Normalize constructor review members without losing local history

This commit is contained in:
2026-09-06 07:39:43 +03:00
parent f08507a789
commit 4f5906b0ff
3 changed files with 327 additions and 12 deletions
+38 -12
View File
@@ -1,5 +1,5 @@
use super::catalog::{capture_observation, collection, is_constructor, replace_observation, sides};
use super::historical::keyed_slots_overlap;
use super::historical::{keyed_slots_overlap, selector_slots};
use super::mutate::*;
use super::*;
use crate::model::*;
@@ -297,16 +297,22 @@ fn apply_canonical_slot(
let fact = replace_observation(fact, Layer::Sa, desired.clone())?;
write_fact(project, owner, &fact, Layer::Sa, Layer::Sa, false)
}
fn target_only(selector: &FacetSelector, source: Layer, target: Layer) -> bool {
match selector {
FacetSelector::Member { keys, .. } | FacetSelector::Binding(keys) => {
chosen(keys, source).is_none() && chosen(keys, target).is_some()
fn member_present(fact: &FacetReview, layer: Layer) -> bool {
fn observed<T>(review: &Reviewed<T>, layer: Layer) -> &Observed<T> {
match layer {
Layer::Oa => &review.oa,
Layer::Sa => &review.sa,
}
FacetSelector::Literal(keys) => {
chosen(keys, source).is_none() && chosen(keys, target).is_some()
}
FacetSelector::Annotation(keys) => {
chosen(keys, source).is_none() && chosen(keys, target).is_some()
match fact {
FacetReview::Member { review, .. } | FacetReview::Literal { review, .. } => {
matches!(observed(review, layer), Observed::Value(true))
}
FacetReview::Annotation { review, .. } => {
matches!(observed(review, layer), Observed::Value(Some(_)))
}
FacetReview::Binding { review, .. } => {
matches!(observed(review, layer), Observed::Value(Some(_)))
}
_ => false,
}
@@ -320,15 +326,19 @@ fn preserve_constructor_members(
source_layer: Layer,
target_layer: Layer,
) -> Result<(), String> {
// A correspondence key can exist without membership on that side (for
// example an OA literal automatically projects the same SA literal key).
// Preserve actual target-only values, except previously reviewed removals.
for fact in initial_facts {
if !constructor_contains(group, &fact.selector)
|| !target_only(&fact.selector, source_layer, target_layer)
|| member_present(&fact.current, source_layer)
|| !member_present(&fact.current, target_layer)
{
continue;
}
let slot = target_slot(target, &fact.selector, target_layer)?;
let was_corresponding = baseline.facets.iter().any(|old| {
!target_only(&old.selector(), source_layer, target_layer)
member_present(old, source_layer)
&& target_slot(target, &old.selector(), target_layer).ok() == Some(slot.clone())
});
if was_corresponding {
@@ -723,12 +733,28 @@ fn build_review(
constructor_actions.push((target, selected.clone(), local_record));
}
let refreshed = semantic_facets(observed, &trace, &references)?;
let group_selectors: BTreeSet<_> = refreshed
let mut group_selectors: BTreeSet<_> = refreshed
.iter()
.chain(all.iter())
.map(|f| f.selector.clone())
.filter(|f| constructor_contains(selected, f))
.collect();
// A constructor copy can turn a live one-sided member into a
// pair. Its initial projection is not another reviewed fact.
// Established one-sided history still requires an explicit reset.
let paired_sides: BTreeSet<_> = group_selectors
.iter()
.map(selector_slots)
.filter(|slots| slots.len() == 2)
.flatten()
.collect();
group_selectors.retain(|selector| {
!paired_sides.contains(selector)
|| baseline
.facets
.iter()
.any(|old| old.selector() == *selector)
});
let mut group = vec![];
for selector in group_selectors {
match capture_facet(observed, oa, sa, &selector) {
+261
View File
@@ -1917,3 +1917,264 @@ fn retired_source_branch_retains_historical_member_pair_in_both_directions() {
);
}
}
#[test]
fn constructor_closure_preserves_target_only_literals_in_both_directions() {
for reverse in [false, true] {
let mut p = Project::empty();
let oa = add(&mut p, Kind::DataType, Layer::Oa, "oa");
let sa = add(&mut p, Kind::DataType, Layer::Sa, "sa");
let (source, target) = if reverse { (sa, oa) } else { (oa, sa) };
enumeration(&mut p, target, &["local"]);
let t = trace(&mut p, oa, sa);
let facts = semantic_facets(&p, &p.traces[&t], &BTreeMap::new()).unwrap();
p.traces
.get_mut(&t)
.unwrap()
.baseline
.as_mut()
.unwrap()
.semantic = Some(SemanticBaseline {
facets: facts.into_iter().map(|f| f.current).collect(),
});
enumeration(&mut p, source, &["incoming"]);
let mut r = request(
source,
target,
vec![(
FacetSelector::Data(DataFacet::Constructor),
SemanticDecision::TakeSource,
)],
);
if reverse {
r.transition.direction = TransitionDirection::SaToOa;
}
let q = applied(&p, r);
assert!(
matches!(q.elements[&target].shared(), Some(SharedBody::DataType {
definition: DataTypeDefinition::Enumeration { literals }, ..
}) if literals == &["incoming", "local"]),
"reverse={reverse}"
);
let base = q.traces[&t]
.baseline
.as_ref()
.unwrap()
.semantic
.as_ref()
.unwrap();
validate_semantic_baseline(base).unwrap();
let incoming = FacetSelector::Literal(KeyPair {
oa: Some("incoming".into()),
sa: Some("incoming".into()),
});
assert_eq!(
base.facets
.iter()
.filter(|f| f.selector() == incoming)
.count(),
1
);
let facts = semantic_facets(&q, &q.traces[&t], &BTreeMap::new()).unwrap();
assert!(
facts
.iter()
.filter(|f| matches!(f.selector, FacetSelector::Literal(_)))
.all(|f| f.drift == Drift::Unchanged)
);
}
}
#[test]
fn constructor_closure_pairs_signal_members_and_requires_history_reset_in_both_directions() {
for reverse in [false, true] {
for historical in [false, true] {
let mut p = Project::empty();
let oa = add(&mut p, Kind::Event, Layer::Oa, "oa");
let sa = add(&mut p, Kind::Event, Layer::Sa, "sa");
let oa_item = add(&mut p, Kind::ExchangeItem, Layer::Oa, "oa_item");
let sa_item = add(&mut p, Kind::ExchangeItem, Layer::Sa, "sa_item");
let (source, target, source_item) = if reverse {
(sa, oa, sa_item)
} else {
(oa, sa, oa_item)
};
set(
&mut p,
source,
SharedBody::Event {
body: EventBody::Signal {
items: vec![source_item],
},
},
);
set(
&mut p,
target,
SharedBody::Event {
body: EventBody::Change {
expression: "old".into(),
},
},
);
let t = trace(&mut p, oa, sa);
let previous = FacetSelector::Member {
collection: ReferenceCollection::SignalItems,
keys: if reverse {
KeyPair {
oa: None,
sa: Some(sa_item),
}
} else {
KeyPair {
oa: Some(oa_item),
sa: None,
}
},
};
if historical {
let facts = semantic_facets(&p, &p.traces[&t], &BTreeMap::new()).unwrap();
let old = facts
.into_iter()
.find(|f| f.selector == previous)
.unwrap()
.current;
p.traces
.get_mut(&t)
.unwrap()
.baseline
.as_mut()
.unwrap()
.semantic = Some(SemanticBaseline { facets: vec![old] });
}
let mut r = request(
source,
target,
vec![(
FacetSelector::Event(EventFacet::Constructor),
SemanticDecision::TakeSource,
)],
);
if reverse {
r.transition.direction = TransitionDirection::SaToOa;
}
r.references.insert(oa_item, sa_item);
if historical {
let invalid = plan_semantic_transition(&p, r.clone()).unwrap();
assert!(
!invalid.conflicts.is_empty(),
"Established one-sided history requires reset: reverse={reverse}"
);
r.reviews[0].reset.push(previous);
}
let q = applied(&p, r);
let target_item = if reverse { oa_item } else { sa_item };
assert!(
matches!(q.elements[&target].shared(), Some(SharedBody::Event { body: EventBody::Signal { items } }) if items == &[target_item])
);
let base = q.traces[&t]
.baseline
.as_ref()
.unwrap()
.semantic
.as_ref()
.unwrap();
validate_semantic_baseline(base).unwrap();
let members: Vec<_> = base
.facets
.iter()
.filter(|f| {
matches!(
f.selector(),
FacetSelector::Member {
collection: ReferenceCollection::SignalItems,
..
}
)
})
.collect();
assert_eq!(
members.len(),
1,
"reverse={reverse}, historical={historical}"
);
assert_eq!(
members[0].selector(),
FacetSelector::Member {
collection: ReferenceCollection::SignalItems,
keys: KeyPair {
oa: Some(oa_item),
sa: Some(sa_item)
}
}
);
assert!(
validation::validate(&q)
.iter()
.all(|issue| issue.severity != validation::Severity::Error)
);
}
}
}
#[test]
fn constructor_closure_does_not_restore_previously_corresponding_removed_members() {
for reverse in [false, true] {
let mut p = Project::empty();
let oa = add(&mut p, Kind::DataType, Layer::Oa, "oa");
let sa = add(&mut p, Kind::DataType, Layer::Sa, "sa");
let (source, target) = if reverse { (sa, oa) } else { (oa, sa) };
enumeration(&mut p, source, &["paired"]);
let t = trace(&mut p, oa, sa);
let constructor = FacetSelector::Data(DataFacet::Constructor);
let directed = |facets| {
let mut r = request(source, target, facets);
if reverse {
r.transition.direction = TransitionDirection::SaToOa;
}
r
};
p = applied(
&p,
directed(vec![(constructor.clone(), SemanticDecision::KeepTarget)]),
);
if reverse {
// Explicitly establish the counterpart key while its target branch
// is absent, rather than silently changing the one-sided history.
let mut r = directed(vec![(
FacetSelector::Literal(KeyPair {
oa: Some("paired".into()),
sa: Some("paired".into()),
}),
SemanticDecision::KeepTarget,
)]);
r.reviews[0].reset.push(FacetSelector::Literal(KeyPair {
oa: None,
sa: Some("paired".into()),
}));
p = applied(&p, r);
}
enumeration(&mut p, source, &["incoming"]);
enumeration(&mut p, target, &["paired", "local"]);
let q = applied(
&p,
directed(vec![(constructor, SemanticDecision::TakeSource)]),
);
assert!(
matches!(q.elements[&target].shared(), Some(SharedBody::DataType {
definition: DataTypeDefinition::Enumeration { literals }, ..
}) if literals == &["incoming", "local"]),
"reverse={reverse}"
);
validate_semantic_baseline(
q.traces[&t]
.baseline
.as_ref()
.unwrap()
.semantic
.as_ref()
.unwrap(),
)
.unwrap();
}
}
@@ -0,0 +1,28 @@
# Constructor history correction
Scope: `oa-core` only, based on HOST `f6a59de85b815fbea5ec578bb79d0a15819c42b4`. No desktop, source grammar, API shape, or OA port semantics changed by the keyed closure correction.
## Reproduction and decision
The original independent Boolean-to-Enumeration probe passes OA to SA on an unmodified HOST core. Extending the same fixture to SA to OA reproduces the duplicate `Literal(incoming,incoming)` conflict. New production-core regressions reproduce both the literal and `Event.Signal` member failures before the implementation change; `constructor-closure-red.log` records two failures. This is directional catalog projection, not UUID ordering: a live SA-only selector survives alongside the newly paired selector after a constructor copy.
Constructor closure now removes that redundant transient one-sided projection when a pair covers it. Established historical one-sided selectors remain, so changing their correspondence still requires an explicit reset. Both-sided historical pairs and removed branch observations retain their existing rules.
Suppressing the duplicate exposed another reverse-direction defect: target-local literals were lost because their implicit canonical key looked paired even when the source had no member. Preservation now uses observed membership (`true` or an optional row containing a value), with the existing prior source-membership guard preventing resurrection of reviewed removals. This implements the existing language.rst requirement to preserve target-only members when a historical switch reaches the target's current constructor; no normative contract was relaxed.
The intermediate normalization-only run (`constructor-closure-normalized.log`) passes Signal pairing but fails reverse literal preservation. Three final regressions cover both directions, no-history paired Signal insertion, established one-sided history requiring reset, local literal retention, and previously corresponding removed members staying removed. A separate read-only review checked selector normalization and presence semantics; its deletion-guard test recommendation was implemented.
## Verification
Dedicated target: `D:/CodexBuilds/Capella2-scenario-target`.
```powershell
$env:CARGO_TARGET_DIR='D:/CodexBuilds/Capella2-scenario-target'
cargo test --locked --offline -p oa-core --test r3_semantic
cargo test --locked --offline -p oa-core
cargo clippy --locked --offline -p oa-core --all-targets -- -D warnings
cargo fmt --all -- --check
cargo run --offline --manifest-path C:/Users/sorok/AppData/Local/Temp/capella2-constructor-literal-host-probe/Cargo.toml
```
All 31 semantic tests and all 356 Windows core tests pass. Strict core all-target Clippy and workspace formatting pass. The independently adapted probe passes both directions against the final implementation (`constructor-independent-green.log`). Full logs: `constructor-core-test.log`, `constructor-core-clippy.log`, `constructor-r3-semantic-green.log` in the dedicated target. Actual GUI/API acceptance and Linux integration remain with the root engineer; this core-only milestone makes no native acceptance claim.