The merge kept this branch's PluginConfig design, which deletes
PluginDescriptor::settings, get_plugin_settings() and ctx.params, but left
references to them behind: the slic3rutils target did not build, and the
bindings test still asserted the removed ctx.params attribute.
Port the two settings tests onto PluginConfig instead of dropping them. They
guard a field bug where a cloud-metadata refresh wiped a plugin's settings and
it silently ran on its own defaults, so the equivalent properties are still
worth pinning: that a stored config survives the refresh, and that an edited
config reaches the plugin through a real dispatch.
Also defer PluginsConfigDialog's web commands off the webview script-message
callback, as PluginsDialog already does. Its remove_preset_override handler put
a modal wxMessageBox on that stack, which is the GTK crash class fixed in
b779a7bfed/f2ccbfc8b5 for the sibling dialog.
Cloud catalog records never carry [tool.orcaslicer.plugin.settings], so the
metadata merge wiped the locally-parsed settings and plugins silently ran on
their built-in defaults (ctx.params arrived empty).
Update Maschine G-Code according to latest Bambu Studio Version X2D
filament_change gcode: 2026/07/01
X2D layer_change gcode: 2026/07/01
X2D start gcode: 2026/06/05
X2D timelapse gcode: 2026/06/03
# Description
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# Screenshots/Recordings/Graphs
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open_terminal_dialog is reached from the plugins dialog's webview
command, and TerminalDialog hosts a webview of its own — same class as
the plugin-window crash. Defer the window work via CallAfter, guard the
re-front Show() per #13657, and drop the redundant Raise() on creation.
wx 3.3.2 delivers webview script messages synchronously inside the native
callback on GTK and macOS, so script plugins run with the plugins-dialog
webview's signal/delegate frame on the stack. Creating and presenting the
orca.host.ui window from there crashed on Linux at Raise() --
gtk_window_present while GTK's deferred show was still in flight.
Defer the whole window creation to a CallAfter with a pre-bound registry
handle (post/close stay FIFO-safe, teardown races become a no-op), and
drop Raise() plus the show_modeless_dialog wrapper: Show() already
activates and fronts a new window on every platform.
## What this does
Ports the AMS filament drying control feature from BambuStudio. Most
work was done by Claude Code with deepseek-v4-pro. Thanks Bambu & CC &
DeepSeek :P
Allows users to start, monitor, and stop AMS-based filament drying
directly from the OrcaSlicer UI for N3F (AMS 2 Pro) and N3S (AMS HT) AMS
units.
Mostly from
https://github.com/bambulab/BambuStudio/commit/c8f70c6ca76e53775aa021a197fe9ec972db709e
Part of #12091
## Screenshots
<img width="500" alt="image"
src="https://github.com/user-attachments/assets/24f579cb-c67c-4d6e-bf77-c31e018f2f70"
/>
<img width="500" alt="image"
src="https://github.com/user-attachments/assets/74f628aa-6f5f-4150-b2e9-082e4ffc3527"
/>
<img width="500" alt="image"
src="https://github.com/user-attachments/assets/d2f26412-a054-4085-9236-5074a030b001"
/>
<img width="500" alt="image"
src="https://github.com/user-attachments/assets/7beef770-8fbc-4375-b244-e0de44b8db2f"
/>
## Changes
- **Data model:** Added drying status enums (`DryStatus`,
`DrySubStatus`, `CannotDryReason`, etc.), `DrySettings` struct,
`DevFilamentDryingPreset` struct to `DevAms`/`DevFilaSystem`
- **Promoted `DevAmsType`** to a global enum (`EXT_SPOOL=0, AMS=1,
AMS_LITE=2, N3F=3, N3S=4`), renamed `DUMMY` → `EXT_SPOOL`
- **JSON parsing:** Extended `DevFilaSystemParser` to parse drying
status fields from printer status messages
- **Commands:** Added `CtrlAmsStartDryingHour()` and
`CtrlAmsStopDrying()` sending `"ams_filament_drying"` JSON via MQTT
- **Backend utility:** New `DevUtilBackend` class with
`GetFilamentDryingPreset()` for reading filament drying config keys
- **UI dialog:** New `AMSDryControl` dialog with three pages
(status/control, guide, progress) matching BambuStudio behavior
- **Integration:** Wired AMS humidity indicator click to open the drying
dialog for N3F/N3S AMS types
- **Assets:** 12 new drying-related images from BambuStudio
- **Firmware parsing:** Added `is_support_remote_dry` flag parsed from
`fun2` bit 5
## Constraints
- N3F/N3S only — standard AMS and AMS Lite continue to use the existing
humidity popup
- Backward compatible — existing `command_ams_drying_stop()` preserved
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The eight presets added in 0545750c1b never got ids: the six iQ processes
had none, and K1 SE 0.8 / V-Core 4 0.8 carried ids copied from the presets
they were duplicated from — K1 SE 0.8 still shared K1C 0.8's id. Regenerated
with scripts/assign_vendor_setting_ids.py; none of the eight have shipped in
a release, so no existing id changes meaning.
reslice() now enforces only the missing-plugin block via
refresh_missing_plugin_block (no second Print::validate); plate
ready-status returns to upstream's plain model_fits, matching
GLCanvas3D::reload_scene. Also restores main's use_bbl_device_tab and
the check_track_enable comment, and drops two unused MainFrame includes.
Merge-resolution cleanup. The #12506 re-select path kept main's preset_bundle
null check, and both select_machine calls now use effective_agent_id rather than
mixing it with the equal-but-differently-named agent_info.id.
Resolve five conflicts, all of which needed both sides rather than a pick:
- BackgroundSlicingProcess: ours was a pure tabs->spaces reformat of base, so
keep main's per-filament volume/nozzle map read-back (its only change here).
- GUI_App: main's #12506 else-if attached to an `if` this branch deleted;
re-expressed onto the same-agent early-return path (the agent factory caches
per id, so pointer equality is the same predicate).
- MainFrame: both sides relocated Sync Presets independently; keep main's
push_notification plus the branch's Plugins menu items.
- Tab: the "TODO: Orca: Support hybrid" blocks were unchanged base, not a branch
decision; take main's enabled Hybrid to match the already auto-merged siblings.
- test_config: union of both sides' cases (6 plugin + 9 multi-nozzle).
# Description
Adds a --slice (-s) mode to the profile validator that slices a
two-colour cube through every shipped printer, expanding all custom
g-code (change_filament_gcode, machine start/end, etc.). This catches
invalid-placeholder / bad-flow / slicing errors that the static JSON
checks and unit tests can't see.
Included:
- Validator: new -s sweep mode; per-profile error attribution in the
log; resolves the synthetic 2nd-filament nozzle-mapping so multi-nozzle
BBL printers (incl. the Direct-Drive+Bowden X2D) validate cleanly.
- CI, two complementary paths:
- check_profiles.yml — runs the sweep on profile-only PRs (nightly
binary).
- build_all.yml — new parallel slice_check_linux job runs it on
engine/src PRs with the PR-built binary (build_all doesn't trigger on
resources/**, so no overlap). Runs off the build's artifact, so it
doesn't lengthen the build leg.
- Profile fixes surfaced by the sweep: Creality, FLSun, Ginger, Qidi,
RatRig, iQ.
- Engine: whitelist BBL firmware T-opcodes (T1001/T65279/T65535) in the
time estimator (log-only, no g-code change); dedupe a
per-filament/per-layer log flood in get_config_index.
# Screenshots/Recordings/Graphs
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The Unit Tests job sparse-checks-out only .github/scripts/tests, so the
baked-in absolute PROFILES_DIR was missing at runtime; the shipped-profile
test then read a non-existent JSON and null-dereferenced in opt_string.
Check out resources/ in the unit-test job, and guard the test helper to
skip when the profile is absent and require the key before dereferencing.
Follow-up to the rack-aware pre-print checks: after the blocking checks
pass, warn (without disabling Send) when the plate needs more matching
hotends than the rack printer currently holds - suggesting rack setup,
a nozzle info refresh, or a re-slice to avoid filament waste - or when
the only matches rely on unreliable nozzle information.
Text-only warning rows; this message board has no refresh or
don't-show-again buttons.
A print sliced for a nozzle that sits in the hotend rack (but is not
mounted) was blocked by the send dialog's mounted-nozzle diameter check,
even though the printer fetches the required nozzle itself (#14685).
Consolidate the three mounted-nozzle gates (_is_nozzle_data_valid,
is_nozzle_type_match, _is_same_nozzle_diameters) into a single
CheckErrorExtruderNozzleWithSlicing fed by s_get_slicing_extuder_nozzles,
which collects the plate's per-extruder nozzle requirements (hybrid
extruders contribute one entry per used sub-nozzle flow). The rack
extruder validates against its whole inventory (mounted + rack) with
guidance to calibrate the rack, refresh nozzle info, or re-slice, and
blocks when toolhead + rack are full (no free slot to stow a nozzle).
Other extruders keep the validity/flow/diameter checks against the
mounted nozzle.
Also add CheckErrorRackStatus, which holds Send while the printer is
still reading the rack hotend information, and judge material hardness
for the rack extruder per dispatch-mapped nozzle as a non-blocking
caution (mounted nozzles keep the blocking gate).
A dual-nozzle H2C print with support filament hangs at its first nozzle
switch. The emitted file shows the change-filament block's M620 O ordinal
jumping from O1 straight to O230, plus a duplicate "M1020 S<n>" toolchange
command right after every change block. Two causes, fixed together because
they interlock (the ordinal check keys off the same toolchange detection
that suppresses the duplicate):
- append_tcr incremented m_toolchange_count once per prime-tower visit
(roughly once per layer), while the change-filament template only emits
its M620 O{toolchange_count + 1} line on real filament changes. With 229
change-less sparse tower layers below the first support layer, the first
real change reported ordinal 230. The counter now advances only when the
expanded change block really contains a toolchange command, and the
placeholder exposes the upcoming change's ordinal (count + 1). The
set_extruder path already counted per real change and is unchanged.
- toolchange_prefix() returned "M1020 S" for BBL printers, so the
custom_gcode_changes_tool() dedup could never match the stock profiles'
line-leading "T[next_filament_id] ..." commands and the writer's own
toolchange was appended after every change block on dual-extruder
machines. The prefix is now the plain "T" (the manual-filament-change tag
branch stays first), and the M1020 form moved into GCodeWriter::toolchange()
as an explicit branch that also carries the nozzle:
"M1020 S<filament> H<nozzle>". The nozzle parameter is signed on purpose:
the null-safe nozzle lookup legitimately yields -1, matching the stock
templates' own H-1 convention.
The prefix change also lets the CoolingBuffer recognize the change blocks'
T commands as tool boundaries on BBL printers (its per-filament attribution
previously keyed off the duplicate M1020, or nothing at all on
single-extruder models); its existing out-of-range guard ignores
T1000-class machine commands.
Verification: full suites green (libslic3r 48998 assertions / 169 cases;
fff_print 692 / 65 including three new scenarios - writer emission per
printer kind, dedup + ordinal progression on sequential prints, and a
prime-tower regression scenario verified to fail against the old per-visit
counting). Byte gate: 18 of 20 fixtures bit-identical; the sequential repro
differs by exactly its 3 removed duplicate M1020 lines, deterministic
across two runs. Reslicing the field project that exposed the hang yields
M620 O1 followed by a gapless O2..O59 and zero duplicate M1020 lines.
Co-authored-by: songwei.li <songwei.li@bambulab.com>
The time estimator's speed/acceleration limits were indexed by time
mode only, reading slot 0 of the per-(extruder x volume-type) arrays
the multi-extruder profiles already carry (H2C 0.4: 8 entries, H2D
0.4: 10). Every move was therefore modelled with the first machine
slot's limits regardless of which nozzle variant was printing -
estimation fidelity only, since emitted feedrates/accelerations are
decided on the slicing side.
Now the estimator resolves the machine slot of the nozzle currently
mounted in the active extruder: the nozzle grouping context is handed
to the processor BEFORE the streaming replay (new member + setter -
deliberately separate from the post-stream result-field handover that
gates the richer change-time model, whose timing is unchanged), the
occupancy recorder is populated on every filament change (bookkeeping
decoupled from the gated time model; recorder writes have no time
effect), and get_machine_config_idx maps (volume type x extruder type
x extruder) to the slot via the printer's variant layout, newly
carried on the processor result. The feedrate/acceleration getters
gain a slot parameter indexing [slot*2 + mode]; jerk and the
print/travel/retract accelerations stay mode-only. Reloaded sliced
projects re-estimate with the result's saved grouping context;
imported bare g-code degrades to slot 0 - the historical read.
M201/M203 write the parsed value into EVERY slot's mode entry (a
firmware envelope change is global), which keeps per-slot reads in
lockstep with the mode-only reads they replace: the fleet emits
envelope lines before any motion, so estimates - hence the estimated
time header, M73 lines, and every other byte - are unchanged (20/20
pinned-slice byte gate bit-identical, incl. the sequential repro
sliced twice). Fidelity improves where envelope emission is off or a
migrating per-layer plan moves filaments across variants.
Tests: a stub-driven processor case proving the slot follows the
active nozzle through the exact production path (T..H.. commands,
fallback recorder bookkeeping, 4x time ratio on the slow variant),
that emitted M201/M203 reach every slot, and that a missing context
degrades to slot 0. Suites green (libslic3r 48998/169, fff_print
667/62).
When a per-layer nozzle grouping migrates a filament across nozzle
variants, the write-back turns two groups of config arrays from
filament-indexed into column-indexed: the per-variant filament options
(one column per variant a filament uses) and the merged extruder
retract overrides (resized to the column count by apply_override).
Export-path readers that still indexed them with the raw filament id
read a neighbor's column for every filament ordered after a migrating
one: toolchange/standby temperatures (M104/M109), retraction lengths
and feedrates, wipe distance, z-hop types, air-filtration keys, and -
through the Extruder's cached flow term - the extrusion E of every
move.
Now every such read resolves its column through the existing
layer-aware resolver (get_filament_config_index ->
Print::get_filament_config_indx), which returns the raw filament id
whenever no per-layer grouping result is published, so static prints
are byte-inert by construction. The Extruder itself has no layer
knowledge, so it gains an injected config column (set_config_index,
default = filament id) that the generator refreshes at the only two
resolution-changing events - layer change and writer toolchange - and
that re-syncs the cached e_per_mm3 flow term. Old-filament reads
resolve at the current layer, which is safe because the per-layer maps
are gap-filled carry-forward. Whole-array placeholder copies
(toolchange temperature overrides) are rebuilt in filament order,
mirroring the existing per-variant placeholder remap. The resolvers
move to the public section so non-friend helpers (ooze prevention) can
resolve too.
Documented, deliberately unchanged: the wipe tower's per-filament
parameter rows (no layer dimension; tower x per-layer grouping is a
follow-up), travel_slope's physical-extruder read, estimator pre-heat
bookkeeping temps, and index-0 header diagnostics.
Verification: new Extruder column-injection scenario (defaults, column
follow + flow-cache rescale, filament-indexed reads unaffected, reset
semantics) and a migrating write-back case proving the column shift for
filaments ordered after a migrator and the resolver tracking it (11 +
14 assertions); suites green (libslic3r 48998/169, fff_print 655/61);
20/20 pinned-slice byte gate bit-identical (incl. sequential repro x2
deterministic).
When the per-layer filament selector (enable_filament_dynamic_map)
migrates a filament across nozzle variants (e.g. Standard -> High Flow),
the config write-back only stored the derived extruder map; every
per-variant filament value (retraction, nozzle temperature, flow,
flush...) kept the numbers resolved from the pre-slice static mapping.
Now both dynamic write-back sites (the by-layer branch and the
sequential stitch) branch on the result's dynamic support. Migrating
results run a mixed-filament expansion that regathers every
filament_options_with_variant key from the pristine per-variant
superset, giving a migrating filament one config slot per (extruder
type x nozzle volume type) it lands on - filament_self_index,
filament_extruder_variant, and all value arrays grow in lockstep - and
recompute the retract overrides with per-slot machine indices so a nil
slot falls back to its own variant's machine value. Non-migrating
dynamic results take the merged three-map write-back so re-applies
reproduce from the written maps. Unrouted filaments resolve from the
result's own default map, so slot resolution never depends on
filament_map round-tripping through the plate config.
Print::apply reproduces the identical expansion from the persisted
group result (shared dedupe helper, expansion function, and slot
indices on both sides): the expanded keys sit in the psWipeTower /
psGCodeExport invalidate lists, so without the reproduction every
re-apply after a selector slice would diff non-empty and permanently
invalidate. cal_non_support_filaments now resolves the extruder per
layer from the published result for dynamic groupings.
filament_map_2 keeps its apply-time static derivation; nothing on the
dynamic path reads it (the per-slot machine indices key the override
merge), and per-(extruder x volume-type) machine limits in the g-code
processor remain a documented follow-up.
Every change is gated behind is_dynamic_group_reorder() or a persisted
result with dynamic support; no profile sets the flag, so the static
fleet's instruction stream is unchanged (20/20 pinned-slice byte gate
identical, incl. the sequential repro sliced twice, deterministic).
Tests: expansion unit coverage (migrating slots, unrouted fallback via
the default map, mis-sized volume map ignored, nullable retract keys in
lockstep, slot machine index layout), an end-to-end stub-driven
write-back asserting expanded slots, per-layer config-index resolution,
the override merge incl. the nil-slot variant fallback, and re-apply
stability, plus a real selector slice staying valid across re-apply.
Suites green (libslic3r 48987/168, fff_print 633/60).
Sequential (by-object) prints were incoherent with the per-layer filament
selector (enable_filament_dynamic_map): the by-object branch published a
static grouping while each per-object ToolOrdering independently ran the
dynamic planner from an empty nozzle status and wrote its own map to the
config (one write per object, last object wins). The exported toolchange
sequences then disagreed with the published result that drives the
per-layer maps, placeholders, and selector emission.
Now the by-object branch, when the selector is enabled, plans each unique
object once — threading the physical nozzle occupancy and the previous
object's last filament into the next plan — stitches the per-object
per-layer nozzle maps into one print-wide result (gap-filled by the new
normalize_nozzle_map_per_layer so any layer index resolves a filament's
nozzle consistently), publishes it, and writes the derived extruder map
back once. The plans are cached on the Print and g-code export consumes
the cache: the ToolOrdering seed changes the plan input (dontcare
assignment, first-layer reorder), so a fresh export-time construction
could re-plan differently from the published stitch. The per-object
dynamic write-back is gated off for sequential prints.
Every change is gated behind is_dynamic_group_reorder(); no profile sets
the flag, so the static fleet's instruction stream is unchanged (20/20
pinned-slice byte gate identical, incl. the by-object repro sliced twice).
Tests: normalize unit coverage (carry-forward, back-fill, ragged input),
stitched-blocks selector detection, and an end-to-end by-object selector
slice (apply -> process -> export) asserting the published stitched
result, one cached plan per object, the config write-back, and a clean
export. Suites green (libslic3r 48958/165, fff_print 633/60).
# Slicing-pipeline plugins: Python hooks inside `Print::process()` with
an editable geometry API
This branch adds a new **slicing-pipeline** plugin capability on top of
the plugin framework: Python plugins can now run at defined points
inside the slicing pipeline and edit the live slicing data, with changes
cascading into perimeters, infill, and the final G-code.
## The capability
- New plugin type `slicing-pipeline`, selectable per print profile via a
new picker option (`slicing_pipeline_plugin`).
- `Print::process()` fires a hook at 13 pipeline steps (`posSlice`,
`posPerimeters`, … `psSkirtBrim`, `psGCodePostProcess`). Selected
plugins run per step with cancellation honored and failures surfaced as
ordinary slicing errors, never crashes.
- G-code post-processing is folded into this capability as the final
step (`psGCodePostProcess`); the separate "post-processing" plugin type
and its option are removed. Breaking only for the unreleased plugin API
— migrated plugins gain settings and config access in return.
## The Python API (`orca.host`)
- The live print graph is exposed as raw host classes — `Print`,
`PrintObject`, `Layer`, `LayerRegion`, `SurfaceCollection`, `Surface`,
`ExPolygon`, `Polygon`, `Point`, plus `Model`/`TriangleMesh` with
zero-copy numpy views.
- Geometry is genuinely editable through the class API: in-place
transforms, whole-surface replacement, and vertex-level rebuilds, with
`layer.make_slices()` re-deriving the C++ invariants after edits. Write
paths validate input, so malformed data raises in Python instead of
corrupting the slice.
- Bindings are organized under `src/slic3r/plugin/host/` by domain.
## Architecture
- All libslic3r hook seams (capability resolver, pipeline dispatcher)
are installed and uninstalled by one composition root,
`plugin/PluginHooks`, from `PluginManager::initialize()`/`shutdown()`.
GUI_App no longer accumulates per-capability wiring, and hooks detach
before the Python interpreter finalizes.
## Samples (`sandboxes/`) — one per editing idiom
| Sample | Step | Demonstrates |
| --- | --- | --- |
| **Inset Every Slice** | `posSlice` | Shrink every slice via polygon
offset + whole-surface replacement (`slices.set`) |
| **Twistify** | `posSlice` | Twist/taper/wobble via count-preserving
in-place transforms |
| **Fuzzy Slices** | `posSlice` | Fuzzy skin applied to the slice
contours themselves (vertex-level rebuild) — walls, infill, and the
preview all inherit it |
| **G-code Stamp** | `psGCodePostProcess` | Editing the exported G-code
file in place |
# Screenshots/Recordings/Graphs
1. Fuzzy skin example:
Orca's built-in fuzzy skin perturbs the outer-wall EXTRUSION PATHS
during
perimeter generation, so only the printed wall is fuzzy. This sample
instead
perturbs the sliced outline itself at sliced geometry:
<img width="1230" height="902" alt="image"
src="https://github.com/user-attachments/assets/bcf8b0c7-f932-4e6a-985d-7c9cc2f3d7cb"
/>
2. Twistify -- twist/taper/wobble any model at slice time
every layer's sliced surfaces are transformed by a similarity
about the object's bounding-box center as a function of Z
https://github.com/user-attachments/assets/d1309ea8-b01c-4708-adf1-821b3b00a4cc
3. Inset Every Slice -- a small, WORKING SlicingPipeline sample plugin
For every layer/region of the sliced object, this shrinks each
sliced surface by INSET_MM using a real polygon offset
<img width="1225" height="896" alt="image"
src="https://github.com/user-attachments/assets/5f2028a9-ae2a-4aea-8b38-a3d6e24f5cb4"
/>
Experimental fuzzy on geometry
Mirrors libslic3r's fuzzy_polyline on the slice contours at Step.posSlice,
demonstrating the count-changing mutation idiom (rebuild ring via
Polygon.append, write back via ex.contour / ex.set_holes). C++ analogue
test proves area preservation, cascade, and bounded displacement.
The Print-level LayeredNozzleGroupResult had a single producer, the
by-layer branch of ToolOrdering, which is gated to non-sequential prints.
The by-object branch in Print::process computed a grouping only in auto
map modes and never stored it, so a sequential slice exported with a null
group result: the per-nozzle placeholder tables came up empty and any
start g-code indexing nozzle_diameter_at_nozzle_id[] aborted with
"Indexing an empty vector variable". A prior by-layer slice masked the
bug by leaving its (never cleared) result on the Print.
Now the by-object branch runs get_recommended_filament_maps in every
static map mode (in manual modes the result mirrors the user's
assignment, deviations throw as in by-layer) and publishes it
print-wide. The config write-back stays gated to auto modes: in manual
modes it would only re-store the pre-slice values.
Regression test: a two-object by-object print must publish a non-null
group result and resolve nozzle_diameter_at_nozzle_id[] in start g-code
(both fail without the fix). Suites green (libslic3r 48929/162,
fff_print 633/60); 18-fixture byte gate identical; the by-object repro
project goes from the export error to valid g-code, determinism x2.
GUI_App::on_init_inner() carried the plugin dispatch policy inline (the
capability resolver and the slicing-pipeline dispatcher) and would grow
with every capability that fires from inside libslic3r.
plugin/PluginHooks.{hpp,cpp} now owns one file-local installer per hook,
aggregated by plugin_hooks::install() -- called from
PluginManager::initialize(), reset in shutdown() so no hook can enter
Python after the interpreter finalizes. The wx-side loader subscriptions
move into GUI_App::init_plugin_gui_wiring().
No behavior change; dispatch bodies moved verbatim.
HoverLabel's constructor used SetSizerAndFit, which records the
count-hidden width as the panel's explicit minimum size. An explicit
minimum outranks best size in sizer allocation, so once the "(N)" count
was shown, any ancestor Layout() - e.g. switching the extruder flow type
to Standard or High Flow - shrank the title row back to the stale width
and clipped the trailing edit button. Hybrid only appeared correct while
nothing had re-laid the row since its own Fit().
Use plain SetSizer and, on every title/count change, invalidate the
cached best size and re-lay both the row and its parent so the sizer
always allocates the current content width.
Print::apply rebuilds m_config.filament_map_2 to the real per-filament slot
map on every apply, while the incoming full config only ever carries the
ConfigDef default. The resulting phantom one-key print_diff hit the
invalidator's catch-all branch and killed every print-level step on each
apply, so on multi-extruder printers a fresh slice result was invalidated
the moment the GUI re-applied after slicing completed.
Dropping the key from print_diff loses no information: it is never a user
input, and the rebuild derives it from filament_map, filament_volume_map
and the variant slots, each of which is diffed and invalidation-listed on
its own.
Regression test: re-applying an unchanged config after process() must not
invalidate psSlicingFinished (fails with APPLY_STATUS_INVALIDATED without
the fix). Suites green (libslic3r 48891/154, fff_print 631/59); 19-fixture
byte gate identical incl. the Hybrid repro project, determinism x2.
Bind libslic3r's TriangleMesh directly with a shared_ptr holder rather than
wrapping it in a HostTriangleMesh snapshot struct. ModelVolume.mesh() hands
out the volume's own shared_ptr (via const_pointer_cast, which only serves
the holder type), so the Python object pins the snapshot exactly as the
wrapper did, and the zero-copy views now use the Python object as their
array base — deleting the capsule machinery.
The wrapper's type-level constness becomes a documented rule instead:
handed-out meshes are copy-on-write snapshots shared across threads, so the
binding exposes only const methods; a future mutable-mesh API must operate
on plugin-owned copies handed back via ModelVolume::set_mesh.
No Python-visible change (orca.host.TriangleMesh, same methods/docstrings),
and plugins now hold the real class a future set_mesh() will accept.
Verified with slic3rutils and fff_print suites.
- FilamentMapDialog's manual page understands volume types: a mixed
(Hybrid) extruder shows separate Standard / High Flow drop zones
with live sub-nozzle counts, a validation timer with an inline
error + "set nozzle count" suggestion, and composes a per-filament
volume map on OK (persisted to the plate or globally)
- switching an extruder's Flow type rewrites the affected plate map
entries; plate maps stay sized across filament add/delete/count
changes (values keep their filament, no index shift)
- CLI: manual mapping on multi-nozzle printers synthesizes the volume
map from extruder flow types when absent; nozzle-manual mode
requires explicit maps; computed maps land on the plate so exported
projects carry filament_volume_maps
- filament_nozzle_map joins the project options (selection seeding +
filament-count resizing)
- pot entries for the new dialog strings
All 19 reference fixtures byte-identical; slicing an exported Hybrid
project reproduces its g-code byte-for-byte with the volume map
round-tripped through model_settings.config.
PluginHostApi.cpp had grown into one TU holding the module entry point plus
three unrelated domains (presets, model/mesh graph, app access), and
PluginHostSlicing.cpp mixed ownable geometry value types with the
non-owning live print graph. Reorganize the orca.host surface into
plugin/host/ with one registrar per domain:
- PluginHost.hpp/.cpp entry point (replaces PluginHostApi)
- PluginHostBindings.hpp internal per-domain registrar declarations
- PluginHostGeometry.cpp BoundingBox, Point, Polygon, ExPolygon + ndarray parsing
- PluginHostMesh.hpp/.cpp TriangleMesh snapshot (own TU ahead of planned
mesh construct/mutate APIs)
- PluginHostPresets.cpp Preset, PresetCollection, PresetBundle
- PluginHostModel.cpp scene graph: Model, ModelObject, ModelInstance, ModelVolume
- PluginHostApp.cpp Plater + plater()/model()/preset_bundle() accessors
- PluginHostSlicing.cpp live print graph only, now with a single lifetime story
- PluginHostUi.hpp/.cpp moved unchanged
PluginBindingUtils.hpp stays at plugin/ root: it is shared with pluginTypes/
and tests, not host/-specific.
No Python-visible change: same submodules, class names and docstrings.
Verified with slic3rutils and fff_print suites.
- the g-code writer tracks the current layer id and resolves
FILAMENT_CONFIG/NOZZLE_CONFIG (plus every non-macro variant lookup,
toolchange placeholder scalars, and the change-filament flush
overrides) through Print's per-filament, per-layer config-index
resolvers instead of the filament->extruder collapse
- update_layer_related_config refreshes the per-layer
extruder/volume/nozzle maps in the writer config;
update_placeholder_parser_with_variant_params remaps the
filament-variant arrays into filament-id space for custom g-code
(Orca's flush placeholder computation moves inside it)
- the engine's concrete per-filament volume assignment now merges into
the config write-back (the temporary hold from the producer commit
is lifted together with these consumers), and the background process
reads the computed volume map back to the plate
- append_full_config dumps the resolved filament_map_2 slots
- update_used_filament_values gains a bounds guard
- tests: per-filament Hybrid slot resolution + null-result fallback
Result: on a Hybrid extruder, each filament's features slice with its
assigned sub-nozzle's variant values (speeds, volumetric limits,
retraction). Verified on a 4-filament H2C Hybrid project: outer walls
split into three feedrate populations (30/50/200 mm/s), toolpath
geometry byte-identical, deterministic across repeated slices. All 18
non-Hybrid reference fixtures stay byte-identical except the
filament_map_2 header value now showing the real slot. Auto grouping
ties (multiple zero-flush perfect matchings) may pick a different
filament-to-nozzle isolation than other slicers; verified co-optimal.
- Print::update_filament_maps_to_config takes filament/volume/nozzle
maps, backfills an empty volume map from extruder types, rebuilds
filament_map_2, re-expands the per-filament variant arrays, and
recomputes retract overrides keyed by resolved slots
- grouping writes its result back in every non-sequential mode;
manual multi-nozzle grouping validates the user mapping and raises a
translatable error on deviation; the engine's concrete volume
assignment is deliberately not merged yet (per-filament arrays are
already consumed by filament id, so materializing High Flow now
would change motion before the layer-aware resolvers land)
- Print::apply treats the three map keys as engine outputs in auto
modes (erased from the diff and adopted), compares them against used
filaments in manual mode, and keeps the pre-expansion snapshot in
sync with the late normalization pass so rebuilt headers reflect the
sliced state instead of resurrecting stale values
- volume/nozzle maps and extruder_nozzle_stats join the invalidation
group of filament_map (wipe tower + skirt/brim)
- PresetBundle composes full configs with an optional per-filament
volume map (plate map, else defaults derived from each extruder's
flow type); project config keeps the map sized across filament
count changes
- PartPlate stores per-plate volume/nozzle maps; Plater injects them
at every slice-composition site (incl. g-code reload and wipe-tower
estimation); BackgroundSlicingProcess reads engine results back to
the plate in auto modes
- per-filament map trust guards relaxed to size-match everywhere now
that every producer sizes the map; single-filament explicit flow
assignments are honored
- tests: grouping volume maps stay concrete, merge semantics of
update_used_filament_values, single-filament override honoring
Motion g-code is byte-identical fleet-wide including Hybrid projects
(19-fixture gate + repro determinism double-slice). Header deltas:
the map keys now dump real values, and stale pre-normalization values
(e.g. enable_prime_tower on single-used-filament prints) no longer
leak into the config block.
Review the slicing-pipeline plugin comments for context a reader of the source
alone cannot follow, and rewrite them to stand on their own:
- drop pointers to uncommitted design/plan material ("§3.6 (Twistify design)",
"the brief's note", "Fix 4(a)/4(b)")
- fix dangling references to code this branch removed: the retired set_slices()
and view mutators, the former G-code post-processing capability/trampoline,
the "Post-processing" capability family, the pre-refactor array helper
- drop "v1"/"in v1" phase labels, keeping the behavior they described
- correct stale cross-references: Twistify.py -> the real sample path;
test_plugin_host_api.cpp:32-40 -> import_orca_module in python_test_support.hpp;
"the binding"/"graphs above" -> the named source
Comment/string-only; no code behavior change.
- Print::get_nozzle_config_index / get_filament_config_indx resolve a
filament's variant slot per layer from the nozzle group result, with
hashed index caches; when no group result is published (sequential
prints), they fall back to the static filament->extruder mapping so
behavior is unchanged
- filament_map_2 caches each filament's resolved print-variant slot;
rebuilt in Print::apply after the filament_map diff handling and in
the filament-map write-back
- filament retract overrides now key by slot indices: apply_override
fallback indexing flips to 0-based, Print::apply passes
filament_map/extruder indices, the write-back passes filament_map_2
(identical resolution while slots equal extruders)
- filament_volume_map/filament_nozzle_map/filament_map_2/
filament_self_index become PrintConfig static members (required for
member access); grouping input guards tightened so their registered
1-element defaults are never mistaken for real per-filament maps
(single-filament manual mode keeps the mix-marker fallback)
- update_filament_self_index_cache refreshed at every full-config
assignment
- tests: 0-based apply_override fallback, get_config_index_base
hit/miss/mixed-type cases
The resolvers are not consumed by the g-code writer yet. Non-Hybrid
g-code is unchanged except the config header, which now serializes the
three new static keys (defaults until the per-filament producer lands);
verified by the 19-fixture byte gate: 3 added header lines per fixture,
zero motion changes.
- get_extruder_nozzle_volume_count derives per-extruder volume-type slot
lists from extruder_nozzle_stats (absent stats = one slot per extruder)
- update_values_to_printer_extruders learns the slot layout: when any
extruder mixes volume types, option arrays keep one slot per
(extruder x volume type), extruder-ascending then volume-ascending;
single-slot resolution takes the filament's volume type on mixed
extruders
- update_values_to_printer_extruders_for_multiple_filaments applies a
per-filament nozzle_volume_type override from filament_volume_map
(when sized to the filament count) and remaps filament_self_index
through the same pipeline as every other filament key
- get_config_index_base + is_auto_filament_map_mode helpers (consumers
land with the per-filament config-index resolvers)
- callers updated: PresetBundle composition paths, PrintApply (counts
hoisted above the extruder_applied guard), Print write-back
- new tests: slot counting, Hybrid slot expansion incl. stride 2,
per-filament override, non-Hybrid degeneracy
Non-Hybrid printers keep their variant layout and values (proven by a
19-fixture byte gate; the only header delta is filament_self_index now
flowing through the same variant pipeline as its sibling filament
keys). Hybrid slices grow the config-block variant arrays to one entry
per sub-nozzle volume type; motion g-code is unchanged until the
g-code writer consumes the new slots.
G-code post-processing is now a step of the slicing-pipeline plugin rather than a
separate capability type. One capability class can transform slices at the geometry
seams AND edit the final G-code, behind a single picker/option.
- Add SlicingPipelineStepPlugin::psGCodePostProcess (bound as
orca.slicing.Step.psGCodePostProcess). Unlike the geometry steps it fires from the
GUI export path in PostProcessor.cpp, not from Print::process(): ctx.print/ctx.object
are None and the plugin edits the file at ctx.gcode_path in place. It may run more
than once per slice (file export and/or upload) and its output is not shown in the
preview.
- Extend SlicingPipelineContext with gcode_path/host/output_name and a C++-only
full_config; config_value() falls back to it when there is no live Print.
- PostProcessor.cpp dispatches SlicingPipelinePluginCapability at psGCodePostProcess,
driven by the existing slicing_pipeline_plugin option.
- The exported G-code lives outside data_dir(), so the plugin audit sandbox would
block the write; the trampoline's audit setup grants ctx.gcode_path's folder as a
scoped allowed root, gated on a non-empty gcode_path so the geometry-step hooks gain
no extra filesystem access.
BREAKING CHANGE: the separate G-code post-processing capability type is removed.
- orca.gcode.GCodePluginCapabilityBase and orca.PluginType.PostProcessing are gone;
post-processing plugins migrate to orca.slicing.SlicingPipelineCapabilityBase +
Step.psGCodePostProcess (and gain ctx.params / ctx.config_value()).
- The post_process_plugin config option is removed; use slicing_pipeline_plugin.
Presets carrying the old key degrade to the standard unknown-key warning.
- Manifest type = "post-processing" now maps to Unknown (advisory only; the loader
dispatches on the C++ get_type()).
Also repairs two latent build breaks the branch carried: stale Step enum value usages
in test_slicing_pipeline_hook.cpp and a reference to the removed
ConfigOptionDef::PluginType::None in Tab::on_value_change (now is_plugin_backed()).
Adds the orca_gcode_stamp sample plugin and a psGCodePostProcess binding test.
The sidebar extruder cards get an interactive title row — "<name> ( <count> )"
with an edit button — showing the extruder's physical nozzle count on
multi-nozzle printers (hidden elsewhere). Clicking it opens the existing
"Set nozzle count" dialog, which now also handles a Hybrid extruder by
offering both Standard and High Flow counts (an empty mix is rejected) and
shows a hotend thumbnail.
Because `extruder_nozzle_stats` is session-only (saved presets never carry
it, so preset switches rebuild the edited config without it), the stats are
re-baselined whenever they are missing: each extruder starts with
extruder_max_nozzle_count nozzles of its selected volume type. Switching an
extruder's flow type carries its total count over to the new type, except
when the stats came from a device sync — the machine-reported per-type
breakdown must survive a manual flow switch.
The badge refreshes on preset load, flow-type change, manual edit, device
sync, and project load. Single-extruder cards keep the title row but never
enable editing.
An extruder with more than one physical sub-nozzle can hold a mix of
Standard and High Flow nozzles. The Flow dropdown now offers Hybrid for
such extruders (extruder_max_nozzle_count > 1, nil-guarded); grouping
already expands a Hybrid extruder into per-volume nozzle groups from
extruder_nozzle_stats.
- sidebar Flow combo offers Hybrid only for multi-sub-nozzle extruders
- preset lookup treats Hybrid as Standard (presets define no Hybrid
variant); variant strings are never fabricated for it
- printer tab splits a Hybrid extruder into Standard + High Flow rows,
with matching selection-index arithmetic and sync-enable rules
- syncing from a printer whose extruder holds mixed nozzle flows now
selects Hybrid instead of collapsing to the dominant flow type
- send-to-printer flow check: a nozzle-rack extruder validates its
nozzle inventory (mounted + rack) against every needed flow instead
of comparing only the mounted nozzle; mounted-flow lookup is now
per-extruder, fixing an index shift when a nozzle reports no flow
- Hybrid is session-only in app config (stored as Standard), so a
fresh session starts from concrete flow types
Printers whose extruders have a single sub-nozzle (including all
dual-extruder machines without a rack) see no new option and identical
check behavior.
Declare support_cooling_filter=1 on the three profiles (0.2/0.6/0.8
variants inherit from 0.4) and insert the cooling-filter conditional
into the H2D and H2S machine start g-code, inside the low-chamber-temp
airduct branch:
{if(cooling_filter_enabled)} M145.2 P0 F0 {else} M145.2 P0 F1 {endif}
H2D Pro intentionally gets no g-code edit: its duct firmware takes the
filter mode over the device channel only, so the flag merely enables
the toggle.
Impact on existing users at default settings: H2D/H2S start g-code gains
exactly one line (M145.2 P0 F1, filter off) in the cool-chamber branch;
nothing is removed or reordered. The existing support_air_filtration=1
overrides are deliberately kept so exhaust-fan behavior for ABS-class
filaments is unchanged, even though the machine-tab row is hidden while
the cooling-filter toggle is shown.
cooling_filter_enabled existed as a config option but was shown nowhere,
and there was no capability flag to gate it. The cooling filter and air
filtration are alternative accessories sharing the same duct, so a
printer declares one or the other.
- new hidden printer capability flag support_cooling_filter
- "Use cooling filter" toggle in the Accessory group, shown only when
the printer supports it; the air-filtration toggle hides in that case
(no vendor restriction: third-party printers keep air filtration)
- explicit defaults (0) in the common machine base
- H2C declares support_cooling_filter=1 instead of support_air_filtration;
its start-gcode already carries the cooling-filter conditional, so the
toggle is functional. On H2C this drops the two exhaust-fan lines that
air filtration emitted for ABS-class filaments, matching the printer's
actual duct accessory; H2C is new on this branch so no existing user
output changes.
Printers without the flag keep exactly the previous accessory UI and
g-code.
New printer option fan_direction (undefine/left/right/both, default
undefine) declares which side the auxiliary part-cooling airflow comes
from. When set and the printer has an auxiliary fan, auto-orient adds a
yaw rotation so the dominant overhang area faces the airflow, and newly
added primitive shapes are pre-oriented the same way (except the Cube,
whose axis-aligned bounding box the pressure-advance pattern calibration
depends on).
- FanDirection enum + fan_direction printer option (Accessory group,
enabled only with auxiliary_fan)
- orient engine: weighted overhang areas per candidate, yaw-direction
search, vertical rotation applied on top of the primary orientation;
the cooling weights are taken from the candidate actually chosen,
including the flat-bottom tie-break
- orient_for_cooling() for primitive placement
- set fan_direction=left on H2C/H2D/H2D Pro/X1/X1E/P1S 0.4 profiles
(X1C/H2S/P2S/X2D/Qidi X-Max 4 already carried the key, which now
takes effect)
With fan_direction unset or no auxiliary fan the vertical rotation stays
identity and auto-orient results are unchanged; slicing and g-code are
never affected.
The engine already implements prime_volume_mode (Default/Saving/Fast)
but nothing in the UI could set it, leaving prime-saving unreachable on
multi-sub-nozzle extruders and fast purge unreachable on printers that
support it.
- new PurgeModeDialog with selectable Standard/Fast or
Standard/Prime Saving cards depending on printer capability
- "Purge mode" sidebar button next to Flushing volumes; opens the
dialog and stores the choice in the project config
- printer preset-load gating: button shown only when the printer has
multiple sub-nozzles per extruder or sets support_fast_purge_mode;
stale project values the printer cannot honor reset to Default
- enable fast purge on A2L 0.4 (support_fast_purge_mode), explicit
default 0 in the common machine base
- new dialog strings added to OrcaSlicer.pot
Printers without these capabilities never show the button and their
projects keep prime_volume_mode at Default, so slicing output is
unchanged.
Filament grouping already consumed per-filament forbidden nozzle volume
types, but every call site passed an empty map, so a variant-restricted
filament (e.g. one limited to "Direct Drive TPU High Flow") could be
auto-grouped onto an incompatible nozzle flow type on multi-variant
printers.
- add convert_to_nvt_type() to parse extruder variant strings
- add Print::get_filament_unprintable_flow(): forbidden volume types =
printer extruder variants minus the filament's declared variants;
filaments declaring no variants stay unrestricted
- feed the map into grouping at the by-object path (Print.cpp) and all
six mapping/planning sites in reorder_extruders_for_minimum_flush_volume
- unit-test the string parser
Non-restricted configurations produce an empty map, so existing
printers' grouping and g-code are unchanged.
The FilamentGroup property/golden harness checked a per-extruder
max_group_size cap unconditionally in check_constraints. That cap is an
invariant of the flush-partition solvers only (calc_group_by_enum /
calc_group_by_kmedoids, reached via calc_filament_group_for_flush), which
partition filaments subject to each extruder's capacity.
MatchMode (calc_filament_group_for_match) does not partition by capacity:
it maps every filament to the extruder holding the nearest-color loaded
AMS filament, and its solver capacity is the used-filament count, not
max_group_size (FilamentGroup.cpp:1067). So a legitimate MatchMode result
can place more than max_group_size filaments on one extruder.
The prop_a/b/c_mode_match specs run MatchMode, and their scenarios are
generated with std::uniform_int_distribution / std::shuffle, which are
implementation-defined. For a fixed mt19937 seed, libc++ (macOS), libstdc++
(Linux) and MSVC (Windows) draw different scenarios, so the CI failure only
surfaced on Linux/Windows while macOS passed. Verified locally: 248/600
config-A MatchMode seeds exceed the cap under libc++ — it is reachable
everywhere; seed 90400 just isn't an exceeding draw on macOS.
Gate section 3 on FGMode != MatchMode. No test case is removed or skipped:
all 57 FlushMode specs still assert the cap, MatchMode still asserts the
unprintable-filament/volume correctness constraints (which it honors), and
MatchMode grouping regressions are still caught by the golden score gate at
3% tolerance. Test-only change; slicing behavior and g-code are unaffected.
NfpPlacer stores std::reference_wrapper to the items it packs and re-reads
them from finalAlign() in its destructor (via clearItems()). Two placer
tests declared the placer before the items in the same scope, so the items
were destroyed first and the destructor dereferenced dangling references.
On macOS this is a deterministic SIGSEGV: libmalloc poisons the freed block
on free, so the item's point vector reads back as ~null (deref at 0x8). On
Linux/glibc the freed bytes usually survive, which is why it slipped through
upstream CI (introduced by #14267).
Declare the items before the placer so they outlive it, matching the pattern
the sibling 'packs many items' and 'obstacle' tests already use. Test-only;
the library lifetime contract (items must outlive the placer) is unchanged
and honored in production via _Nester in Arrange.cpp.
fix: prevent startup crash when preset-sync directory scan hits a transient FS error
On startup the user-preset sync thread scans the preset folder for orphaned
.info files (scan_orphaned_info_files). It iterated the directory with a
throwing boost::filesystem::directory_iterator while running on a background
thread that has no exception guard. On macOS, readdir() can intermittently
fail with ENOTSUP (errno 45); boost then throws filesystem_error, which --
uncaught on the sync thread -- calls std::terminate and aborts the whole
application on startup.
- Iterate with the error_code-based directory_iterator so a transient read
failure is logged and skipped instead of thrown. The orphan scan is
best-effort and re-runs on the next sync, so skipping a cycle is harmless.
This mirrors the existing pattern in has_json_presets() and the plugin scan.
- Wrap the entire sync-thread body in try/catch as defense-in-depth, so no
future uncaught exception on that otherwise-unguarded thread can abort the
app.
The Filament Track Switch (H2-series accessory, product code O2L-FTS) feeds
every AMS to both extruders through a two-track switch. Port full support
across the device layer, project config, and GUI.
Device / config:
- Model the switch-aware AMS binding (the set of extruders an AMS can feed
and which input track A/B feeds it), switch readiness, the O2L-FTS firmware
module, and the fun2 capability bit for checking a slice against installed
hardware.
- Register has_filament_switcher and enable_filament_dynamic_map as project
config that persists with the project and restores from a saved 3mf, and
force both back to false on every project/printer/CLI load path. Live
device sync is the only thing that sets them true.
GUI:
- Sidebar sync activates the switch from live device state, attributes each
AMS to the extruder its input track feeds, shows a floating status icon
(ready / not-calibrated), and surfaces a one-time tip / not-calibrated
warning.
- Send dialog gains a non-blocking slice-vs-hardware mismatch warning and a
blocking error when a slice needs dynamic nozzle mapping but the switch is
missing or not set up.
- AMS load/unload guards, AMS-view routing glyph + un-calibrated banner +
hidden external-spool road, and mapping-popup external-spool lockout.
- Filament pickers collapse the per-extruder split into a single deduplicated
"AMS filaments" group with a smart-assign toggle when the switch is ready.
- Firmware-upgrade panel lists the O2L-FTS accessory and its version.
- Device-provided filament-change steps (ams.cfs) drive the change-step
display when firmware sends them, including the three switch steps.
- "Load current filament" asks which extruder to feed via a
FeedDirectionDialog when the switch is calibrated.
Inert without the accessory: every path is gated on the switch being
installed (MQTT aux bit 29, default off) or ready, both project flags default
false, and the per-extruder AMS attribution is byte-identical, so AMS state,
the send/load UI, and sliced g-code are unchanged for every printer that does
not report a Filament Track Switch.
Multi-nozzle sync widget, AMS rack-nozzle mapping popup, calibration rework, send-dialog nozzle mapping and extruder-count UI. Includes the fix to persist the AMS sync badge on filament cards (H2C/A2L and direct-sync printers).
Nozzle rack data model and device-tab panel, multi-nozzle sync, per-nozzle filament blacklist, and print-dispatch nozzle mapping (DevNozzleMappingCtrl V0/V1).
Replaces the plugin-only set_slices/set_fill_surfaces/set_lslices mutators with a
faithful, mutable binding of the core geometry types, so a plugin edits the slicing
graph through the same object model the C++ code uses.
- Point, Polygon, ExPolygon, Surface and SurfaceCollection gain constructors,
writable accessors (contour/holes, set/append/clear, filter_by_type), transforms
(rotate/scale/translate), boolean ops and offset. Polygon exposes a zero-copy
writable numpy view via a make_writable_rows helper.
- LayerRegion.slices/fill_surfaces stay read-only refs but are now live,
in-place-editable SurfaceCollections; Layer.make_slices() re-derives the islands
and refreshes lslice bounding boxes.
- Rewrites the Inset and Twistify samples on the new API (in-place ExPolygon
transforms, ExPolygon.offset, SurfaceCollection.set), dropping their numpy
dependency; each touched layer calls make_slices() so downstream steps see the
edited footprint. Adds tests covering in-place edits through a live collection.
BREAKING CHANGE: set_slices/set_fill_surfaces/set_lslices and the internal
parse_expolygon(_list)/surfaces_from_py helpers are removed. Plugins mutate through
the class API (SurfaceCollection.set/append/clear, Polygon.set_points/append,
ExPolygon.set_holes) instead.
Brings in the Plugins dialog as-you-type search with fuzzy match highlighting
and clickable column-header sorting (name, version, source, status) — PRs
#14610 and #14611.
Adds PluginHostSlicing, which registers the print-graph data model (Print,
PrintObject, Layer, LayerRegion, Surface, ExPolygon, extrusions, ...) into the
orca.host submodule in the same raw-class style as PluginHostApi's Model/Preset
graph, with shared helpers in PluginBindingUtils. SlicingPipelinePluginCapability
is trimmed to the capability surface (the standalone SlicingNumpy helper is folded
away). Adds the Twistify example plugin next to Inset and broadens the binding,
hook, and plugin-install tests.
* fix profile reference for Creality
* fix profile reference for Blocks
* fix profile reference for OrcaArena
* fix profile reference for re3D
* fix profile reference for Chuanying
* fix profile reference for Prusa
* fix profile reference for Wanhao France
* fix profile reference for MagicMaker
* fix profile reference for Afinia
Remove the ABS/ABS+/PLA/TPU/Value ABS/Value PLA filament presets that referenced the non-existent "Afinia H400 Pro" printer. The real printer is "Afinia H+1(HS)", already served by the @HS filament variants.
* fix profile reference for Comgrow
Remove the orphaned "0.20mm Standard @Comgrow T500 1.0" process preset and its process_list entry. Its only compatible printer "Comgrow T500 1.0 nozzle" never existed (the T500 model defines nozzle diameters 0.4/0.6/0.8 only).
* always run check_preset_references
The 409 conflict notification, the force-push confirmation dialog, and the payload-too-large (413) dialog now name the affected preset. The name was already parsed from the conflict body but never surfaced. The account-level preset-limit message stays generic since it isn't about one specific preset.
* Fix reload from disk for STEP models after reopening a project (#12992)
reload_from_disk matched reloaded source volumes with an exact
source.input_file string comparison. After a project is saved and
reopened, the stored source path is only the filename (the default,
non-full-path save) while a freshly re-imported volume carries a full
path, so the comparison never matched: reload fell into fail_list and
the "locate file" dialog was effectively useless for STEP models.
Fall back to a case-insensitive filename comparison when the exact
paths differ, so the existing same-folder source lookup (and the
locate dialog) can reload the model. Projects that stored absolute
source paths still match exactly as before; no 3mf format change.
* Add Preferences option to store full source paths in projects
Expose the existing export_sources_full_pathnames setting (previously
only editable in the config file) as a checkbox under Preferences >
General > Project. Enabling it stores absolute source paths in saved
projects, so "Reload from disk" works when the source file is kept in
a different folder than the project (companion to #12992).
Introduces a plugin capability that runs Python at the seams of Print::process(),
letting a plugin read and rewrite slicing state as it is computed.
- New slicing_pipeline_plugin config option; selected plugin refs are serialized
into the print manifest.
- Print gains an injectable hook fired at each pipeline step (posSlice,
posPerimeters, posInfill, ...). It is a no-op when unset, fires only on genuine
(re)computation, and never on the use-cache path.
- orca.slicing submodule: SlicingPipelineCapabilityBase plus a trampoline and a
Step enum. Capabilities read the live graph through zero-copy int64 numpy views
(contour/holes geometry with unscaled coordinates, flattened toolpath data) and
edit it through 2D-geometry mutators with cache-invariant refresh.
- GUI dispatcher runs capabilities during slicing under the GIL, turns plugin
errors into slicing errors, honors cancellation, and adds the plugin picker.
- Ships the InsetEverySlice sample plugin and binding/hook tests.
# Description
This PR expands profile validation so we can catch backward
compatibility issues with custom presets generated by older OrcaSlicer
releases. It also adds missing `renamed_from` metadata for presets that
were renamed or moved, so older user presets can resolve their original
parent names against the current system profiles.
## Background
Many users have reported missing preset issues after upgrading past
2.4.1. Investigation showed two common causes:
- preset lookup and compatibility checks did not always account for
`renamed_from`
- some renamed base presets were missing the old preset name in their
`renamed_from` metadata
The existing profile workflow validates the current system profile tree
and a single nightly-generated custom preset bundle. That is useful for
catching current profile errors, but it does not validate user presets
generated by older OrcaSlicer versions against the current system
profiles. As a result, older missing-parent compatibility gaps can slip
through.
## Changes
- Update `check_profiles.yml` to validate historical custom preset
fixtures from `OrcaSlicer/OrcaSlicer-profile-validator`.
- Download the fixture manifest from the public `fixture-archive`
release.
- Validate each `orca_custom_presets_<version>.zip` fixture
independently against the current PR's `resources/profiles`.
- Generate per-version validation logs and upload them as workflow
artifacts.
- Fail profile validation if any historical fixture version fails.
- Add missing `renamed_from` aliases for renamed/moved presets found by
the historical fixture validation.
## Profile Compatibility Fixes
This PR adds aliases for older parent names including:
- `0.20mm Bambu Support W @BBL X1C` -> `0.20mm Standard @BBL X1C`
- `Bambu PLA Impact @BBL X1C` -> `Bambu PLA Impact @System`
- `Ginger Generic rPLA` -> `Ginger Generic PLA`
- `Ginger Generic rPETG` -> `Ginger Generic PETG`
- legacy `Panchroma PLA Stain` BBL filament names -> current `Panchroma
PLA Satin` names
- legacy Elegoo casing/name variants such as `Elegoo RAPID PLA+`,
`Elegoo RAPID PETG`, `Elegoo RAPID PETG+`, and `Elegoo PETG Pro @System`
## Validation Flow
The custom preset validation step now:
1. Downloads `manifest.json` from the `fixture-archive` release.
2. Iterates over every fixture listed in the manifest.
3. Copies the current branch's `resources/profiles` into a temporary
profile tree.
4. Removes any existing `user` directory from that temporary tree.
5. Unzips exactly one historical fixture into the temporary tree.
6. Runs `OrcaSlicer_profile_validator -p <temp profile tree> -l 2`.
7. Writes a version-specific log and a consolidated summary.
This keeps validation scoped per fixture version and avoids mixing
generated user presets from different OrcaSlicer releases.
## Fixture Source
Historical fixtures are stored as public release assets in:
`OrcaSlicer/OrcaSlicer-profile-validator`, release tag `fixture-archive`
Each release asset is expected to be named like:
```text
orca_custom_presets_v2.4.1.zip
```
## Testing
Validated locally with:
- current system profile validation
- BBL filament subtype validation
- historical custom preset fixture validation
- extra profile JSON check in a clean profile tree
The affected historical fixture set passed after adding the missing
`renamed_from` aliases.
The release manifest controls which fixture versions are validated.
[How to Download Pull Requests Artifacts for
Testing](https://www.orcaslicer.com/wiki/how_to_download_pr_artifacts)
SoftFever