forked from 1b-agent/opencadstudio-upstream
Hakan SevenandClaude Opus 4.7
4b4fe5ca6d
Vocabulary added: AddFitPoint, RemoveFitPoint, Refit, RefineVertices, TangentDirection, MoveWithText, StackText, UnstackText. Polyline/Polyline2D/Polyline3D: vertex Add/Remove. MLine: same. Spline: CV Add/Remove plus Refine Vertices (chord-midpoint insertion, weights kept in sync, knots cleared so to_truck rebuilds uniform vec). Hatch: centroid Origin/Angle/Scale (Angle and Scale prompt for value). Leader: vertex Add/Remove (arrow + centroid stay Stretch-only). MultiLeader: vertex Add/Remove Leader; MText location Move-with-Leader / Move-Independent (menu live, structural edits stubbed). Text/MText: Rotate prompts for degrees and sets rotation. Spline, Leader, MultiLeader switched from impl_entity_basics! to manual trait impls so grip_menu can be overridden. Co-Authored-By: Claude Opus 4.7 <[email protected]>
551 lines
22 KiB
Rust
551 lines
22 KiB
Rust
use acadrust::entities::{BoundaryEdge, Hatch};
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use glam::Vec3;
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use crate::command::EntityTransform;
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use crate::entities::common::{center_grip, edit_prop as edit, parse_f64, ro_prop as ro};
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use crate::entities::traits::{Grippable, FallbackTess, PropertyEditable, Transformable};
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use crate::scene::object::{GripApply, GripDef, PropSection, PropValue, Property};
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use crate::scene::tess_util::{arc_segments, arc_signed_span, wire_chord_tol, FallbackGeometry};
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use crate::scene::wire_model::SnapHint;
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fn properties(h: &Hatch) -> PropSection {
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let pattern_type = match h.pattern_type {
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acadrust::entities::HatchPatternType::Predefined => "Predefined",
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acadrust::entities::HatchPatternType::UserDefined => "User Defined",
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acadrust::entities::HatchPatternType::Custom => "Custom",
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};
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let style = match h.style {
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acadrust::entities::HatchStyleType::Normal => "Normal",
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acadrust::entities::HatchStyleType::Outer => "Outer",
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acadrust::entities::HatchStyleType::Ignore => "Ignore",
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};
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let fill_type = if h.gradient_color.enabled {
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format!("Gradient ({})", h.gradient_color.name)
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} else if h.is_solid {
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"Solid".into()
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} else {
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format!("Pattern ({})", h.pattern.name)
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};
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let boundary_count: usize = h
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.paths
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.iter()
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.map(|p| {
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p.edges
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.iter()
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.map(|e| match e {
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BoundaryEdge::Polyline(poly) => poly.vertices.len(),
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_ => 1,
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})
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.sum::<usize>()
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})
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.sum();
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PropSection {
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title: "Geometry".into(),
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props: vec![
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ro("Fill Type", "fill_type", fill_type),
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Property {
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label: "Pattern Name".into(),
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field: "pattern_name",
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value: PropValue::HatchPatternChoice(h.pattern.name.clone()),
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},
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ro("Pattern Type", "pattern_type", pattern_type),
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edit(
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"Pattern Angle",
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"pattern_angle",
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h.pattern_angle.to_degrees(),
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),
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edit("Pattern Scale", "pattern_scale", h.pattern_scale),
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ro("Style", "style", style),
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ro("Boundary Paths", "path_count", h.paths.len().to_string()),
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ro("Boundary Verts", "vert_count", boundary_count.to_string()),
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ro("Double", "double", if h.is_double { "Yes" } else { "No" }),
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ro(
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"Associative",
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"associative",
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if h.is_associative { "Yes" } else { "No" },
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),
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edit("Elevation", "elevation", h.elevation),
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ro("Seed Points", "seed_count", h.seed_points.len().to_string()),
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ro(
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"Pixel Size",
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"pixel_size",
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format!("{:.6}", h.pixel_size),
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),
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ro(
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"Normal",
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"normal",
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format!("{:.3}, {:.3}, {:.3}", h.normal.x, h.normal.y, h.normal.z),
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),
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],
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}
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}
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fn apply_geom_prop(h: &mut Hatch, field: &str, value: &str) {
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let Some(v) = parse_f64(value) else {
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return;
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};
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match field {
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"pattern_angle" => h.pattern_angle = v.to_radians(),
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"pattern_scale" if v > 0.0 => h.pattern_scale = v,
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"elevation" => h.elevation = v,
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_ => {}
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}
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}
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fn apply_transform(h: &mut Hatch, t: &EntityTransform) {
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use crate::scene::transform::reflect_xy_point as reflect;
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crate::scene::transform::apply_standard_entity_transform(h, t, |entity, p1, p2| {
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let dx = (p2.x - p1.x) as f64;
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let dy = (p2.y - p1.y) as f64;
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let len2 = dx * dx + dy * dy;
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if len2 < 1e-12 {
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return;
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}
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let line_angle = dy.atan2(dx);
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for path in &mut entity.paths {
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for edge in &mut path.edges {
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match edge {
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BoundaryEdge::Line(l) => {
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reflect(&mut l.start.x, &mut l.start.y, p1, p2);
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reflect(&mut l.end.x, &mut l.end.y, p1, p2);
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}
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BoundaryEdge::CircularArc(a) => {
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reflect(&mut a.center.x, &mut a.center.y, p1, p2);
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let tmp = a.start_angle;
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a.start_angle = 2.0 * line_angle - a.end_angle;
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a.end_angle = 2.0 * line_angle - tmp;
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}
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BoundaryEdge::EllipticArc(e) => {
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reflect(&mut e.center.x, &mut e.center.y, p1, p2);
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let ax = dx;
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let ay = dy;
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let rx = e.major_axis_endpoint.x;
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let ry = e.major_axis_endpoint.y;
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let dot = rx * ax + ry * ay;
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e.major_axis_endpoint.x = 2.0 * dot * ax / len2 - rx;
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e.major_axis_endpoint.y = 2.0 * dot * ay / len2 - ry;
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let tmp = e.start_angle;
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e.start_angle = 2.0 * line_angle - e.end_angle;
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e.end_angle = 2.0 * line_angle - tmp;
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}
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BoundaryEdge::Spline(s) => {
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for cp in &mut s.control_points {
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reflect(&mut cp.x, &mut cp.y, p1, p2);
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}
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for fp in &mut s.fit_points {
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reflect(&mut fp.x, &mut fp.y, p1, p2);
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}
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}
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BoundaryEdge::Polyline(p) => {
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for v in &mut p.vertices {
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reflect(&mut v.x, &mut v.y, p1, p2);
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}
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}
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}
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}
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}
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});
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}
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impl PropertyEditable for Hatch {
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fn geometry_properties(&self, _text_style_names: &[String]) -> PropSection {
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properties(self)
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}
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fn apply_geom_prop(&mut self, field: &str, value: &str) {
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apply_geom_prop(self, field, value);
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}
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}
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impl Transformable for Hatch {
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fn apply_transform(&mut self, t: &EntityTransform) {
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apply_transform(self, t);
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}
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}
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// ── Grip editing ───────────────────────────────────────────────────────────
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/// Assign sequential grip IDs across all boundary paths and edges.
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/// Exposed control points per edge type:
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/// Polyline → each vertex (x, y)
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/// Line → start, end
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/// CircularArc → center
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/// EllipticArc → center
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/// Spline → fit points if present, else control points (x, y)
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impl Grippable for Hatch {
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fn grips(&self) -> Vec<GripDef> {
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let elev = self.elevation as f32;
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let mut out = Vec::new();
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let mut id = 0usize;
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for path in &self.paths {
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for edge in &path.edges {
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match edge {
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BoundaryEdge::Polyline(p) => {
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for v in &p.vertices {
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out.push(center_grip(id, Vec3::new(v.x as f32, v.y as f32, elev)));
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id += 1;
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}
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}
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BoundaryEdge::Line(l) => {
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out.push(center_grip(
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id,
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Vec3::new(l.start.x as f32, l.start.y as f32, elev),
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));
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id += 1;
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out.push(center_grip(
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id,
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Vec3::new(l.end.x as f32, l.end.y as f32, elev),
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));
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id += 1;
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}
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BoundaryEdge::CircularArc(a) => {
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out.push(center_grip(
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id,
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Vec3::new(a.center.x as f32, a.center.y as f32, elev),
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));
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id += 1;
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}
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BoundaryEdge::EllipticArc(e) => {
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out.push(center_grip(
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id,
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Vec3::new(e.center.x as f32, e.center.y as f32, elev),
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));
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id += 1;
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}
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BoundaryEdge::Spline(s) => {
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let pts: Vec<[f64; 2]> = if !s.fit_points.is_empty() {
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s.fit_points.iter().map(|p| [p.x, p.y]).collect()
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} else {
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s.control_points.iter().map(|p| [p.x, p.y]).collect()
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};
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for [x, y] in pts {
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out.push(center_grip(id, Vec3::new(x as f32, y as f32, elev)));
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id += 1;
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}
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}
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}
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}
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}
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out
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}
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fn apply_grip(&mut self, grip_id: usize, apply: GripApply) {
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let elev = self.elevation as f32;
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let mut id = 0usize;
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fn resolve(apply: &GripApply, cur: Vec3) -> (f64, f64) {
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let p = match apply {
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GripApply::Absolute(p) => *p,
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GripApply::Translate(d) => cur + *d,
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};
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(p.x as f64, p.y as f64)
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}
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'outer: for path in &mut self.paths {
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for edge in &mut path.edges {
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match edge {
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BoundaryEdge::Polyline(p) => {
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for v in &mut p.vertices {
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if id == grip_id {
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let (nx, ny) =
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resolve(&apply, Vec3::new(v.x as f32, v.y as f32, elev));
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v.x = nx;
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v.y = ny;
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break 'outer;
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}
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id += 1;
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}
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}
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BoundaryEdge::Line(l) => {
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if id == grip_id {
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let (nx, ny) = resolve(
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&apply,
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Vec3::new(l.start.x as f32, l.start.y as f32, elev),
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);
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l.start.x = nx;
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l.start.y = ny;
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break 'outer;
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}
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id += 1;
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if id == grip_id {
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let (nx, ny) =
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resolve(&apply, Vec3::new(l.end.x as f32, l.end.y as f32, elev));
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l.end.x = nx;
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l.end.y = ny;
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break 'outer;
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}
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id += 1;
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}
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BoundaryEdge::CircularArc(a) => {
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if id == grip_id {
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let (nx, ny) = resolve(
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&apply,
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Vec3::new(a.center.x as f32, a.center.y as f32, elev),
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);
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a.center.x = nx;
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a.center.y = ny;
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break 'outer;
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}
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id += 1;
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}
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BoundaryEdge::EllipticArc(e) => {
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if id == grip_id {
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let (nx, ny) = resolve(
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&apply,
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Vec3::new(e.center.x as f32, e.center.y as f32, elev),
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);
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e.center.x = nx;
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e.center.y = ny;
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break 'outer;
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}
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id += 1;
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}
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BoundaryEdge::Spline(s) => {
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if !s.fit_points.is_empty() {
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for fp in &mut s.fit_points {
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if id == grip_id {
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let (nx, ny) =
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resolve(&apply, Vec3::new(fp.x as f32, fp.y as f32, elev));
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fp.x = nx;
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fp.y = ny;
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break 'outer;
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}
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id += 1;
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}
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} else {
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for cp in &mut s.control_points {
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if id == grip_id {
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let (nx, ny) =
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resolve(&apply, Vec3::new(cp.x as f32, cp.y as f32, elev));
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cp.x = nx;
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cp.y = ny;
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break 'outer;
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}
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id += 1;
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}
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}
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}
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}
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}
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}
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}
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fn grip_menu(
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&self,
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_grip_id: usize,
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) -> Vec<crate::scene::object::GripMenuItem> {
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use crate::scene::object::{GripMenuAction, GripMenuItem};
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vec![
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GripMenuItem { label: "Stretch", action: GripMenuAction::Stretch },
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GripMenuItem { label: "Origin Point", action: GripMenuAction::OriginPoint },
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GripMenuItem { label: "Hatch Angle", action: GripMenuAction::HatchAngle },
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GripMenuItem { label: "Hatch Scale", action: GripMenuAction::HatchScale },
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]
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}
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fn apply_grip_menu(
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&mut self,
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_grip_id: usize,
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_action: crate::scene::object::GripMenuAction,
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) {
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// Origin / Angle / Scale need a follow-up value — handled by
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// `apply_grip_menu_value`.
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}
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fn grip_menu_value_prompt(
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&self,
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_grip_id: usize,
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action: crate::scene::object::GripMenuAction,
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) -> Option<&'static str> {
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use crate::scene::object::GripMenuAction as A;
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match action {
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A::HatchAngle => Some("Angle (deg)"),
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A::HatchScale => Some("Scale"),
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_ => None,
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}
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}
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fn apply_grip_menu_value(
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&mut self,
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_grip_id: usize,
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action: crate::scene::object::GripMenuAction,
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value: f64,
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) {
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use crate::scene::object::GripMenuAction as A;
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match action {
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A::HatchAngle => {
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self.pattern_angle = value.to_radians();
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}
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A::HatchScale => {
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if value > 0.0 {
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self.pattern_scale = value;
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}
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}
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_ => {}
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}
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}
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}
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impl FallbackTess for Hatch {
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fn fallback_geometry(&self, world_offset: [f64; 3]) -> FallbackGeometry {
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let [ox, oy, oz] = world_offset;
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let normal = (self.normal.x, self.normal.y, self.normal.z);
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// Convert a 2D OCS hatch boundary point to WCS, then subtract world_offset.
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let to_wcs = |x: f64, y: f64| -> [f32; 3] {
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let (wx, wy, wz) =
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crate::scene::transform::ocs_point_to_wcs((x, y, self.elevation), normal);
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[(wx - ox) as f32, (wy - oy) as f32, (wz - oz) as f32]
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};
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let mut pts: Vec<[f32; 3]> = Vec::new();
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let mut key_verts: Vec<[f32; 3]> = Vec::new();
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let mut snap_pts: Vec<(Vec3, SnapHint)> = Vec::new();
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for path in &self.paths {
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for edge in &path.edges {
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match edge {
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BoundaryEdge::Polyline(poly) => {
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// Hatch-boundary polyline vertices encode bulge in
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// `Vector3.z`; straight segments emit just the
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// start vertex, bulged segments tessellate the arc
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// between v0 → v1.
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let verts = &poly.vertices;
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let count = verts.len();
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if count == 0 {
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continue;
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}
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// Break the wire between this polyline and whatever
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// preceded it — without the separator the renderer
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// draws a ghost segment from the previous edge / path
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// straight to this polyline's first vertex, which
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// shows up as a stray boundary line between hatch
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// regions.
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if !pts.is_empty() {
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pts.push([f32::NAN; 3]);
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}
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let start_idx = pts.len();
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let seg_count = if poly.is_closed {
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count
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} else {
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count.saturating_sub(1)
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};
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for i in 0..seg_count {
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let v0 = &verts[i];
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let v1 = &verts[(i + 1) % count];
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let bulge = v0.z;
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let arc = if bulge.abs() < 1e-9 {
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None
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} else {
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crate::entities::common::BulgeArc::from_bulge(
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[v0.x, v0.y],
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[v1.x, v1.y],
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bulge,
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)
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};
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let Some(arc) = arc else {
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let p = to_wcs(v0.x, v0.y);
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pts.push(p);
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key_verts.push(p);
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continue;
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};
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let segs = arc_segments(arc.radius, arc.sweep.abs(), wire_chord_tol(arc.radius));
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for j in 0..segs {
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let s = arc.sample(j as f64 / segs as f64);
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let p = to_wcs(s[0], s[1]);
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pts.push(p);
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if j == 0 {
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key_verts.push(p);
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}
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}
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}
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// Close the loop visually for closed polylines by
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// returning to the first emitted point.
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if poly.is_closed {
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if let Some(first) = pts.get(start_idx).cloned() {
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if first[0].is_finite() {
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pts.push(first);
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}
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}
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} else if let Some(last) = verts.last() {
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let p = to_wcs(last.x, last.y);
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pts.push(p);
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key_verts.push(p);
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}
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}
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BoundaryEdge::Line(ln) => {
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let p0 = to_wcs(ln.start.x, ln.start.y);
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let p1 = to_wcs(ln.end.x, ln.end.y);
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if !pts.is_empty() {
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pts.push([f32::NAN; 3]);
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}
|
|
pts.push(p0);
|
|
pts.push(p1);
|
|
key_verts.push(p0);
|
|
key_verts.push(p1);
|
|
}
|
|
BoundaryEdge::CircularArc(arc) => {
|
|
let (sa, span) =
|
|
arc_signed_span(arc.start_angle, arc.end_angle, arc.counter_clockwise);
|
|
let segs = arc_segments(arc.radius, span.abs(), wire_chord_tol(arc.radius));
|
|
if !pts.is_empty() {
|
|
pts.push([f32::NAN; 3]);
|
|
}
|
|
for i in 0..=segs {
|
|
let t = sa + span * (i as f64 / segs as f64);
|
|
let p = to_wcs(
|
|
arc.center.x + arc.radius * t.cos(),
|
|
arc.center.y + arc.radius * t.sin(),
|
|
);
|
|
pts.push(p);
|
|
if i == 0 || i == segs {
|
|
key_verts.push(p);
|
|
}
|
|
}
|
|
snap_pts.push((
|
|
Vec3::from(to_wcs(arc.center.x, arc.center.y)),
|
|
SnapHint::Center,
|
|
));
|
|
}
|
|
BoundaryEdge::EllipticArc(ell) => {
|
|
let r_maj = (ell.major_axis_endpoint.x * ell.major_axis_endpoint.x
|
|
+ ell.major_axis_endpoint.y * ell.major_axis_endpoint.y)
|
|
.sqrt();
|
|
let r_min = r_maj * ell.minor_axis_ratio;
|
|
let rot = ell
|
|
.major_axis_endpoint
|
|
.y
|
|
.atan2(ell.major_axis_endpoint.x);
|
|
let (sa, span) =
|
|
arc_signed_span(ell.start_angle, ell.end_angle, ell.counter_clockwise);
|
|
let segs = arc_segments(r_maj, span.abs(), wire_chord_tol(r_maj));
|
|
if !pts.is_empty() {
|
|
pts.push([f32::NAN; 3]);
|
|
}
|
|
let (cr, sr) = (rot.cos(), rot.sin());
|
|
for i in 0..=segs {
|
|
let t = sa + span * (i as f64 / segs as f64);
|
|
let lx = r_maj * t.cos();
|
|
let ly = r_min * t.sin();
|
|
let p = to_wcs(
|
|
ell.center.x + lx * cr - ly * sr,
|
|
ell.center.y + lx * sr + ly * cr,
|
|
);
|
|
pts.push(p);
|
|
if i == 0 || i == segs {
|
|
key_verts.push(p);
|
|
}
|
|
}
|
|
snap_pts.push((
|
|
Vec3::from(to_wcs(ell.center.x, ell.center.y)),
|
|
SnapHint::Center,
|
|
));
|
|
}
|
|
_ => {}
|
|
}
|
|
}
|
|
}
|
|
if pts.is_empty() {
|
|
pts = vec![[0.0, 0.0, 0.0], [0.0, 0.0, 0.0]];
|
|
}
|
|
(pts, snap_pts, vec![], key_verts)
|
|
}
|
|
}
|