Verify OA and SA Arrange policy boundaries with focused production modules

This commit is contained in:
2026-09-23 07:41:54 -07:00
parent 3a7923b96d
commit 8dbbaf262e
3 changed files with 378 additions and 53 deletions
@@ -0,0 +1,14 @@
//! Focused test harness for the production Allocation planner and Document.
//! This does not exercise App input, painting, or native gestures.
#[cfg(test)]
#[allow(dead_code)] // App-facing entry points are intentionally absent here.
#[path = "../src/allocation_drag.rs"]
mod allocation_drag;
#[cfg(test)]
#[allow(dead_code, unused_imports)] // App-facing API and reexports are absent here.
#[path = "../src/document.rs"]
mod document;
fn main() {}
+1
View File
@@ -833,4 +833,5 @@ fn exact_project(expected: &Project, actual: &Project) -> Result<(), Refusal> {
}
#[cfg(test)]
#[path = "allocation_drag/tests.rs"]
mod tests;
@@ -1,4 +1,5 @@
//! Unaccepted mixed-Arrange experiment. No production admission is changed.
//! Reviewed policy experiment using the production projection and translator.
//! No production admission or atomic-refusal behavior is tested here.
use super::*;
struct Mixed {
@@ -7,52 +8,98 @@ struct Mixed {
xn: Id,
yn: Id,
internal: Id,
include_performer: bool,
}
fn mixed(collapsed: bool, obstacle: bool) -> Mixed {
let mut f = fixture(Layer::Oa);
let x = f.p.add_element(Kind::Activity, Layer::Oa, "X", Some(f.w)).unwrap();
let y = f.p.add_element(Kind::Activity, Layer::Oa, "Y", Some(f.w)).unwrap();
let outside = f.p.add_element(Kind::Activity, Layer::Oa, "Outside", None).unwrap();
fn mixed(layer: Layer, collapsed: bool, obstacle: bool, include_performer: bool) -> Mixed {
let mut f = fixture(layer);
let work = f.p.elements[&f.w].kind();
let exchange = match layer {
Layer::Oa => RelationKind::Interaction,
Layer::Sa => RelationKind::FunctionalExchange,
};
let x = f.p.add_element(work, layer, "X", Some(f.w)).unwrap();
let y = f.p.add_element(work, layer, "Y", Some(f.w)).unwrap();
let outside = f.p.add_element(work, layer, "Outside", None).unwrap();
let xn = f.p.place(f.d, x, xy(140., 200.));
let yn = f.p.place(f.d, y, xy(940., 200.));
f.p.place(f.d, outside, xy(1800., 800.));
f.p.relate(RelationKind::Allocation, "A owns X", f.a, x);
f.p.relate(RelationKind::Allocation, "B owns Y", f.b, y);
let internal = f.p.relate(RelationKind::Interaction, "X to Y", x, y);
let external = f.p.relate(RelationKind::Interaction, "Y to Outside", y, outside);
let an = f.p.diagrams[&f.d].nodes.values().find(|n| n.element == f.a).unwrap().id;
// FunctionalExchange's actual builder creates valid function input/output
// ports; do not manufacture Interaction records between SA Functions.
let internal = f.p.relate(exchange, "X to Y", x, y);
let external = f.p.relate(exchange, "Y to Outside", y, outside);
let an = f.p.diagrams[&f.d]
.nodes
.values()
.find(|n| n.element == f.a)
.unwrap()
.id;
let d = f.p.diagrams.get_mut(&f.d).unwrap();
d.nodes.get_mut(&f.n).unwrap().position = xy(100., 800.);
d.nodes.get_mut(&an).unwrap().collapsed = collapsed;
d.routes = vec![route(internal), route(external)];
if obstacle {
let id = f.p.add_element(Kind::Activity, Layer::Oa, "Stationary obstacle", None).unwrap();
let id =
f.p.add_element(work, layer, "Stationary obstacle", None)
.unwrap();
f.p.place(f.d, id, xy(550., 230.));
}
validate_candidate(&f.p).unwrap();
let captured = scope(&f);
assert_eq!(captured.uniform, Uniform::MixedOrUnresolved);
assert_eq!(captured.placements.keys().copied().collect::<BTreeSet<_>>(), BTreeSet::from([f.n, xn, yn]));
assert_eq!(
captured.placements.keys().copied().collect::<BTreeSet<_>>(),
BTreeSet::from([f.n, xn, yn])
);
// Explicit control: the real current API still refuses Arrange for this root.
assert!(matches!(plan_semantics(&f.p, &captured, Destination::LayoutOnly, &BTreeMap::new()), Err(Refusal::MixedLayoutRequired)));
Mixed { f, an, xn, yn, internal }
assert!(matches!(
plan_semantics(&f.p, &captured, Destination::LayoutOnly, &BTreeMap::new()),
Err(Refusal::MixedLayoutRequired)
));
assert!(matches!(
plan_semantics(
&f.p,
&captured,
Destination::Performer(f.a),
&BTreeMap::new()
),
Err(Refusal::MixedLayoutRequired)
));
Mixed {
f,
an,
xn,
yn,
internal,
include_performer,
}
}
fn affected(m: &Mixed) -> BTreeSet<Id> {
let mut ids: BTreeSet<_> = scope(&m.f).placements.keys().copied().collect();
ids.insert(m.an);
ids.extend(projection::descendant_nodes(&m.f.p, m.f.d, m.an));
assert_eq!(ids, BTreeSet::from([m.an, m.f.n, m.xn, m.yn]));
let mut expected = BTreeSet::from([m.f.n, m.xn, m.yn]);
if m.include_performer {
ids.insert(m.an);
ids.extend(projection::descendant_nodes(&m.f.p, m.f.d, m.an));
expected.insert(m.an);
}
assert_eq!(ids, expected);
ids
}
// Diagnostic expansion changes only a temporary Diagram. Include affected
// descendants and ancestors even when the normal projection hides them.
// Unrelated folded interiors are intentionally OUTSIDE this diagnostic domain.
fn diagnostic(p: &Project, diagram: Id, ids: &BTreeSet<Id>) -> ProjectedView {
let mut d = p.diagrams[&diagram].clone();
for (id, node) in &mut d.nodes {
if ids.contains(id) || projection::descendant_nodes(p, diagram, *id).iter().any(|n| ids.contains(n)) {
if ids.contains(id)
|| projection::descendant_nodes(p, diagram, *id)
.iter()
.any(|n| ids.contains(n))
{
node.collapsed = false;
}
}
@@ -74,67 +121,330 @@ fn rigid(before: &ProjectedView, after: &ProjectedView, ids: &BTreeSet<Id>) {
// falsely enlarged Scope. The combined scene uses the real overlap predicate.
fn candidate(m: &Mixed) -> (Command, Project) {
let ids = affected(m);
let command = oa_core::diagram_edit::translate_placements(&m.f.p, m.f.d, &ids, xy(400., 0.)).unwrap();
let command =
oa_core::diagram_edit::translate_placements(&m.f.p, m.f.d, &ids, xy(400., 0.)).unwrap();
let actual = prepare_command(&m.f.p, &command).unwrap().project;
validate_candidate(&actual).unwrap();
// Independent literal expected Project: no planner or route helper oracle.
let mut expected = m.f.p.clone();
let d = expected.diagrams.get_mut(&m.f.d).unwrap();
for (id, position) in [(m.an, xy(500., 100.)), (m.f.n, xy(500., 800.)), (m.xn, xy(540., 200.)), (m.yn, xy(1340., 200.))] {
for (id, position) in [
(m.f.n, xy(500., 800.)),
(m.xn, xy(540., 200.)),
(m.yn, xy(1340., 200.)),
] {
d.nodes.get_mut(&id).unwrap().position = position;
}
if m.include_performer {
d.nodes.get_mut(&m.an).unwrap().position = xy(500., 100.);
}
let internal = d.routes.iter_mut().find(|r| r.edge == m.internal).unwrap();
internal.waypoints = vec![xy(820., 400.), xy(820., 550.)];
assert_eq!(actual, expected, "complete records, including folds, routes, other view and relations");
assert_eq!(
actual, expected,
"complete records, including folds, routes, other view and relations"
);
(command, actual)
}
#[test]
fn mixed_arrange_experiment_distributed_root_and_performer_can_translate_rigidly() {
for collapsed in [false, true] {
let m = mixed(collapsed, false);
for layer in [Layer::Oa, Layer::Sa] {
let enclosure_height = match layer {
Layer::Oa => 218.,
Layer::Sa => 256.,
};
for include_performer in [false, true] {
for collapsed in [false, true] {
let m = mixed(layer, collapsed, false, include_performer);
let accepted = m.f.p.clone();
let (command, actual) = candidate(&m);
let ids = affected(&m);
let before = projection::project_view(&accepted, m.f.d);
let after = projection::project_view(&actual, m.f.d);
let before_expanded = diagnostic(&accepted, m.f.d, &ids);
let after_expanded = diagnostic(&actual, m.f.d, &ids);
assert!(
!overlaps(&before, &after),
"visible scene must admit the combined move"
);
assert!(
!overlaps(&before_expanded, &after_expanded),
"expanded scene must admit the combined move"
);
rigid(&before_expanded, &after_expanded, &ids);
for node in after.nodes.iter().chain(&after_expanded.nodes) {
assert!(
(Rect {
position: node.position,
size: node.size
})
.valid()
);
}
// Explicit selected headers remain visible. Native clipping/readability
// and complete group gesture admission are intentionally not claimed.
assert!(after.nodes.iter().any(|n| n.id == m.f.n));
if include_performer {
assert!(after.nodes.iter().any(|n| n.id == m.an));
} else {
assert_eq!(
actual.diagrams[&m.f.d].nodes[&m.an],
accepted.diagrams[&m.f.d].nodes[&m.an]
);
assert_eq!(node(&before_expanded, m.an).position, xy(100., 100.));
assert_eq!(
node(&before_expanded, m.an).size,
Size {
width: 288.,
height: enclosure_height
}
);
assert_eq!(node(&after_expanded, m.an).position, xy(100., 100.));
assert_eq!(
node(&after_expanded, m.an).size,
Size {
width: 688.,
height: enclosure_height
}
);
}
assert_eq!(roundtrip(&accepted, command), actual);
assert_eq!(m.f.p, accepted);
}
}
}
}
#[test]
fn mixed_arrange_experiment_detects_moved_folded_child_collision() {
for layer in [Layer::Oa, Layer::Sa] {
let expected_overlap = match layer {
Layer::Oa => 13696.,
Layer::Sa => 20116.,
};
let m = mixed(layer, true, true, true);
let accepted = m.f.p.clone();
let (command, actual) = candidate(&m);
let (_, actual) = candidate(&m);
let ids = affected(&m);
let before = projection::project_view(&accepted, m.f.d);
let after = projection::project_view(&actual, m.f.d);
assert!(!before.nodes.iter().any(|n| n.id == m.xn));
assert!(!after.nodes.iter().any(|n| n.id == m.xn));
assert!(
!overlaps(&before, &after),
"must distinguish hidden collision from ordinary visible refusal"
);
let before_expanded = diagnostic(&accepted, m.f.d, &ids);
let after_expanded = diagnostic(&actual, m.f.d, &ids);
assert!(!overlaps(&before, &after), "visible scene must admit the combined move");
assert!(!overlaps(&before_expanded, &after_expanded), "expanded scene must admit the combined move");
rigid(&before_expanded, &after_expanded, &ids);
for node in after.nodes.iter().chain(&after_expanded.nodes) {
assert!((Rect { position: node.position, size: node.size }).valid());
let obstacle = before_expanded
.nodes
.iter()
.find(|n| n.position == xy(550., 230.))
.unwrap()
.id;
assert_eq!(
overlap(
node(&before_expanded, m.xn),
node(&before_expanded, obstacle)
),
0.
);
assert_eq!(
overlap(node(&after_expanded, m.xn), node(&after_expanded, obstacle)),
expected_overlap
);
assert!(
overlaps(&before_expanded, &after_expanded),
"combined diagnostic scene must refuse"
);
// Detection only: there is no production group admission/commit API here.
assert_eq!(m.f.p, accepted);
}
}
fn node(view: &ProjectedView, id: Id) -> &ProjectedNode {
view.nodes.iter().find(|n| n.id == id).unwrap()
}
#[test]
fn mixed_arrange_experiment_detects_stationary_enclosure_growth_collision() {
for layer in [Layer::Oa, Layer::Sa] {
let enclosure_height = match layer {
Layer::Oa => 218.,
Layer::Sa => 256.,
};
let mut m = mixed(layer, false, false, true);
let kind = m.f.p.elements[&m.f.w].kind();
let z =
m.f.p
.add_element(kind, layer, "Stationary Z", None)
.unwrap();
let zn = m.f.p.place(m.f.d, z, xy(1200., 100.));
validate_candidate(&m.f.p).unwrap();
let accepted = m.f.p.clone();
let (_, actual) = candidate(&m);
let bn = accepted.diagrams[&m.f.d]
.nodes
.values()
.find(|n| n.element == m.f.b)
.unwrap()
.id;
let before = projection::project_view(&accepted, m.f.d);
let after = projection::project_view(&actual, m.f.d);
assert_eq!(node(&before, bn).position, xy(900., 100.));
assert_eq!(
node(&before, bn).size,
Size {
width: 288.,
height: enclosure_height
}
);
assert_eq!(node(&after, bn).position, xy(900., 100.));
assert_eq!(
node(&after, bn).size,
Size {
width: 688.,
height: enclosure_height
}
);
assert_eq!(node(&after, zn).position, xy(1200., 100.));
assert_eq!(
node(&after, zn).size,
Size {
width: 224.,
height: 94.
}
);
assert_eq!(overlap(node(&before, bn), node(&before, zn)), 0.);
assert_eq!(overlap(node(&after, bn), node(&after, zn)), 21056.);
assert_eq!(node(&after, m.yn).position, xy(1340., 200.));
assert_eq!(
node(&after, m.yn).position.y
- (node(&after, zn).position.y + node(&after, zn).size.height),
6.
);
for id in affected(&m) {
assert_eq!(overlap(node(&before, id), node(&before, zn)), 0.);
assert_eq!(overlap(node(&after, id), node(&after, zn)), 0.);
}
// Explicit selected headers remain visible. Native clipping/readability
// and complete group gesture admission are intentionally not claimed.
for id in [m.an, m.f.n] { assert!(after.nodes.iter().any(|n| n.id == id)); }
assert_eq!(roundtrip(&accepted, command), actual);
assert_eq!(
actual.diagrams[&m.f.d].nodes[&bn],
accepted.diagrams[&m.f.d].nodes[&bn]
);
assert_eq!(
actual.diagrams[&m.f.d].nodes[&zn],
accepted.diagrams[&m.f.d].nodes[&zn]
);
assert!(
overlaps(&before, &after),
"complete scene must detect stationary enclosure growth"
);
let ids = affected(&m);
assert!(overlaps(
&diagnostic(&accepted, m.f.d, &ids),
&diagnostic(&actual, m.f.d, &ids)
));
assert_eq!(m.f.p, accepted);
}
}
#[test]
fn mixed_arrange_experiment_folded_child_collision_refuses_before_commit() {
let m = mixed(true, true);
let accepted = m.f.p.clone();
let (_, actual) = candidate(&m);
let ids = affected(&m);
let before = projection::project_view(&accepted, m.f.d);
let after = projection::project_view(&actual, m.f.d);
assert!(!before.nodes.iter().any(|n| n.id == m.xn));
assert!(!after.nodes.iter().any(|n| n.id == m.xn));
assert!(!overlaps(&before, &after), "must distinguish hidden collision from ordinary visible refusal");
let before_expanded = diagnostic(&accepted, m.f.d, &ids);
let after_expanded = diagnostic(&actual, m.f.d, &ids);
rigid(&before_expanded, &after_expanded, &ids);
assert!(overlaps(&before_expanded, &after_expanded), "combined diagnostic scene must refuse");
// No commit on refusal; candidate preparation never mutates accepted source.
let document = Document::from_project(accepted.clone(), ProjectLimits::default()).unwrap();
let source = document.bundle().clone();
assert_eq!(document.project(), &accepted);
assert_eq!(document.bundle(), &source);
assert_eq!(document.revision(), 0);
assert!(!document.can_undo());
assert_eq!(m.f.p, accepted);
fn mixed_arrange_experiment_unrelated_folded_interiors_are_outside_diagnostic_domain() {
for layer in [Layer::Oa, Layer::Sa] {
// Independent source-derived literals: SA's auto-created function ports
// raise projected X/Y height to 76 + 28 * (1 + 1), while Z is port-free.
let (work_height, expected_overlap) = match layer {
Layer::Oa => (94., 13696.),
Layer::Sa => (132., 20116.),
};
let mut m = mixed(layer, true, false, true);
let performer = match layer {
Layer::Oa => Kind::Actor,
Layer::Sa => Kind::SystemActor,
};
let kind = m.f.p.elements[&m.f.w].kind();
let d =
m.f.p
.add_element(performer, layer, "Unrelated D", None)
.unwrap();
let z =
m.f.p
.add_element(kind, layer, "Unrelated hidden Z", None)
.unwrap();
m.f.p.relate(RelationKind::Allocation, "D owns Z", d, z);
let dn = m.f.p.place(m.f.d, d, xy(2500., 100.));
let zn = m.f.p.place(m.f.d, z, xy(550., 230.));
m.f.p
.diagrams
.get_mut(&m.f.d)
.unwrap()
.nodes
.get_mut(&dn)
.unwrap()
.collapsed = true;
validate_candidate(&m.f.p).unwrap();
let accepted = m.f.p.clone();
let (_, actual) = candidate(&m);
let ids = affected(&m);
let before = diagnostic(&accepted, m.f.d, &ids);
let after = diagnostic(&actual, m.f.d, &ids);
assert!(!before.nodes.iter().any(|n| n.id == zn));
assert!(!after.nodes.iter().any(|n| n.id == zn));
assert!(
!overlaps(&before, &after),
"chosen diagnostic domain excludes unrelated folded contents"
);
assert!(!overlaps(
&projection::project_view(&accepted, m.f.d),
&projection::project_view(&actual, m.f.d)
));
let all_unfolded = |p: &Project| {
let mut diagram = p.diagrams[&m.f.d].clone();
for n in diagram.nodes.values_mut() {
n.collapsed = false;
}
projection::project_diagram(p, &diagram)
};
let broad_before = all_unfolded(&accepted);
let broad_after = all_unfolded(&actual);
assert_eq!(node(&broad_before, m.xn).position, xy(140., 200.));
assert_eq!(node(&broad_after, m.xn).position, xy(540., 200.));
assert_eq!(
node(&broad_after, m.xn).size,
Size {
width: 224.,
height: work_height
}
);
assert_eq!(node(&broad_before, zn).position, xy(550., 230.));
assert_eq!(node(&broad_after, zn).position, xy(550., 230.));
assert_eq!(
node(&broad_after, zn).size,
Size {
width: 224.,
height: 94.
}
);
assert_eq!(
overlap(node(&broad_before, m.xn), node(&broad_before, zn)),
0.
);
assert_eq!(
overlap(node(&broad_after, m.xn), node(&broad_after, zn)),
expected_overlap
);
// Other newly exposed enclosure pairs may also overlap. X/Z is a
// concrete discriminator, not a claim that it is the only cause.
assert!(overlaps(&broad_before, &broad_after));
for id in [dn, zn] {
assert_eq!(
actual.diagrams[&m.f.d].nodes[&id],
accepted.diagrams[&m.f.d].nodes[&id]
);
}
assert!(actual.diagrams[&m.f.d].nodes[&dn].collapsed);
assert_eq!(m.f.p, accepted);
}
}