* Fix fuzzy skin failing the slice: the minimum junction width was unscaled
* Unit Tests For Fuzzy Fix
* Cover ridged multifractal noise in the fuzzy skin width floor test
Its output is not bounded to [-1, 1], so it scales past the configured
thickness and drives the junction width negative. The floor has to hold
for any noise value, not just an in-range one.
Orca content-addresses every system filament, Bambu's included, but a printer,
its AMS and its vendor's cloud know only that vendor's own catalog ids. The
printer agent now translates between the two: outbound MQTT and FTP traffic, the
AMS mapping sent with a print job, and the ids written into a 3mf bound for the
printer all leave in the printer's own ids, while status messages, loaded
projects and SD-card prints arrive in Orca's. An id with no mapping passes
through unchanged, and an agent whose printers already speak Orca's ids
translates nothing at all.
Bambu's map is generated from BambuStudio's own shipped bundle; a missing or
unreadable file leaves every lookup an identity rather than taking the app down.
The profile check validates the map's shape, and profile CI now runs on the paths
that can change it. docs/HLSD/filament_id.md records the places the map
deliberately does not reach.
* Fix incorrect early exit for CLI mode no-support preventing parameters from being read
* Use PartPlate's m_height to allow CLI to perform proper BuildVolume check
* Add safeguard against extruder_pintable_heights and extruder_areas vector size mismatch
* Preserve printable_height precision in PartPlate/PartPlateList
* Fixed multiple BuildVolume warning issue, and keep check_outside diff minimal
# Description
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> * What issue does this PR address or fix?
> * What new features or enhancements does this PR introduce?
> * Are there any breaking changes or dependencies that need to be
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Part 1 of 3 of the CLI-mode bug sweep, split out of #15452 per review
feedback there. This PR contains the crash fixes.
## Fixes
- **`--outputdir`/`--datadir` with a missing parent directory aborted**
via unguarded `create_directory`. Directories are now created
recursively, with a graceful early exit and a specific error message if
creation fails.
- **`--slice` + `--export-3mf` segfaulted on a from-scratch slice**:
`ConfigOptionVector::get_at()` on an empty vector is `.front()` of an
empty vector (UB). Guards added for `filament_color`/`filament_id` at
the CLI call site, and inside `DynamicPrintConfig::get_filament_type`
for `filament_type`/`filament_is_support`/`filament_id`. Only *empty*
vectors are treated as missing — the existing clamp-to-front behavior
for merely out-of-range indices is preserved, so GUI callers are
unaffected.
- **OOB heap write from stale `filament_self_index` on
`--load-filaments`** (fixes#14181): a 3MF carrying more
`filament_self_index` entries than loaded filaments wrote past the end
of `old_variant_counts`. The guard validates both bounds — entries `>
filament_count` *and* non-positive entries (`< 1`), since a single `0`
in an otherwise-valid array indexes `old_variant_counts[-1]`.
- **Wrong printable-area check** for non-rectangular beds: use the
printable area's bounding box instead of a naive vertex calculation
(fixes#15363).
- **`nozzle_height` and `align_center` were not read into the arrange
config** in CLI mode.
# Screenshots/Recordings/Graphs
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## Tests
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changes made in this PR.
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- Repro'd each crash on CLI before the fix; all resolved after.
- `tests/libslic3r` suite passes; full binary builds clean on Linux.
- Added `get_filament_type` unit tests
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* Reject invalid CLI argument values instead of silently accepting them
* Add read_cli accept/reject tests
* Update Option Type for LogFile argument
* Add read_cli vector option tests
* Accept common bool spellings on the CLI, cover --logfile in tests
* Add unit tests for truthy bool parsing
These dialogs treated a filament with no compatible_printers as compatible with
nothing, while the rest of the app treats it as compatible with everything, so
the entire Orca Filament Library was missing from the AMS material and
calibration filament lists. They now resolve compatibility the same way the
plater does, and a vendor profile still supersedes the library generic of the
same name.
# Description
This is an initial draft of the plugin audit workflow.
It focuses on the user experience and developer-facing permission
workflow. It does not yet include the complete implementation of every
operation that should be audited, such as the full filesystem,
networking, and process-spawning event coverage.
## User workflow
When a plugin is loaded:
1. The plugin’s register_capabilities() function is executed.
2. The plugin declares the permissions it requires.
3. OrcaSlicer displays a permission dialog listing the requested
resources.
4. If the user grants access:
- The permission is persisted in the plugin’s .install_state.json.
- Capability registration continues.
- The plugin is materialized and loaded.
5. If the user denies access:
- Plugin loading fails before capabilities are materialized.
- on_load() is not called.
- The plugin’s install state is marked with "enabled": false to prevent
repeated automatic load attempts.
At runtime, if a plugin accesses a resource that was not approved during
loading, the audit hook displays another permission dialog. For
filesystem requests, the dialog identifies the requested filepath.
- Granting access persists the permission and allows the operation.
- Denying access raises a Python PermissionError.
- The error propagates to the host, which records the failure and
unloads the plugin.
Host-side traceback logging is performed outside the plugin audit
context so that logging does not generate additional permission dialogs.
## Developer-facing API
Plugins can declare filesystem read permissions through the new API:
```python
import orca
AUDIT_PATH = __file__
@orca.plugin
class ExamplePackage(orca.base):
def register_capabilities(self):
orca.request_permissions(
fs_read=[AUDIT_PATH],
)
orca.register_capability(ExampleCapability)
```
orca.request_permissions() must be called from register_capabilities()
while the plugin is being loaded.
Currently supported permission:
orca.request_permissions(fs_read=[...])
The paths should be explicit filesystem paths that the plugin intends to
read. The host deduplicates repeated paths, presents the request after
registration completes, and persists granted paths in the plugin
install-state sidecar. This API is still experimental, and is by no
means the final implementation.
Support for additional permission categories, including filesystem write
access, networking, and process spawning, is reserved for subsequent
work.
# Screenshots/Recordings/Graphs
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/>
## Tests
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changes made in this PR.
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* Keep mixed-color filaments intact when the extruder count changes
The extruder-count spinner resized the filament arrays in bulk at the tail,
which is where mixed-color slots live, so a new filament landed behind the
mix and the sidebar skipped a slot number. It now adds and removes one slot
at a time through the same calls the sidebar's +/- buttons use, so a new
slot opens ahead of the mixed tail and a removal renumbers object filament
ids, painted facets, custom g-code and mixed components rather than
clamping them away.
Drops the vector overload of set_num_filaments(), which this leaves without
callers.
* Skip straight-run splits in corner smoothing
Teach `CornerSmoother` to treat vertices that only continue a straight segment as part of the same leg instead of rounding them as corners. The smoother now keeps a three-point window so it can emit a corner only once both adjoining legs are known, which avoids unnecessary corner processing while preserving real turns such as hairpins.
* Add regression test for split-leg smoothing
Adds a FillCornerSmoothing regression test covering polylines with an extra collinear vertex in a straight run. The test ensures corner smoothing treats split and unsplit geometry identically, preventing inconsistent rounding radii in triangular/grid infill paths.
The sidebar Mixed Filament list, the extruder icons, the color painting
gizmo and the canvas filament bar now show the same bottom-to-top fade the
Edit Mixed Filament preview shows, custom gradient curves included, instead
of a horizontal fade between the two component colours. Ordinary and vendor
multi-colour filaments are drawn exactly as before.
QidiPrinterAgent composes QD_<series>_<vendor>_<typeidx> setting ids from
device enums and previously degraded any slot whose id matched no visible
preset to generic-by-type. Plan v4.2 retires every QD_* preset id to the
succession ledger, so insert the ledger walk between the direct match and
the generic fallback: a composed QD_* id now forwards to its family's
minted OF* successor exactly like every other retired id.
Behavior-neutral until the ids are actually retired (the ledger holds no
QD_* keys yet, and live QD_* presets still match directly).
Also documents the code<->ledger lockstep on the hardcoded non-numeric-
series fallback table (QD_1_0_1/_11/_41/_50) and adds a C++ test pinning
that the succession walk is key-format agnostic.
Gates: libslic3r_tests [filament_id] 14 assertions green; libslic3r_gui
compiles.
* Add caching system for presets
* Removing user\bundle serialization and keeping it only for system presets
* Integrate caching into WebGuideDialog which speeds up time of SetupWizzard and PrinterSelection dialog
* Add CI\CD step to prepare cache file in ahead of time so user does not need to wait
* Add partial cache generation when only one of the vendros is changed to speed up recalculation time
* Handle corrupted files
* Add cache to GuideDialog as previos version didn't work as expected
* Add inspecting tool and fix CI cache generation
* Generate cache per vendor
* Simplify code by mergin it in PresetBundle
* Simplify code a bit more
* Add cereal serialize() to VendorProfile, PrinterModel, Preset, and Semver
* Remove CachedPrinterModel/VendorProfile/Preset mirror structs from VendorCache
* Fix use-after-free in CallAfter lambda; replace raw thread pointer with unique_ptr
* Use get_vendor_cache_key() to match cache keys written by the app
* Remove BOM added by VSC
* Skip invalid vendors
* Remove leftover cache file
* Fix build for windows arm64
* Revert json cache back
* Update check for stale cache
* Serealize all value fields for Preset class to minimize regression later
* Minimize field duplication by moving Cache thing into PresetBundle
* Add tests for Cache system
* Add a bit more tests
* Merge branch 'main' into feature/cache_profiles_and_optimize_loading_speed
* Rvert from per-verndor to single cache file
Replace N per-vendor .cache files with a single system_presets.cache
that holds all vendors and presets in one serialized blob.
Cache load is now all-or-nothing: on hit all vendors are applied from
the bundle (sub-second); on miss all vendors are parsed from JSON and
a fresh bundle is written to the user cache dir.
Invalidation is driven by bundle_key - a sorted concatenation of all
vendor JSON version strings. Any vendor update invalidates the whole
cache and triggers re-parse on next launch.
Guide wizard (WebGuideDialog) loads the bundled cache into a plain
PresetBundle instead of a separate VendorGuideData struct, removing
the duplicate data model.
generate_system_cache simplified from a per-vendor loop to a single
save_system_presets_cache() call producing one output file.
* Transfer all Preset fields from cache via move assignmet
apply_vendor_preset_group was copying fields manually and missed
bundle_id, user_id, base_id, sync_info, updated_time, key_values,
ini_str. Replace field-by-field copy with move assignment of the
fully-deserialized Preset, then restore the vendor pointer which
is excluded from serialization.
* Ignore cache for future
* Remove not used files
* Ship one preset cache per vendor in place of the profile JSONs
Each vendor's system presets serialize into a single <vendor>.opc built at
package time, and a shipped build carries that file alone — the profile JSON
and its sub-file tree are pruned. The vendor loader, the setup wizard's profile
list and the resource installer all read a vendor through its cache, falling
back to parsing whenever one is absent, stale or unreadable, so the cache stays
an optimization and never a source of truth. Caches hold presets in source form
and resolve inheritance at load, through the same code the JSON path uses.
* Make the preset cache self-describing and load each vendor from the system folder alone
The cached DynamicPrintConfig is keyed by name, through a per-file dictionary of the
distinct opt_keys, the type each was written as, and the distinct enum value names,
instead of by serialization_key_ordinal — a position assigned by declaration order at
static init, where inserting one option shifts every later ordinal and the lookup then
succeeds on the wrong option. Because a name-keyed payload drops the options this build
cannot place rather than being rejected wholesale, the schema fingerprint goes, and with
it the two fallbacks that existed only because an installed cache died on every app
upgrade: the second lookup tier into resources/profiles and the parse fallback to the
same place. A vendor is loaded from <data_dir>/system/ and nowhere else, as on main —
which is what makes the app write its .opc files there again.
* Simplify the preset cache internals after review
* Use the shared temp-dir helper in the preset bundle loading test
* Bound stamp string reads in the preset cache
* Speed up the setup wizard with a profile-data cache
The wizard's per-vendor fast path threw on vendors present only in
resources, falling back to a ~29 s raw JSON scan on every open. Each
vendor now loads from the directory it was found in, and the derived
model/machine/filament/process catalog is cached whole in
<data_dir>/cache/wizard_profile_data.json, stamped by each vendor's
name and version - a fresh cache makes an open one file read, with no
bundle built and no presets installed (~0.2 s vs ~2 s).
* Remove debug SVG dump from a geometry test
* Move the per-vendor cache file format into PresetCacheFormat
* Move the vendor install helpers from PresetBundle into Utils
* rename
* fix flatpak
* change cache version to 1
---------
Co-authored-by: SoftFever <softfeverever@gmail.com>
* Normalize the junction direction vector over XYZE
calc_vmax_junction_deviation() treats the dot product of two jd_unit_vec as a
cosine, but the vectors were scaled by 1 / block.distance, which is the XYZ
length. On an extruding move the E component then pushes the 4D norm above 1 and
the dot product below -1, so the corner reads as straighter than it is and is
planned too fast -- the more so the higher the flow. Measured on a 6 degree
corner at scv 5: 86.9mm/s with no extrusion, 94.4mm/s at 0.029mm/mm, 150.0mm/s
at 0.1mm/mm.
Neither firmware does that. Marlin normalizes over XYZE for any extruding move
(planner.cpp: `if (... || esteps > 0) normalize_junction_vector(unit_vec)`) and
Klipper leaves E out of the cosine entirely, dotting only axes_r[0..2]
(toolhead.py::Move.calc_junction). Normalizing satisfies both: with E normalized
in, the cosine differs from the XYZ-only one by ~1e-5 at printing flow rates.
This is a deliberate divergence from PrusaSlicer, which still scales by
1 / distance -- it carries an older Marlin's behaviour.
Travel moves are unaffected, their vector was already unit length.
Reported by Copilot in review of #15304.
* Test that extrusion rate does not change corner planning
The junction deviation tests were all travel-only, which is exactly why the E
component of the junction vector went unchecked. Cover it: the same corner has
to be planned the same whether nothing, an ordinary 0.42 x 0.2 line, or a fat
large-nozzle line is extruded through it, on both Klipper and Marlin 2.
Reported by Copilot in review of #15304.
* Plan corners with junction deviation where the firmware uses it
The time estimator only ever had the classic per-axis jerk model, which limits a
corner by the largest single-axis component of the velocity change. That is
anisotropic: the same corner is allowed sqrt(2) more speed on a diagonal than on
an axis, which paints a four-lobed ripple around every circular wall in the
actual speed and actual flow views, worst on small parts whose walls are made of
short segments.
Klipper has no classic jerk at all and Marlin 2 has none while M205 J is in use;
both plan corners with junction deviation, which sees only the corner angle. Add
that model and use it for those machines:
- Klipper: derived from the square corner velocity, as the firmware does
(jd = scv^2 * (sqrt(2) - 1) / max_accel), reading the scv from
machine_max_jerk_x, where process_SET_VELOCITY_LIMIT() already stores
SQUARE_CORNER_VELOCITY.
- Marlin 2: machine_max_junction_deviation, which was already loaded into the
machine limits but never reached the planner.
- Every other flavor keeps the classic jerk path unchanged.
The model has no per-axis jerk floor, so this also drops the hard slow spot the
estimator drew at the start of every loop from machine_max_jerk_e.
Toolpaths are unaffected: on a full export the only lines that change are M73.
The junction deviation maths, including Marlin's JD_HANDLE_SMALL_SEGMENTS arc
approximation, is ported from PrusaSlicer's src/libslic3r/GCode/GCodeProcessor.cpp.
The Klipper mapping is not in PrusaSlicer, which ignores SET_VELOCITY_LIMIT.
* Add tests for junction deviation corner planning
Cover the three properties the change rests on:
- a right angle on Klipper is planned at exactly the square corner velocity,
the identity that makes the scv to junction deviation mapping correct, and a
shallow corner is planned far faster than per-axis jerk allows;
- junction deviation gives the same speed whatever the corner's orientation,
while classic jerk keeps its sqrt(2) spread, which is the four-lobed ripple;
- machines that do not plan with junction deviation are provably untouched,
including a Marlin 2 printer that has it disabled.
