Add the paper-mm pattern model, two original built-in patterns, a bounded PAT reader, and 40 original model/import tests. Focused geom/io libraries, strict Clippy and wasm checks pass; full repository CI and clipping/persistence/UI are still pending.
* Drawing W06a: exact orthographic hidden lines for the analytic subset (#2455)
crates/geom/src/hlr (L0): prepare once per body, then hidden_lines for a
scene of placed bodies. Edges and face silhouettes are projected from their
exact curves, split where projections cross, and each piece is classified by
rays toward the viewer against the trimmed faces: visible, hidden or
explicitly uncertain, never guessed. Planes, cylinders, cones, spheres and
tori are supported whether stored as analytic records, revolutions or spline
patches; freeform faces are reported and make what they could hide
uncertain. Screen geometry is Seg2 with the W01a accuracy vocabulary: exact
lines and conic arcs where the projection is exact, bounded chords
otherwise. docs/drawing-hlr.md holds the contract and its limits.
* geom/hlr: handle the brep records main gained in #3093
Main's exact model storage (#3093) added Curve::SurfaceIntersection,
Surface::PlaneThrough and Surface::PlacedRevolution, and the HLR matches on
the records no longer compiled. A plane through three points is a plane: it
is trimmed and intersected as one, and a box stored that way draws the same
bits as one with axis-stored planes. The procedural intersection curve and
the placed revolution (whose affine placement may scale it unevenly) are
refused by prepare as not supported yet, until the kernel adapter handles
them. The records' positions move with the body's centre like the others.
* geom/hlr: pad plane faces' boxes, so a plane record off by rounding still hides
Plane faces took the box of their boundary chords unpadded, flat along the
normal. When the plane record and its edges disagree by rounding (a unit cube's
top plane one ulp above its edges, a 100 mm cube's 1e-11), the ray toward the
viewer reached the plane just outside that box, the slab test culled the hit,
and the back edges came out Visible with no doubt. Every face's box is now
padded by 1e-6 of its size, as curved faces' boxes already were. Reported by
DevonHope on #2457.
* geom/hlr: limits from review: trim samples, scene extent, crossing pairs, surface groups
From DevonHope's review of #2457:
- Options::trim_samples must be 1 to MAX_TRIM_SAMPLES (4096).
- Placed bodies must stay within MAX_COORDINATE (1e12 mm, as section and brep
bound stored numbers). Placements 1e200 apart made the scene's size infinite
and every tolerance taken from it with it, so everything came out Visible.
- The crossing search counts its candidate pairs before it starts and meets
each pair only in the first grid cell the two segments share, instead of
keeping a set of the pairs met, which could outgrow wasm's 4 GB before the
500 million pair budget tripped. The same pairs in the same order.
- prepare groups faces on one quadric or torus by comparing each face with
the faces of its kind whose size agrees to the tolerance (sorted), not with
every face; at most 50 million comparisons. prepare_cancellable polls a
cancel callback between edges, faces and comparisons.
* geom/hlr: boundary chords on a grid, and no fine pass over coincident curved chords
The cost items of DevonHope's review of #2457:
- Every ray hit asked how far it lies from its face's boundary by scanning all
of the face's chords (4096 per circle; a plate's face with 256 holes has
about a million). The chords are now bucketed on a uniform grid over the
boundary's box, cells at least as long as the longest chord, and the test
looks only at the cells around the point. It finds exactly the chords the
scan finds.
- Chords of two curved curves that lie on each other end to end (aligned holes
seen along their axes) were cut into 16 by 16 pieces and intersected, to
find crossings that are only noise within the curves' tolerance. They are
now skipped; visibility changes where a coincident run starts or ends, and
chords that only partly overlap still find those.
- Fixtures: a plate with holes, coaxial cylinders seen along their axis, and
300 placements.
* geom/hlr: pad boxes by the body's coordinates too; coincident chords only to rounding
Review of the previous commits found two holes:
- The padding grew with the face's size, but rounding grows with where the body
was modelled: a 0.001 mm cube 1e7 mm out, its top plane one step (1.9e-9 mm)
above its edges, still had its hit culled. The pad now adds 1e-12 of the
body's offset.
- Two chords were taken for coincident when their ends lay within each other's
sag, which in a coarse scene can hide real crossings: an arc can bulge across
a line 1 mm off its chord twice. Only chords that coincide to rounding are
skipped now; identical projections, the costly case, still are.
* geom/hlr: coincident curves meeting at shared sample points do not cross
Timing the review's scenes showed that skipping coincident chords was not
enough: chords of two coincident curves also touch end to end at every sample
point they share, and each touch was a crossing to refine and split at. 64
coaxial cylinders seen along their axis gave 8.3 million crossings (19 s), 64
cylinders one behind another along the line of sight 4.2 million (214 s;
before these commits the crossing budget refused it). A touch at a shared
sample point is now dropped when the two curves also coincide, to rounding, on
both sides of it. Where a coincident run starts or ends one side differs, and
the touch is kept.
* geom/hlr: the own-face margin allows for rounding where a body was modelled
The far 0.001 mm cube of the previous commit showed a second effect of records
rounded at large coordinates: its top plane, one ulp (1.9e-9 mm) above its
edges, hid the top edges themselves, because a ray leaving an edge met its own
face 3.2e-9 mm along, past the own-face margin of 1e-6 of the face (1.4e-9).
The margin now also covers 1e-14 of the body's offset (about 45 ulps of its
coordinates), which only matters for parts far smaller than their distance
from the origin.
* geom/hlr: no parity test for a hit on the boundary, where it is uncertain anyway
* docs/drawing-hlr: the fixtures of the review's second round
---------
Co-authored-by: MateuszSychXpl <151755914+MateuszSychXpl@users.noreply.github.com>
* File format families: drawings share the design format's versioning (#3890)
The format code works for a family of files: its own tag, its own numbers and
its own folder of change files, with one reading of a file's format, one
refusal of a file a newer build saved and one upgrade for every family. Designs
(solidcraft/N) are one family and keep everything they had: FORMAT and FORMATS
are as they were, and pending_names, format_string, version_of and read mean
what they did. Drawings (solidcraft-drawing/N) are the other, with format 1 as
their first record and each later change one file in
crates/doc/src/drawing/format/pending/, as design changes are. Nothing saved
changes.
A design tag never reads as a drawing's or the other way round, and a file that
names no format is a design from before format strings, never a drawing. Every
refusal names its family; a design's read word for word as before. A design
listing a pending change this build doesn't have is now refused as a newer
build's before its content is checked, as a newer number already was, so a
newer build's fields never read as damage. The list reader is
take_names(v, key, noun), the shape #4811 uses for its own list.
For the maintainer, the release step changes: scripts/fold-format-pending.sh
now folds every family that crates/doc/build.rs lists (FAMILIES), each into
its own next number: designs into crates/doc/src/format/v<N>/ as before,
drawings into crates/doc/src/drawing/format/v<N>/ from 2. With nothing pending
in a family it says so and moves nothing. Its test folds a drawing change into
v2 beside the design changes. docs/releasing.md, CONTRIBUTING.md and AGENTS.md say so.
build.rs lists each family's changes from its own folder, each folder's
versions contiguous from its own base.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Drawing record: format 1 of the drawing family (#3890)
A drawing is now a record of its own (crates/doc/src/drawing.rs): its name,
the designs it draws (sources: an id and the design file's path, relative to
the drawing's folder as a linked design's is), its properties under the design
metadata's rules, its units (each design's own, or one length unit of the
expression unit table), its content language (a BCP 47 tag) and its sheets.
A sheet holds its paper, a copy of its drawing border's profile, the
resolution its pictures are rendered at (300 dpi unless it says, 25 to 2400),
the component it documents and whether it is left out of the sheet count or
of printing. This is format 1 of the drawing family; each later kind of
record adds one file in crates/doc/src/drawing/format/pending/.
The rules: one id counter for every object, raised above the largest id when
a file is read and never rewound; every reference is an id that must resolve,
or the file is damaged and refused, never patched; 1 to 1,000 sheets, at most
64 sources, names of 1 to 256 bytes, paths of 1 to 4,096 bytes without NUL.
The same drawing always saves as the same bytes.
Drawing::from_json reads at most 16 MiB of text, then runs the family's format
check, the number check, the upgrade, the typed record (unknown fields refused
everywhere) and Drawing::validate. The number check is now one function every
family calls, Family::check_numbers, told which field holds other tools' data;
a design's refusals read as before.
Nothing saves or opens a drawing yet: the container is the next step.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Drawing ids: random and collision-free from format 1 (#3890)
A drawing's objects now take random ids, the form jyviko chose on #3890 from
#1017: no counter, so objects added on two branches never share an id and
never edit one line. The allocator is one module for drawings now and designs
later (#626 Phase 3), crates/doc/src/ids.rs: an IdSource gives nonzero u64s by
splitmix64 from a seed, each checked against the ids in use and drawn again
when it is one, or when it is 0. A run never draws a number twice, so at most
one draw per id in use comes before a free one, and a seeded run over a file
the same seed made still gets a new id. IdSource::seeded gives the same ids
for tests and replays; IdSource::from_entropy seeds a session from the
standard library's hash keys, the time and a count, with no new dependency.
In a file an id is 13 characters of Crockford base32, lowercase
(0000000000001 to fzzzzzzzzzzzz): ids::encode writes it and ids::decode reads
only that spelling, case-sensitive, so an id has one form to search for.
Anything else, 0 included, makes the drawing damaged. The drawing loses
next_id (a file that holds one is refused), and Drawing::new and allocate_id
take the IdSource. Messages name ids as the file writes them. The component a
sheet documents stays its design's own number until designs move over.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Drawing record: a drawing too large to reopen isn't saved (#3890)
from_json reads at most MAX_DRAWING_BYTES (16 MiB), but to_json had no limit. Other tools'
properties are kept as they came, and indenting them can grow a drawing read in at about 4 MB
past 16 MiB (two million zeros in one array), so the next read refused what the save had just
written. 0xlillith found it in review of #3891.
to_json now returns a Result and refuses JSON longer than a read takes ("drawing too large to
save (at most 16 MiB)"), so every drawing saved opens again. Nothing writes drawing files yet, so
the error reaches the future file writer before it publishes anything.
Test: that case is refused, and a smaller compact drawing saves and reopens unchanged.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Drawing files: a drawing saved as a container or as plain JSON, never read as a design (#3890)
K3 of the drawing storage plan (W11.2): the file a drawing is saved in. Nothing writes one from a
command yet; opening and saving come with K5.
- A drawing container is a design container holding `drawing.json` (Deflate, as `document.json`)
in place of `document.json`, and `container.json` says so:
{"content": "drawing", "format": "solidcraft-container/1"}. A design's `container.json` is as it
was, with no `content`. The plain JSON form is the drawing's own text. Both give the same bytes
every save, so a drawing can live in version control as text.
- `io::file_kind` tells a design from a drawing by `container.json` or by the JSON's format. The
design reader refuses a drawing ("this file is a SolidCraft drawing, not a design: open it as a
drawing") and the drawing reader a design; plain JSON only asks when it isn't a design, so
reading a design costs nothing more. A container's content this build doesn't know, or a drawing
container that also holds a design's `document.json`, is refused.
- `read_drawing` (bytes, either form), `read_drawing_file` (one seekable handle, the design
reader's checks) and `write_drawing_container`; `DRAWING_EXT` (`scdwg`) and
`is_drawing_path` beside the design's.
- The container writer's set-up and finish, the file opening and the container sniffing move into
one function each, which designs and drawings both use. The container's own checks (budgets,
entries, the ZIP directory) are the design container's, word for word.
Tests: a drawing round-trips through both forms byte for byte, and the container holds exactly
`container.json` and `drawing.json`; `file_kind` on both forms of both kinds; each reader refuses
the other's file; unknown content, a stray `document.json`, a missing drawing, an unknown
container version and a damaged drawing refused; both forms from disk, and a directory refused;
mutation fuzz of both forms (an error or a drawing, never a panic).
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
---------
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
* Bill of materials types: phantom, reference, purchased and inseparable (#3874)
A component's bill of materials type is a part property (`bom_type` in its metadata, set with
component.metadata.set and read by component.metadata, as part_number is), so older releases
keep it and no format change is needed. It isn't a design property: the Design Properties
dialog doesn't list it and document.metadata.set refuses it. A word this build doesn't know
reads as normal and is kept.
assembly.bom counts by type: a phantom has no row and what it holds counts where it is placed,
in the same rows as the same parts there; a reference counts nowhere, and nothing inside it
does; purchased and inseparable components are one row, and in parts only an inseparable
component's purchased parts are listed too. Rows of one part number but different types are
different rows. Rows and children carry bom_type. With no types set the rows are as before.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Glossary: bill of materials and bill of materials type (#3874)
The bill of materials types are a new idea, so the glossary gets their
term, with the five types, and "normal" gets its fourth meaning in the
table of words with more than one meaning.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Bill of materials types: a plain line for each (#3874)
The guide's table and the glossary entry say what each type is for in
plain words: something you make, something just to group, something to
use as a reference, something you buy, something made as one piece.
The names stay the five standard ones.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Bill of materials: kits fold together only when their contents' types match (#3874)
With group_children, two kits with one part number share a row when what they hold reads the
same. That reading (kit_key) compared each child by part number and count, but not by its bill
of materials type, though rows themselves are told apart by type. So a kit holding a made bolt
and a kit holding a bought one, both KIT, folded into one KIT x2 row listing the first kit's
bolt twice: the other type was lost, and which one depended on creation order. 0xlillith found
it in review of #5107.
kit_key now includes each child's type. Equal part number, type and contents still fold.
Test: two KIT kits each holding a BOLT fold into one row of two; once one bolt is purchased they
are two rows, each listing its own bolt. Planted fault (the type left out of the key): caught.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
---------
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
* test(oracle): reviewer-aligned parameterized workshop plate fixtures (#4950)
Independent analytic W23 expected values and seven verified models,
including four R10 corners and the 2 mm tangent top chamfer.
Document accepted Drawing states and commit regenerated docs/oracle.md
from successful workflow run #29 (90/90 pass).
* fix(oracle): correct W23 chamfer centroid and clarify drawing session ownership
* claim: #2027
* Redesign the home page as the File view (#2027)
* Match the File view with the accepted component design (#2027)
* Restore the Start subtitle and simplify the recovery icon (#2027)
* Integrate File view with main's shared UI containers
* Vertical history strip: left of the browser, compact rows, hollow-circle marker, collapsed rail hover
* Vertical history strip: seam handle to expand and collapse names, drag to resize with snap
* Vertical history strip: no empty gap below the transport
* Show the history seam arrow only on hover (#2028)
* claim: #2021
* Redesign the Assistant chat panel with shared UI components
* Show Assistant in the shared floating panel shell
* Extend floating Assistant to viewport height and shift navigation
* Dock Assistant before history and match docking preview bounds
* Align Assistant top margin with floating shell cards
* Extract a shared panel drag grip
* Rebuild responsive history sizing and three-way docking
* Share browser and History collapse hover styling
* Show the History title as soon as its text fits
* Animate stacked browser and History expansion and collapse
* Make panel folding responsive and independent of frame delays
* Let folding panel contents shrink continuously to header height
* Use four explicit History transport actions in every layout
* Resize the shared Browser and History column from either card
* claim: shared compact-mode containers (#2029)
* Centralize layout-aware UI containers and enforce their use
* Keep docked Assistant at the outer edge beside tool sheets
* Use shared surface policy for Assistant tool space
* Let tool sheets drag over shell panels while avoiding Assistant
* Update Parameters drag bounds assertion for shell overlap
* Keep dragged tool sheets below ribbon and workspace selector
* Enforce universal UI containers in mandatory repository checks
* Remove legacy report windows and require shared window composition
* Remove retired UI styling and require shared controls
* claim: compact layout preference (#2029)
---------
Co-authored-by: bherbruck <brennen.herbruck@gmail.com>
* Navigation: opt-in free orbit and shared Normal to Selection
Preserve the complete reviewed feature, shared camera setting propagation,
rigid pivot behavior and focus/drag regressions from PR #1912.
Consolidate the prior main-integration commits before rebasing, so their
merge-resolution fixes remain in the linear feature history.
* docs: move free orbit help beside viewport controls
* Merge main into fix/solidworks-free-orbit
Camera animation is gone on main, and with it the orbit snap spring: the Shift
snap keeps its unsnapped orbit in orbit_free, which the free-orbit checks now read.
Co-Authored-By: Claude Sonnet 5.5 <noreply@anthropic.com>
---------
Co-authored-by: bherbruck <brennen.herbruck@gmail.com>
Co-authored-by: Claude Sonnet 5.5 <noreply@anthropic.com>
* claim: #3708
* Export Current View as DXF includes shown sketches (#3708)
The view export refused a design with only a sketch and left shown
sketches out when bodies were present. It now draws the sketches the
viewport shows (profile curves only: no construction geometry, points,
dimensions or constraints) on a SKETCH layer, one entity per curve.
Finished sketches are hidden behind bodies through the body-edge
occlusion; the active sketch is drawn on top, as in the viewport.
Sketch points use the same projection, budgets and cancellation.
The export is refused only when there is neither a visible body nor a
shown sketch curve; the dialog and the command share that check
(cmd::view_dxf_exportable).
---------
Co-authored-by: bherbruck <brennen.herbruck@gmail.com>
Co-authored-by: Claude Sonnet 5.5 <noreply@anthropic.com>
* Sketch Dimension: `name = value` defines a user parameter (#2916)
In a dimension's value (the D tool's box, and `sketch.dimension`'s `value`
from scripts, the CLI, MCP and the control channel), `name = expression`
adds the user parameter `name` with that expression and dimensions with
`name`: typing `width = 40` on a line gives a 40 mm user parameter `width`
and a dimension whose expression is `width`. A bare number is read in the
design's unit, as a bare dimension value is; an angle's parameter is in
degrees. The expression may be anything the parameter editor takes.
It is one command: one undo removes the parameter and the dimension
together, and a dimension the sketch refuses leaves no parameter behind.
A taken name is refused with a hint (type the name to use it, or change
it in Parameters), a reserved name with the parameter editor's message,
and a left side that is not a name (`2 = 3`) still fails to parse as
before. A driven dimension defines nothing. The reply carries `defined`,
and the status line names the parameter.
The splitter lives in the doc crate (`expr::definition`) so other value
inputs can take the same form later; editing an existing dimension, the
inline shape boxes and feature dialogs are follow-ups.
Co-Authored-By: Claude Fable 5.1 <noreply@anthropic.com>
* Sketch Dimension: say why a name is refused, in the command's own words (#2916)
The dimension editor showed a refused definition raw, in the box and the
status line: "invalid parameters for `sketch.dimension`: value: `mm` is a
unit, constant or function name". It now reads "Sketch Dimension: `mm` is
a unit name, so it cannot be a parameter name": the editor passes the
command's errors through `friendly_error` like every other command, and
drops the `value:` field tag, since the box is the value. The taken-name
hint reads the same way: "Sketch Dimension: there is already a parameter
`w`: type `w` to use it, or change it in Parameters".
A reserved name says what kind of word it is and what that means
(`param_name_problem`, shared with the Parameters dialog): a unit name, a
function name, or a constant, "so it cannot be a parameter name";
`expr::reserved_kind` tells them apart.
`friendly_error` translates the command label with the interface language
(the engine's sentence stays English), so the prefix reads "Wymiar szkicu:"
in Polish.
Co-Authored-By: Claude Fable 5.1 <noreply@anthropic.com>
* Sketch Dimension test: keep the third line off the ribbon (#2916)
On current `main` the ribbon floats over the top of the canvas, and the
test's third line at sketch y = 50 projected under it: the click opened
Parameters instead of picking the line. The line now goes below the
first one.
Co-Authored-By: Claude Fable 5.1 <noreply@anthropic.com>
---------
Co-authored-by: Claude Fable 5.1 <noreply@anthropic.com>
Co-authored-by: bherbruck <brennen.herbruck@gmail.com>
* Vertical history strip: left of the browser, compact rows, hollow-circle marker, collapsed rail hover
* Vertical history strip: seam handle to expand and collapse names, drag to resize with snap
* Vertical history strip: no empty gap below the transport
* Show the history seam arrow only on hover (#2028)
* Extract a shared panel drag grip
* Rebuild responsive history sizing and three-way docking
* Share browser and History collapse hover styling
* Show the History title as soon as its text fits
* Animate stacked browser and History expansion and collapse
* Make panel folding responsive and independent of frame delays
* Let folding panel contents shrink continuously to header height
* Use four explicit History transport actions in every layout
* Resize the shared Browser and History column from either card
* claim: #2440
* feat: choose ISO metric tapped-hole sizes and derive the drill diameter
* fix: label the tap drill and hide the unused diameter editor
* test: cover tapped hole catalogue and drill sizing
* fix: omit coarse metric pitch from generated designations
* Keep custom tapped-hole nominal diameter and pitch editable
Preserve Custom as dialog state, derive the existing metric designation from numeric inputs, and refuse invalid drafts without applying the last valid size. Retain manual text editing, physical tap-drill geometry and saved-design compatibility.
* fix(i18n): register custom tapped hole labels in source catalogs
* Adapt tapped-hole Custom fields to the current form kit
* fix: preserve tapped designation focus with dynamic custom rows
* STEP import: mesh band faces that wrap around a closed surface correctly
Fixes two related bugs that caused SolidCraft to fail to mesh a face wrapping
all the way around a closed, non-periodic surface (a revolved ridge band, or a
tube-shaped B-spline surface): a missing face, a folded/self-overlapping
triangulation, or a hole in the rendered body.
1. Ring edges that run slightly off their surface. STEP files write a surface
and the curves bounding it to the file's own declared uncertainty, so a
ring edge can legitimately sit a few micrometres off the surface it
bounds. The code finding where a ring edge crosses the planned split line
compared against the edge's raw (off-surface) point using a hardcoded
tolerance far stricter than the file's own precision, rejecting a valid
cut. Now matches against the point on the surface directly below the ring
crossing, respecting the file's declared tolerance.
2. Closed B-spline surfaces, their slits and their slivers. truck only treats
the rotation of a revolved surface as periodic; a face on a B-spline
surface whose control net closes on itself (a tube) wasn't recognized as
wrapping around at all. This produced a folded face, a hole (a boundary
loop landing a full period away from where it should cut), and one
near-zero-width sliver face costing the entire body its tessellation
plan. Adds periodicity detection for closed B-spline surfaces, period-
aware hole-loop alignment, dropping of zero-width slit boundaries, and
isolating a too-thin-to-triangulate face so it no longer takes the rest
of the body down with it. The GPU shader's periodic wrap mirrors the CPU
math so the two don't drift apart.
Regression tests: band_faces_split_when_ring_edges_run_off_their_surface,
band_face_with_a_zero_width_slit_is_still_meshed,
a_sliver_face_too_thin_to_triangulate_does_not_cost_the_body_its_plan.
Ablation-tested: disabling either mechanism in (2) reproduces its target
test's original failure message while leaving the other test unaffected.
* STEP import: mesh the band's split faces, not just split them
jyviko asked whether a band wall missing from the interactive app's render
was a shading issue or a genuinely missing face. It was missing: the ring-
edge split fix made the band's topology correct, but plan_face still
produced zero triangles for the two new sub-faces.
Two causes, both in plan_face (crates/kernel/src/tess/mod.rs):
1. The tolerance for how far an imported boundary may lie off its surface
was tied to the requested mesh's chord tolerance instead of to the
body's own size. A finer display tolerance could then reject a boundary
a coarser one had just accepted, so the face would drop out exactly when
zooming in on it.
2. Near a sharp corner of this flat-panelled band, several boundary points
that are legitimately a few micrometres apart (within the STEP file's
own declared precision) all projected onto the same surface point. The
boundary loop then repeated a point in (u, v), which a triangulator
can't follow, so the face's plan failed outright. One face without a
plan costs the whole body its plan, and the fallback mesher can't
handle a closed B-spline surface either, leaving both halves of the
split band with no triangles at all: present in the topology, invisible
in every renderer, and absent from the body's volume.
Fix: scale the off-surface tolerance to the body's own extent (new
Rules::extent), and collapse a run of boundary nodes that land on the same
surface point to one (drop_collapsed) before triangulating.
Regression test additions to band_faces_split_when_ring_edges_run_off_their_surface:
the body's volume now matches the analytic pentagon prism (was a third of
it - only the top cap - before this fix); display_plan leaves no face
without triangles from coarse to fine tolerance; and the actual tolerance
and facet angle the viewport draws with gives the split band its full
lateral area on both halves.
Confirmed on review_band_big.step, the fixture behind the review screenshots:
volume's relative error against the analytic pentagon prism drops from
1.4e-4 to 4.1e-6, and the band wall now occludes the floor grid behind it
in a snapshot the same way the top and bottom caps always did.
Full kernel suite: 739 tests, 0 failed.
* STEP import: hold an imported boundary to the file's own tolerance, not the part's size
jyviko: the off-surface acceptance added in the last commit
(rules.extent * OFF_SURFACE) scaled with the part, so a 2 m part
silently accepted a boundary 2 mm off its surface while a 20 mm copy
of the same part accepted only 0.02 mm. A STEP file's own declared
uncertainty does not grow with the part, so the bound shouldn't either.
Body gains boundary_tol: Option<f64>, Some(file's declared tolerance)
for a body read from STEP (crate::step_in::Units::tol, already used
by the ring-split fix in split.rs), None for anything this kernel
built. It's set before the import's own unmeshed-face check runs, and
carried over by the two face-split operations that re-cut an imported
surface (splitface.rs, outline.rs), since the file's uncertainty still
describes those boundaries afterward.
plan_face's accept now reads: the file's own tolerance when the body
declares one, or the old chord-tolerance/extent bound otherwise. The
old bound's tol * 10.0 term had to go too, not just the extent term:
at a 2 m part's typical display tolerance that term alone is ~20 mm,
nearly ten times the extent bound jyviko objected to, so keeping it
would have left the exact 2 m/2 mm example still silently accepted.
Two new tests in step_in/tests.rs:
- band_faces_split_when_a_scaled_copy_runs_off_its_surface: the same
band fixture at a realistic 2 m scale with the same absolute slop
and declared uncertainty as the small one, meshes the same way at
every chord tolerance from coarse to fine.
- off_surface_budget_follows_the_file_not_the_part_size: the actual
regression. The same off-surface error is accepted or refused the
same way whether the part is 20 mm or 2 m; a 2 mm error against a
1 µm declared uncertainty is refused at both sizes now (accepted at
2 m under the old bound, refused at 20 mm - that asymmetry was the
bug). Checked at both a coarse and a fine display tolerance.
Known gap, not fixed here: a STEP-imported body saved into a
.solidcraft design and reopened loses boundary_tol (native.rs's
decoder has no field to read it from) and falls back to the old
extent-based bound on reload. Today's design format has no concept of
this value at all; persisting it is a real format change, out of
scope for this fix.
Full kernel suite: 776 tests, 0 failed. clippy -D warnings clean.
* Display plans for STEP threads and pointed ends (#3847)
Three faces cost a threaded or pointed STEP part its whole display plan, so it
was drawn from the reference mesh: cracked, faceted, and never refined up close.
- A loop through a pole (a cone's apex on the boundary) seemed to wind around
the surface: the jump at the apex, unwrapped to the nearest copy, was
arbitrary. The loop is turned to end where it leaves the pole, so the step
that closes it is an ordinary one (`seam::close_through_pole`).
- Projection onto a spline with hundreds of spans (a helical flank) restarted
from a 16 x 16 grid and settled on another turn; it now starts from two
points per span, capped.
- Sag refinement no longer inserts a point exactly on a boundary side, which
split the side and failed the face.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* tess: a refused face's edges are divided finer and it is planned again (#2814)
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LGeCa5jWWdroMWvXxN3LLM
* tess: sliver faces plan empty; a face no method plans is filled flat from its nodes (#2814)
A face whose boundary runs out and back along itself (two edges between the
same vertices, a rounding apart, as STEP files write slivers) encloses nothing
and is planned with no triangles. A face still refused after its edges are
divided finer (a cusp, a sliver whose sides sag across each other, a small cap
at a pole) is filled flat from its shared boundary nodes, so the rest of the
body keeps its display plan instead of falling back to the reference mesh.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LGeCa5jWWdroMWvXxN3LLM
* display mesh tests: a rim the chord tolerance leaves a line is divided again (#2814)
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LGeCa5jWWdroMWvXxN3LLM
* portable B-rep: up to 8192 control points along a spline direction (#2814)
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LGeCa5jWWdroMWvXxN3LLM
* solidcraft-cli: --debug logs what the engine reports to stderr
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LGeCa5jWWdroMWvXxN3LLM
* STEP import: a spline written over a tiny parameter range is read over one (#2814)
Some writers parameterize splines over a few millionths (a humanoid robot's
edges span 5.4e-6). The kernel tells parameters apart only to 1e-6, so over
such a range it evaluated the curve's end wrongly, and trimming an edge to its
vertices dropped a control point: the bodies could not be stored exactly and
the whole model cache was left out of the design. The knots are now stretched
to span one; the curve is the same and edges are trimmed by their vertices, so
nothing read from the file refers to the old parameters.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LGeCa5jWWdroMWvXxN3LLM
* model cache: a body keeps its file's declared accuracy (#2814)
A body restored from the cache dropped the accuracy the file it was read from
declares, so the planner held its boundaries to the kernel's own bound and a
reopened design drew differently from the import. It is stored with the body's
runtime values, and only when there is one.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LGeCa5jWWdroMWvXxN3LLM
* tess: a boundary within a hundredth of its body lies on its surface, at every quality (#2814)
#1721 held a body read from a file to the accuracy the file declares. A writer
declares what it aims for, not a bound its edges keep: a 251-body robot
assembly declaring 0.01 µm has boundaries 10 to 30 µm off their surfaces, and
95 of its bodies lost their display plans. The bound is a hundredth of the
body again, what Normal quality always allowed, and now the same at every
quality, so zooming in still never drops a face (#1721's point). A file
declaring more raises it.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LGeCa5jWWdroMWvXxN3LLM
* STEP import: keep faces whose edge vertices sit slightly off their curves
Some exporters write an edge's vertex beside the end of its curve, further off
than the accuracy the file declares (a surface export declares
0.01 mm and puts a vertex 0.19 mm off two spline ends). The reader refused
such edges and left the face, and with single-face bodies the body, out.
A vertex may now sit up to the file's tolerance or 1/1000 of the model's size
(the diagonal around its VERTEX_POINTs), whichever is larger, never more than
the existing 1 mm ceiling. Spline and open-conic edges have the end control
point moved onto the vertex, so every such edge meets its vertices exactly.
The file's declared accuracy still governs closed-curve, seam and circle
checks.
* tess, io: review clean-ups (#2814)
- A sliver face is one whose loops are all slit: drop_slits finds it in the
retry after a failed plan, so the pre-check on every face (folded) is gone.
- The flat fill uses cdt::triangulate (a lenient fill that leaves out sides
crossing one already kept) and its flood-fill inside test, and the plane
from geom::Plane.
- Refinement only builds its indexes when a face was refused, takes the
faces to plan again from edge_faces, and re-samples edges on the pool;
Rules::finer for the finer rules.
- One PackageWriter::fits for the model cache, the preview and the thumbnail.
- The band split's ring tolerance lives in split.rs; comments say what the
off-surface bound is now.
- The CLI logger prints Level::as_str().
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01LGeCa5jWWdroMWvXxN3LLM
---------
Co-authored-by: David Lackovic <lackovicdavid1234@gmail.com>
Co-authored-by: bherbruck <brennen.herbruck@gmail.com>
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
Co-authored-by: jyviko <2501648+jyviko@users.noreply.github.com>
Co-authored-by: Ray <raykholo@users.noreply.github.com>
An agent's design changes over the control channel (engine.execute, engine.batch) are evaluated
ahead on a copy of the session on an `agent` worker, then run on the window thread reusing every
feature computed there (doc::KeptResults, whatever the bounded evaluation cache dropped); the
worker also makes the display meshes of the bodies they end with. Exports run on a copy. While a
change computes, or the agent cursor acts one out, ui.*, inspection and screenshots answer; later
design changes wait their turn. A chip names the command with Stop. A person's edit meanwhile goes
first; a replaced design refuses the request. Preference: Preferences > AI, agent_off_thread, off
by default.
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
* claim: #3654
* Control channel: control.running lists what the app is running, across connections (#3654)
control.pending answers only for the connection that asks, so a second client,
the MCP bridge after a reconnect or a script saw {"pending": null} while the app
was busy. control.running answers for the whole app, the same on every
connection and at once (the connection's own thread answers it, also while it
is busy with a timed-out request): every request the app has been sent and not
answered yet, oldest first, with its connection, id, method, command id (or a
batch's step count), seconds since it arrived and whether it still waits its
turn. A timed-out request stays listed until the app answers it, also after its
connection closed. Parameters are never shown.
The window marks a request started when it takes it (ControlRequest.started),
which tells queued from running. The MCP server gets a read-only `running` tool.
---------
Co-authored-by: MateuszSychXpl <151755914+MateuszSychXpl@users.noreply.github.com>
* claim: #2089 (3MF production extension: review follow-ups)
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* 3MF import: production extension review follow-ups (#2089)
Follow-ups from the review of #2127:
- Only the root model's build is read; other parts' build sections are
ignored as the spec asks (a slicer's child build pointing at a thumbnail
no longer matters).
- A model part that can't be read fails only the placements that need it;
the package-wide caps (part names, 1 GB of model XML) still refuse the
package. The root XML is dropped once parsed and each part is read
against the remaining budget.
- Loops are reported apart from depth, keyed by (part, object).
- Messages name parts as written; objects are kept in id order so parts are
read in the same order every run; %XX escapes in part names are decoded;
the model unit is a local of the parser.
- Tests: a component without p:path stays in its part (T1), the same id in
two parts is no loop (T2), a slicer-shaped project (T3), the placement
budget across parts (T4), a loop through three parts and a chain past the
depth cap (T5), broken parts and child builds (T6), escaped names; the
hostile-parts test asserts its messages; the mutation test also mutates
the parts' XML and zips it again.
- Guide: what slicer-only data is not read.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
---------
Co-authored-by: Tyler Chiriboga <18270301+Tyler-Chiriboga@users.noreply.github.com>
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
* claim: #3353
* Sheet metal: mirrored and copied sheet bodies stay sheet metal
Mirroring a sheet metal body into a new body gave a plain solid: the
opposite-hand bracket had no flat pattern, DXF or bend table
("`Body1 (2)` is not a sheet metal body"). Copies from a body pattern or
Move with copy lost their sheet model the same way.
A copy now takes the sheet model with it (SheetBody::copied). A rigid
copy moves the flat frame. A mirror moves the frame with its x axis
turned round, so the thickness side stays, and mirrors everything in
flat coordinates (x -> -x): base, flange bend lines (run from their far
end, with their end extensions, slopes and tears swapped), panel shapes,
cut-outs, pockets, bores, letters and base sketch lines. Arcs stay exact
and loops keep their sense. A perforation field of a mirrored copy runs
its grid from the right, so its holes are the mirror image too. The flat
length, bends and K-factor are unchanged, and the copy takes further
sheet metal features of its own.
Mirror with combine is unchanged: the joined body has no single sheet
model yet. Mirroring or patterning flange features is still refused.
Sheet models are derived from the timeline, so no design format change.
* Format: note the saved from_right of a mirrored sheet's perforation field
The new `from_right` flag is saved in the design, so it gets a pending
format note. No migration: a field without it runs from the left as
before.
Sketches drive surface extrudes, revolves, sweeps and lofts, so the Surface
tab gets the same Sketch panel as Model and Sheet Metal. A sketch started
there keeps the tab until it opens.
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
* claim: #2501
* English (UK) as a language: a plain catalogue of the 25 messages UK English spells differently (#2501)
assets/locales/en-GB.json holds only the English messages whose spelling differs in UK English (Centre, Customise, Organisation, Licence, colours, towards, ...), in UK spelling; every other message falls back to English. One registration in i18n.rs (English first, then by id), a test that shows UK spelling and English for the rest, a row in ATTRIBUTION.md, and the docs/localization.md note. The translation-coverage checks skip a regional English catalogue, which has no gaps to report.
Fixes#2501
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
---------
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
Build on #1426's import components and nested STEP assembly instances.
Replace placeholder solid labels with meaningful part or instance names.
Translate IGES groups and subfigure instances through the existing STEP
component path, preserving nesting and placements and sewing surfaces
within each group. Bound assembly walks and reuse work buffers.
Related to:
- tangency-labs/solidcraft#1386
- tangency-labs/solidcraft#1426
Co-authored-by: Codex <noreply@openai.com>
* Ribbon: New Sketch on the Sheet Metal tab again; tests pin sketch enter/exit
Before the ribbon redesign the Sheet Metal tab started with New Sketch. It
gets its own Sketch panel again, like the Model tab's, and a sketch started
there keeps the tab until it opens.
Workspace tests pin the ways into and out of a sketch: New Sketch then a
plane, a double-click in the timeline or the browser, and the browser's Edit
Sketch all open the SKETCH tab looking at the sketch. Finish Sketch from the
palette or the ribbon lands on MODEL with the earlier view back. Escape and
Enter keep the sketch open (#1804), and Undo after Finish reopens it.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* docs: ribbon layout lists Sheet Metal's Sketch panel
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Workspace test: press the keys well apart
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
---------
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
* claim: #3242
* MCP batch: rollback restores the design the batch began in (#3242)
A failed batch with rollback: true reported rolled_back: true even when the
design never went back. Two defects, both fixed:
- file.new (and any document-replacing command) replaced the session with it,
taking its checkpoints down too, so a batch that failed after file.new had
nothing to restore. Session::replace_design now carries the checkpoints over
to the fresh session: the checkpoint belongs to the batch, not to the
session that happened to be holding the document.
- rolled_back echoed the requested flag. It now reports whether the design is
actually back: the app answers engine.batch with a new restored field, and
the MCP tool reports restored && rollback. An app that predates the field
falls back to undone/completed.
* Batch: answer with main's rolled_back field after the merge (#3242)
Upstream #2900 put the real restore check on engine.batch as
`rolled_back` while this branch named it `restored`; the merge kept
main's control test and this branch's field, and CI caught it.
Standardize on main's wire name: the app answers `rolled_back`, the
MCP tool reads it (fallback for older apps unchanged), docs and tests
follow. The checkpoint carry-over across file.new is unchanged.
---------
Co-authored-by: DahakBuilds <dahakbuilds@users.noreply.github.com>
* CI: give the slowest tests a shard each
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* CI: spread the slow tests on pull requests too, and keep both junit files
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* CI: pull requests skip the goldens and the action matrix sample unless the kernel changes
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Docs: which pull requests run the goldens
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* CI: run the tests in one job on a big runner, slowest first
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* CI: allow the 32 vCPU runner label in actionlint, read junit.xml in the golden hint
Co-Authored-By: Claude Sonnet 5.5 <noreply@anthropic.com>
---------
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
* Fix recovery for unsaved background tabs (#2884)
* Recovery: scheduled autosaves of every tab write on the worker thread (#2884)
After #3139, Autosaver::save waits for the write and Autosaver::tick runs
it on a worker. The scheduled path now goes through tick (which skips a
tab whose previous write is still running), so several dirty tabs no
longer write on the window thread each interval (#3044). save stays for
Save, close and shutdown. Each tab's autosaver has no clock of its own:
the shared cadence decides when it is due. The tests wait for the
writes a tick started.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* Recovery: closing a tab waits for its running autosave before removing the entry (#2884)
With the autosave on a worker thread, discard could remove the files and
the lock while a write was still running; the write then recreated the
entry without a lock, and the next launch offered a design closed with
Don't Save. discard now ends the running write first, as Drop does.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
---------
Co-authored-by: Claude Opus 5.5 <noreply@anthropic.com>
* ui: spacing, radius and type tokens, per-tab accents, agent and on-accent tokens
* ui: per-tab accent behaviour and a larger application bar with a Start page button
* icons: silhouette master and flat assistant and agent link icons (open for review)
* icons: apply review notes (sparkle assistant, refined plug, silhouette halo)
* icons: wire the silhouette master to inspect.silhouette; record the accepted icons
* ui: application bar to the design: separators, Save, house, assistant icon, readable hovers
* ui: ribbon structure: Model to View tabs, contextual Sketch and Sheet Metal, migrated pins
* ui: ribbon painting to the compact design
* ui: smaller icon button highlight and assistant mark on the bubble corner
* ui: short ribbon labels that wrap at spaces
* ui: ribbon buttons fit their labels and Finish Sketch shows its full name
* ui: constraint gallery, workspace menu, section list headings and richer tooltips
* ui: lighter selected tab label, ribbon surface and dimmer bar separators match the dark design
* ui: document tabs as rounded chips with a dimmer inactive label
* ui: document tabs fit their names and show close only when active or hovered
* icons: close and plus masters for the document tabs (open for review)
* ui: centre the new-tab plus and overflow button on the bar
* ui: a quiet rule under the ribbon tabs on non-contextual tabs
* ui: the application bar mark separates its faces with the bar colour, not white
* ui: open ribbon section label uses the selected tint and a chevron
* ui: dim the tab close and plus icons until hovered
* ui: every ribbon dropdown uses the chevron, the workspace card included
* ui: the active document tab uses the design's surface colour
* ui: the bug button's right padding mirrors its icon side
* ui: square constraint cells and a rule before the grid
* ui: constraint cells back to their earlier size, keeping the rule
* ui: smaller constraint cells and icons, centred in the section
* ui: constraint cells fit the height of the large buttons' icon and label
* ui: sketch Create titles share the other labels' line
* ui: format the application bar and ribbon changes
* ui: active tab surface token and the colour and hover tests that follow the redesign
* tests: the merged parameter and narrow toolbar tests follow the compact ribbon
* i18n: the Malay Gap label has an English source and its Japanese and Chinese translations
* apply_off_thread tests: the evaluation lingers in tests, so still computing never depends on machine speed
---------
Co-authored-by: bherbruck <brennen.herbruck@gmail.com>
Save As and Open use the browser's file dialogs where the File System Access API exists; Save writes back to the same file, its handle kept in IndexedDB across reloads. File > Download design added. Other browsers keep storing designs in OPFS.