self,
changes: &[(Handle, ChangeKind)],
) -> Vec<(Handle, ChangeKind)> {
let changed: rustc_hash::FxHashSet<_> =
changes.iter().map(|(handle, _)| *handle).collect();
if changed.is_empty() {
return Vec::new();
}
let associations: Vec<_> = self
.document
.objects
.values()
.filter_map(|object| {
let ObjectType::Associative(object) = object else {
return None;
};
let AssociativeData::DimensionAssociation(association) = &object.data else {
return None;
};
association
.references
.iter()
.flatten()
.any(|reference| reference.xrefs.iter().any(|handle| changed.contains(handle)))
.then_some(association.clone())
})
.collect();
let mut refreshed = Vec::new();
for association in associations {
let resolved: [Option<Vector3>; 4] = std::array::from_fn(|index| {
association.references[index]
.first()
.and_then(|reference| resolve_reference(self, reference))
});
let radial_source = association.references[0].first().and_then(|reference| {
let source = *reference.xrefs.first()?;
let entity = self.document.get_entity(source)?;
let radial = radial_source_for_marker(entity, reference.main_gs_marker)?;
Some((radial, reference.osnap_distance))
});
if radial_source.is_none() && resolved.iter().all(Option::is_none) {
continue;
}
let Some(EntityType::Dimension(dimension)) =
self.document.get_entity_mut(association.dimension)
else {
continue;
};
match dimension {
Dimension::Linear(linear) => {
if let Some(point) = resolved[0] {
linear.first_point = point;
}
if let Some(point) = resolved[1] {
linear.second_point = point;
}
linear.base.definition_point = linear.definition_point;
}
Dimension::Aligned(aligned) => {
if let Some(point) = resolved[0] {
aligned.first_point = point;
}
if let Some(point) = resolved[1] {
aligned.second_point = point;
}
aligned.base.definition_point = aligned.definition_point;
}
Dimension::Angular3Pt(angular) => {
if let Some(point) = resolved[0] {
angular.angle_vertex = point;
}
if let Some(point) = resolved[1] {
angular.first_point = point;
}
if let Some(point) = resolved[2] {
angular.second_point = point;
}
angular.base.definition_point = angular.definition_point;
}
Dimension::Angular2Ln(angular) => {
if let Some(point) = resolved[0] {
angular.first_point = point;
}
if let Some(point) = resolved[1] {
angular.second_point = point;
}
if let Some(point) = resolved[2] {
angular.angle_vertex = point;
}
if let Some(point) = resolved[3] {
angular.definition_point = point;
}
angular.base.definition_point = angular.definition_point;
}
Dimension::Radius(radius) => {
let Some((radial, angle)) = radial_source else {
continue;
};
let old_chord = radius.definition_point;
let new_center = radial.center_world();
let new_chord = radial.point_at_angle(angle);
let delta = Vector3::new(
new_chord.x - old_chord.x,
new_chord.y - old_chord.y,
new_chord.z - old_chord.z,
);
radius.angle_vertex = new_center;
radius.definition_point = new_chord;
radius.base.definition_point = new_chord;
if radius.base.text_user_positioned {
radius.base.text_middle_point = radius.base.text_middle_point + delta;
radius.base.insertion_point = radius.base.insertion_point + delta;
}
radius.base.actual_measurement = radius.measurement();
}
Dimension::Diameter(diameter) => {
let Some((radial, angle)) = radial_source else {
continue;
};
let old_chord = diameter.angle_vertex;
let new_chord = radial.point_at_angle(angle);
let new_far_chord = radial.point_at_angle(angle + std::f64::consts::PI);
let delta = Vector3::new(
new_chord.x - old_chord.x,
new_chord.y - old_chord.y,
new_chord.z - old_chord.z,
);
diameter.angle_vertex = new_chord;
diameter.definition_point = new_far_chord;
diameter.base.definition_point = new_far_chord;
if diameter.base.text_user_positioned {
diameter.base.text_middle_point = diameter.base.text_middle_point + delta;
diameter.base.insertion_point = diameter.base.insertion_point + delta;
}
diameter.base.actual_measurement = diameter.measurement();
}
_ => continue,
}
dimension.base_mut().actual_measurement = dimension.measurement();
refreshed.push((association.dimension, ChangeKind::Modified));
}
refreshed
}
}