gcode
/gcode
Generuje, sprawdza i statycznie waliduje zwykły FDM .gcode z siatek 3D (stl, obj, 3mf, ply, glb, gltf) przez prawdziwe slicery CLI z profilami drukarek.
- Autor
- autonomous-ai ↗
- Repozytorium
- openharness ↗
- Licencja
- MIT
- Ostatnia zmiana repozytorium
- 27.10.2026
Ocena i bezpieczeństwo
- Pliki w paczce
- 6
- Skrypty
- 1
- Komentarze HTML
- 0
- Adresy URL w SKILL.md
- 1
Brak sygnałów. Repozytorium zmienione 27.10.2026, bez odwołań do wycofanych modeli i API.
MIT, otwarta: można używać i zmieniać, z zachowaniem informacji o autorze.
- 1 skrypt w paczce. Przejrzyj je przed instalacją, bo Claude może je uruchomić.
Skrypty: scripts/gcode_tool.py
Co robi i kiedy
Generuje, sprawdza i statycznie waliduje zwykły FDM .gcode z siatek 3D (stl, obj, 3mf, ply, glb, gltf) przez prawdziwe slicery CLI z profilami drukarek.
Oryginalny opis (EN)
Generate, inspect, dry-run, and statically validate plain FDM `.gcode` from 3D mesh files by orchestrating real slicer CLIs. Use when Codex needs to slice `.stl`, `.obj`, unsliced `.3mf`, `.ply`, `.glb`, or `.gltf` into printer-profiled G-code, discover local slicer backends, inspect whether a mesh is slice-ready, or validate generated G-code before any printer-specific handoff.
Jak działa
- Workflow
- Profile Contract
- Backends And Inputs
- Validation
- Bambu Boundary
Podgląd SKILL.md
---
name: gcode
description: Generate, inspect, dry-run, and statically validate plain FDM `.gcode` from 3D mesh files by orchestrating real slicer CLIs. Use when Codex needs to slice `.stl`, `.obj`, unsliced `.3mf`, `.ply`, `.glb`, or `.gltf` into printer-profiled G-code, discover local slicer backends, inspect whether a mesh is slice-ready, or validate generated G-code before any printer-specific handoff.
---
# G-code
Provenance: maintained in [earthtojake/text-to-cad](https://github.com/earthtojake/text-to-cad).
Use the installed local skill files as the runtime source of truth; the
repository link is only for provenance and release review.
Use this skill for plain `.gcode` generation from mesh files. It is printer-agnostic and never uploads, starts, or packages print jobs.
## Workflow
1. Confirm the input is a supported mesh: `.stl`, `.obj`, unsliced `.3mf`, `.ply`, `.glb`, or `.gltf`.
2. Require an explicit printer/profile wrapper JSON. Do not invent real-printer profiles.
3. Discover slicer backends when the backend is unknown:
```bash
python scripts/gcode_tool.py discover
```
4. Inspect the input:
```bash
python scripts/gcode_tool.py inspect --input path/to/model.stl --json
```
5. Dry-run the slicer command before executing:
```bash
python scripts/gcode_tool.py slice \
--input path/to/model.stl \
--output /tmp/model.gcode \
--profile path/to/profile.json \
--backend auto \
--dry-run
```
6. Execute only after the dry-run command and profile are appropriate:
```bash
python scripts/gcode_tool.py slice \
--input path/to/model.stl \
--output /tmp/model.gcode \
--profile path/to/profile.json \
--backend auto \
--execute
```
7. Validate the generated G-code:
```bash
python scripts/gcode_tool.py validate \
--gcode /tmp/model.gcode \
--profile path/to/profile.json \
--json
```
## Profile Contract
Every slice requires a wrapper profile JSON with an absolute native slicer profile path:
```json
{
"backend": "orcaslicer",
"native_config": "/absolute/path/to/native-slicer-profile",
"machine": {
"name": "Example Printer",
"bed_size_mm": [180, 180],
"z_height_mm": 180,
"motion_bounds_mm": {
"x": [0, 180],
"y": [0, 180],
"z": [0, 180]
}
},
"filament": {
"type": "PLA",
"nozzle_temp_c": 220,
"bed_temp_c": 65
}
}
```
The wrapper supplies validation bounds and backend selection. `machine.motion_bounds_mm` is optional; omit it for the default `0..bed_size` and `0..z_height` bounds, or set it from a native printer profile when start/end G-code intentionally uses safe wipe/purge positions outside the printable area. The native slicer profile remains the source of detailed process, printer, and filament behavior.
For OrcaSlicer, use `native_settings` and `native_filaments` when the real profile is split across machine, process, and filament JSON files. Keep `native_config` as an absolute path to the primary native profile for compatibility:
```json
{
"backend": "orcaslicer",
"native_config": "/absolute/path/to/machine-or-process.json",
"native_settings": [
"/absolute/path/to/machine.json",
"/absolute/path/to/process.json"
],
"native_filaments": [
"/absolute/path/to/filament.json"
],
"machine": {
"name": "Example Printer",
"bed_size_mm": [180, 180],
"z_height_mm": 180
},
"filament": {
"type": "PLA",
"nozzle_temp_c": 220,
"bed_temp_c": 65
}
}
```
## Backends And Inputs
Preferred slicer backend order is `orcaslicer`, `prusa-slicer`, then `curaengine`. Prefer installing OrcaSlicer when no preferred backend is available; on macOS use `brew install --cask orcaslicer` and then rerun `discover`. The helper checks both `PATH` and the usual `/Applications/OrcaSlicer.app` cask location. Bambu Studio may be reported by discovery as available but is not preferred because its CLI export path has shown macOS instability.
Pass `.stl`, `.obj`, and unsliced `.3mf` directly to the slicer. Convert `.ply`, `.glb`, and `.gltf` to temporary STL at execution time with optional `trimesh`; if `trimesh` is unavailable, ask the user to install it or provide `.stl`, `.obj`, or unsliced `.3mf`.
Reject `.step`, `.stp`, `.dxf`, `.svg`, `.urdf`, and `.sdf` in v1. `inspect` and `slice` fail with a structured `remediation` object naming the skill and command that produce a sliceable mesh; use it instead of inferring a conversion workflow:
- `.step`, `.stp`: boundary-representation CAD, not a mesh. Export an STL sidecar with `$cad` (`cadgen stl build <input.step> <output>.stl` — the door takes the STEP document; a model script is refused, run `python <model>.py` first), then slice the exported `.stl` here.
- `.dxf`, `.svg`: 2D drawings with no 2D-to-mesh conversion in this toolchain. Model the 3D solid in `$cad` as a `@step` model script and export an STL sidecar, then slice that. If the part is a flat cut rather than a print, use `$sendcutsend` instead of this skill.
- `.urdf`, `.sdf`: robot descriptions that reference per-link mesh files. Slice the referenced `.stl`/`.obj` meshes one at a time; regenerate stale or missing ones from the owning CAD source with `$cad` first. Use `$urdf` or `$sdf` for the robot description itself.
Read `references/slicer-backends.md` when backend behavior, profile expectations, or source links matter.
## Validation
Always validate generated G-code before handing it to printer-specific workflows. The validator checks for non-empty content, temperature commands, movement commands, extrusion moves, XYZ bounds, and unknown command warnings.
Read `references/gcode-validation.md` when interpreting validation output or deciding whether a warning is acceptable.
## Bambu Boundary
This skill generates plain `.gcode` only. It does not create Bambu `.gcode.3mf` archives and does not contact printers. For Bambu upload/start workflows, hand off the validated plain `.gcode` to `$bambu-labs`. Let `$bambu-labs` choose the printer-specific LAN handoff, such as an A1 Mini template project or an explicitly enabled bambox project package.
Pliki w paczce (6)
- LICENSE 1 KB
- SKILL.md 6 KB
- agents/openai.yaml 1 KB
- references/gcode-validation.md 2 KB
- references/slicer-backends.md 4 KB
- scripts/gcode_tool.py 29 KB
Wersje
| Repozytorium | Wynik | Licencja |
|---|---|---|
| Ta strona · autonomous-ai/openharness | 100 | MIT |
| earthtojake/text-to-cad | 100 | MIT |
| GobbyAI/gobby | 100 | Apache-2.0 |
Migawka bazy z 13.11.2026 · wersja paczki ccdfb70acdf3 (skrót SHA-256 całej paczki)
Pobrania w ostatnich 30 dniach: 0 · ranking
Zgłoś problem z tym skillem: szkodliwa treść, błędny opis albo prośba autora o usunięcie.
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