Keep unrelated pre-existing near-axis edges from disabling exact Resize handles, make tracked single-space fixtures visible to the invariants CLI, and add the three missing mutation gates plus real-plan coverage.
Issue: #290
User-Visible: no
Accepted the complete Linux artifact after visual review. Only the dark and light safe-resize handle views change intentionally; all other passing scenarios keep their prior bytes.
Issue: #289
User-Visible: no
Release: v1.67.0-beta.10
Baseline-Reviewed: https://github.com/Matysh/houseplan-card/actions/runs/32726613816
Accepted the complete Linux artifact after visual review. Only the dark and light isometric geometry views change intentionally; 106 passing scenarios keep their prior bytes.
Issue: #260
User-Visible: no
Release: v1.67.0-beta.10
Baseline-Reviewed: https://github.com/Matysh/houseplan-card/actions/runs/32725286757
Refresh the shared wall-key fixture contract and keep generated frontend bundles synchronized with the fingerprinted geometry fixtures.
Issue: #260
User-Visible: no
The continuity gate cannot see the defect from the owner's 66.json: masonry is
continuous there and the record agrees with what is painted. The record itself
is wrong — a partial resize left 43 steps of a former shared boundary as an
exterior wall while it kept the 20 cm of that boundary, next to 30 cm exterior
neighbours. Thickness followed the key, not the role of the edge.
A width check would not have caught it, and I built one before throwing it away.
It compares the painted body against the record, and here the two agree. On real
plans it also fires where masonry is legitimately wider — columns, junction
influence, abutting parallel walls: 76 to 82 steps measured against 4 expected,
every case legal. A gate that needs explaining half the time is noise.
The defect is expressible in a single state instead: one record whose span is
partly shared and partly exterior. Nobody sets that on purpose. Roles come from
the polygons — a stretch is shared when another room's edge covers it — so the
check needs neither a build nor product code.
Two traps found by measurement, both of which produced false positives. Count
distinct rooms rather than edges: in a corner one room owns two edges, and
counting edges called every exterior corner a shared boundary — 12 and 14 false
positives. And do not sample the endpoints: an endpoint is a node, where a wall
legitimately touches two rooms, and including them reported 95 per cent exterior
on every wall abutting a shared one.
Mutation coverage, stated honestly: the endpoint mutant is killed by the
real-plan test. The rooms-versus-edges mutant survived — once endpoints are
excluded, counting edges gives the same answer on real plans, so that choice is
not load-bearing. I removed the mutant rather than ship a surviving one, and said
so in the code.
Issue: #287
User-Visible: no
The second floor covers one class: the multi-wall corridor eating a neighbouring
wall. The first floor brings what neither it nor any synthetic fixture has —
three virtual spans, two wall columns, two solid edges with no thickness record
at all, and 127 noisy coordinates.
The two plans pin opposite states, which is worth more than two plans with the
same defect: one records a known debt of 181 steps, the other records cleanliness
at zero. A regression is caught in both directions.
A declared virtual span is a declared break, not a defect, so the rule from #285
would have reddened on the first floor's own contract. Samples lying on
open_spans are now excluded: 830 of 6800 on that plan, and the remaining gap
count is zero.
The two zero-thickness solid edges are two grid steps long and covered by the
bodies of their neighbours, so the browser sees no break. Their count is
therefore pinned in the model test rather than the smoke — if it grows, or if the
neighbours stop covering them, that shows up before it becomes a hole.
Both fixtures must stay noisy: the project's synthetic models carry exactly zero
noise, which is why #258 and #248 are not reproducible on them. A profile check
asserts at least a hundred noisy coordinates each, so a future write barrier run
over the fixtures cannot quietly rob them of their purpose.
Privacy: names, ids, markers, device bindings and layout are gone; geometry
stays, coordinates unchanged, because they are the point.
Issue: #286
User-Visible: no
Eight closed issues on wall junctions — #271, #272, #275, #276, #277, #278,
\#279, #280 — shipped in beta.9, and the break in the owner's real plan
survived. Every one of them was accepted on synthetic fixtures: a cell-5
mixed-depth T, a rectilinear T with three equal half-depths. On those the fixes
work.
The smoke asks the product itself, through isPointInFill on the wall path,
whether masonry exists where the model promises it. That is independent of both
resolution and the pixel-diff thresholds which miss this class: a 45-step break
on a large plan is a fraction of a per cent of the frame, well under the 0.05
per cent scene tolerance.
Measured on the shipped code: four breaks, 181 grid steps in total, 45.25 each.
That number is derivable rather than incidental — the node joins a 30 cm
exterior wall, a 30 cm spur and an arm five steps long; half-depth 15,
MITRE_LIMIT 4, corridor radius 60, and 60 − 15 = 45 steps are cut out of the
neighbouring 20 cm wall. The corridor eats the masonry, which is what #271 and
\#275 describe.
The fixture is privacy-minimised — neutral room names and ids, no device
bindings — and keeps its coordinates, because they are the point. It lives in
test/fixtures rather than demo/fixtures on purpose: sourceFingerprint hashes the
.mjs of demo/fixtures and demo/golden, so anything added there staleizes the
committed bundle and the screenshot manifest at once. Verified after this
commit: bundle still fresh, screenshots still current.
The debt is recorded as numbers and compared exactly. Better and the test asks
for the numbers to be updated, which proves the improvement; worse and it
catches the regression. Verified by execution in both directions.
Issue: #285
User-Visible: no
Stage 0 of ADR #282. A lattice node is k/240, which has no exact binary
representation, and a stored coordinate is a float. Nobody could say how much of
a real plan is affected, and Optimize promises to remove coordinate noise
without a definition of noise that can be checked.
latticeProfile splits every coordinate of the model into three populations,
because they are three different problems: exactly on a node, near a node but
not exact, and legitimately off grid. The middle one is the defect class behind
\#258, \#279 and the non-converging Optimize; the last one is authored geometry
the current model allows and must not be called a violation.
Measured on the owner's installation: space 1 has 208 coordinates, 33.65 per
cent exactly on a node and 65.38 per cent in the noise class; space 2 has 21.23
against 78.77. The worst deviation is 8e-8 of a step — invisible, and enough to
put a wall key in the neighbouring bucket.
The counterpart is what makes it worth having: every shipped fixture has zero
noise, all of its off-grid values being authored. Our own test data therefore
cannot reproduce this class by construction, which is why the owner finds these
defects and the gates do not. A test pins that property so it cannot drift.
No violations are produced, no gate turns red, and nothing is repaired: what to
do with a vertex 8e-8 from a node is the owner's decision, and this measures its
price first.
Issue: #283
User-Visible: no
Nine of the last ten specs are one class of defect, 23 fix commits in thirty
days, 595 tolerance mentions across ten geometry modules, one every seventh line
in resize.ts. The specs rate their own risk at 9 and 10 of 10, and two titles
show where that arrived: a nearly orthogonal T junction, and a union failure
that must merely damage less.
The ADR names three properties of the data model that produce the stream — a
float coordinate on a 1/240 step, an identity derived instead of stored, and a
wall living in two representations at once — and records four stages against
them. Stage 0 is accepted for implementation; the rest are direction, in the
same sense as #34.
Issue: #282
User-Visible: no
Package the reviewed Optimize reconciliation, safe fixed-topology Resize and wall-union isolation fixes from #276, #277 and #278 as the eighth v1.67 prerelease candidate.
Issue: #278
User-Visible: yes