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Wiki Update part 5 (#9873)
* BASE * precise wall and z moved * PolyHoles * Arc-fitting * X-Y Compensation * Elephant foot + moved images * Update quality_settings_precision.md * Wall generator and more * Full Reorder * TPMS-D bases * Update strength_settings_infill.md * Image Fix + Infill desc calculator * Descriptions + image fix Co-Authored-By: Rodrigo <162915171+RF47@users.noreply.github.com> * Update cornering-calib.md * minor fixes * Wip updated * Missing fills * Update infill_desc_calculator.xlsx * Update infill_desc_calculator.xlsx * Update infill documentation and images Removed outdated 'iso' infill images and updated 'top' infill images with new versions. Added new images for adaptive cubic and 2D honeycomb infill patterns. Updated strength_settings_infill.md to revise infill strength values, descriptions, and remove references to deleted images. Introduced documentation for 2D honeycomb infill and made minor corrections and clarifications throughout. * Revise infill pattern documentation and add comparison table Updated strength_settings_infill.md to clarify infill density calculation, add a comprehensive comparison table of infill patterns, and standardize terminology for strength and print time. Expanded pattern descriptions to use qualitative strength ratings instead of numeric values. Updated infill_desc_calculator.xlsx to reflect these changes. * Indentation in code examples Adjusted the indentation of code blocks in the cornering calibration documentation for clarity and consistency with the rest of the document. * Update 3D Honeycomb infill strength ratings Adjusted the horizontal strength rating for 3D Honeycomb infill from 'Normal' to 'Normal-High' in the strength settings documentation and table. Updated the infill_desc_calculator.xlsx file to reflect these changes. * Formatting and fix in ERS documentation Updated headings to use consistent Markdown syntax, improved clarity in explanations, and reworded references for better readability. * Fix wall generator doc link and filename Updated the Home.md to reference the correct 'quality_settings_wall_generator' section and renamed the corresponding documentation file for consistency. --------- Co-authored-by: Rodrigo <162915171+RF47@users.noreply.github.com>
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@ -28,9 +28,9 @@ Optimize your prints with ultra-fast slicing, intelligent support generation, an
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- **[Advanced Calibration Tools](https://github.com/SoftFever/OrcaSlicer/wiki/Calibration)**
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Comprehensive suite: temperature towers, flow rate, retraction & more for optimal performance.
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- **[Precise Wall](https://github.com/SoftFever/OrcaSlicer/wiki/Precise-wall) and [Seam Control](https://github.com/SoftFever/OrcaSlicer/wiki/quality_settings_seam)**
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- **[Precise Wall](https://github.com/SoftFever/OrcaSlicer/wiki/quality_settings_precision#precise-wall) and [Seam Control](https://github.com/SoftFever/OrcaSlicer/wiki/quality_settings_seam)**
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Adjust outer wall spacing and apply scarf seams to enhance print accuracy.
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- **Sandwich Mode and [SuperSlicer Polyholes](https://github.com/supermerill/SuperSlicer/wiki/Polyholes) Support**
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- **Sandwich Mode and [Polyholes](https://github.com/SoftFever/OrcaSlicer/wiki/quality_settings_precision#polyholes) Support**
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Use varied infill patterns and accurate hole shapes for improved clarity.
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- **Overhang and Support Optimization**
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Modify geometry for printable overhangs with precise support placement.
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43
doc/Home.md
43
doc/Home.md
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@ -2,16 +2,25 @@
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Orca slicer is a powerful open source slicer for FFF (FDM) 3D Printers. This wiki page aims to provide an detailed explanation of the slicer settings, how to get the most out of them as well as how to calibrate and setup your printer.
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- [Prepare](#prepare)
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- [Print Settings, Tips and Tricks](#print-settings-tips-and-tricks)
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- [Quality Settings](#quality-settings)
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- [Speed Settings](#speed-settings)
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- [Multi material](#multi-material)
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- [Strength Settings](#strength-settings)
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- [Material Settings](#material-settings)
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- [Printer Settings](#printer-settings)
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- [Printer Calibration](#printer-calibration)
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- [Developer Section](#developer-section)
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> [!NOTE]
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> The Wiki is **Work In Progress** so bear with us while we get it up and running!
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> Please consider contributing to the wiki following the [How to contribute to the wiki](How-to-wiki) guide.
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## Prepare
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First steps to prepare your model/s for printing.
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- [STL Transformation](stl-transformation)
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## Print Settings, Tips and Tricks
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@ -22,17 +31,31 @@ The below sections provide a detailed settings explanation as well as tips and t
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- [Layer Height Settings](quality_settings_layer_height)
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- [Line Width Settings](quality_settings_line_width)
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- [Seam Settings](quality_settings_seam)
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- [Precise wall](Precise-wall)
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- [Precise Z height](precise-z-height)
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- [STL Transformation](stl-transformation)
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- [Precision](quality_settings_precision)
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- [Precise Wall](quality_settings_precision#precise-wall)
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- [Precise Z Height](quality_settings_precision#precise-z-height)
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- [Slice gap closing radius](quality_settings_precision#slice-gap-closing-radius)
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- [Resolution](quality_settings_precision#resolution)
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- [Arc fitting](quality_settings_precision#arc-fitting)
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- [X-Y Compensation](quality_settings_precision#x-y-compensation)
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- [Elephant foot compensation](quality_settings_precision#elephant-foot-compensation)
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- [Precise wall](quality_settings_precision#precise-wall)
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- [Precise Z Height](quality_settings_precision#precise-z-height)
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- [Polyholes](quality_settings_precision#polyholes)
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- [Wall generator](quality_settings_wall_generator)
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### Speed Settings
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- [Extrusion rate smoothing](extrusion-rate-smoothing)
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- [Extrusion rate smoothing](speed_extrusion_rate_smoothing)
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### Multi material
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### Strength Settings
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- [Infill](strength_settings_infill)
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## Material Settings
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- [Single Extruder Multimaterial](semm)
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- [Pellet Printers (pellet flow coefficient)](pellet-flow-coefficient)
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### Printer Settings
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@ -41,8 +64,6 @@ The below sections provide a detailed settings explanation as well as tips and t
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- [Chamber temperature control](chamber-temperature)
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- [Adaptive Bed Mesh](adaptive-bed-mesh)
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- [Using different bed types in Orca](bed-types)
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- [Pellet Printers (pellet flow coefficient)](pellet-flow-coefficient)
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- [Fill Patterns](fill-patterns)
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## Printer Calibration
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@ -61,8 +82,12 @@ The [Calibration Guide](Calibration) outlines Orca’s key calibration tests and
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## Developer Section
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This is a documentation from someone exploring the code and is by no means complete or even completely accurate. Please edit the parts you might find inaccurate. This is probably going to be helpful nonetheless.
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- [How to build Orca Slicer](How-to-build)
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- [Localization and translation guide](Localization_guide)
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- [Developer Reference](Developers-Home)
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- [How to create profiles](How-to-create-profiles)
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- [How to contribute to the wiki](How-to-wiki)
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- [Preset, PresetBundle and PresetCollection](Preset-and-bundle)
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- [Plater, Sidebar, Tab, ComboBox](plater-sidebar-tab-combobox)
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- [Slicing Call Hierarchy](slicing-hierarchy)
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@ -1,25 +0,0 @@
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# Precise Wall
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The 'Precise Wall' is a distinctive feature introduced by OrcaSlicer, aimed at improving the dimensional accuracy of prints and minimizing layer inconsistencies by slightly increasing the spacing between the outer wall and the inner wall.
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## Technical explanation
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Below is a technical explanation of how this feature works.
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First, it's important to understand some basic concepts like flow, extrusion width, and space. Slic3r has an excellent document that covers these topics in detail. You can refer to this [article](https://manual.slic3r.org/advanced/flow-math).
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Now, let's dive into the specifics. Slic3r and its forks, such as PrusaSlicer, SuperSlicer, and OrcaSlicer, assume that the extrusion path has an oval shape, which accounts for the overlaps. For example, if we set the wall width to 0.4mm and the layer height to 0.2mm, the combined thickness of two walls laid side by side is 0.714mm instead of 0.8mm due to the overlapping.
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- **Precise Wall Off**
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- **Precise Wall On**
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This approach enhances the strength of 3D-printed parts. However, it does have some side effects. For instance, when the inner-outer wall order is used, the outer wall can be pushed outside, leading to potential size inaccuracy and more layer inconsistency.
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It's important to keep in mind that this approach to handling flow is specific to Slic3r and its forks. Other slicing software, such as Cura, assumes that the extrusion path is rectangular and, therefore, does not include overlapping. Two 0.4 mm walls will result in a 0.8 mm shell thickness in Cura.
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OrcaSlicer adheres to Slic3r's approach to handling flow. To address the downsides mentioned earlier, OrcaSlicer introduced the 'Precise Wall' feature. When this feature is enabled in OrcaSlicer, the overlap between the outer wall and its adjacent inner wall is set to zero. This ensures that the overall strength of the printed part is unaffected, while the size accuracy and layer consistency are improved.
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@ -4,7 +4,7 @@ Cornering is a critical aspect of 3D printing that affects the quality and accur
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## Jerk
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TODO: Jerk calibration not implemented yet.
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WIP... TODO: Jerk calibration not implemented yet.
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## Junction Deviation
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3. Recompile your MarlinFW
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1. In Configuration.h uncomment and set:
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```cpp
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#define JUNCTION_DEVIATION_MM 0.012 // (mm) Distance from real junction edge
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#define JUNCTION_DEVIATION_MM 0.012 // (mm) Distance from real junction edge
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```
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2. Check Classic Jerk is disabled (commented).
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```cpp
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//#define CLASSIC_JERK
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//#define CLASSIC_JERK
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```
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# For Developers
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This is a documentation from someone exploring the code and is by no means complete or even completely accurate. Please edit the parts you might find inaccurate. This is probably going to be helpful nonetheless.
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- [Preset, PresetBundle and PresetCollection](Preset-and-bundle)
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- [Plater, Sidebar, Tab, ComboBox](plater-sidebar-tab-combobox)
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- [Slicing Call Hierarchy](slicing-hierarchy)
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```shell
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build_release_vs2022.bat
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```
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> [!NOTE]
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> If you encounter issues, you can try to uninstall ZLIB from your Vcpkg library.
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3. If successful, you will find the VS 2022 solution file in:
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```shell
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build\OrcaSlicer.sln
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> [!IMPORTANT]
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> Make sure that CMake version 3.31.x is actually being used. Run `cmake --version` and verify it returns a **3.31.x** version.
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> If you see an older version (e.g. 3.29), it's likely due to another copy in your system's PATH (e.g. from Strawberry Perl).
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> You can run where cmake to check the active paths and rearrange your System Environment Variables > PATH, ensuring the correct CMake (e.g. C:\Program Files\CMake\bin) appears before others like C:\Strawberry\c\bin.
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> You can run where cmake to check the active paths and rearrange your **System Environment Variables** > PATH, ensuring the correct CMake (e.g. C:\Program Files\CMake\bin) appears before others like C:\Strawberry\c\bin.
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> [!NOTE]
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> If the build fails, try deleting the `build/` and `deps/build/` directories to clear any cached build data. Rebuilding after a clean-up is usually sufficient to resolve most issues.
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# Application Structure Overview
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### !! incomplete, possibly inaccurate, being updated with new info !!
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WIP...
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> [!WARNING]
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> !! incomplete, possibly inaccurate, being updated with new info !!
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## [`Plater`](https://github.com/SoftFever/OrcaSlicer/blob/main/src/slic3r/GUI/Plater.hpp)
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# Infill Patterns
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WIP...
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## Concentric
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## Rectilinear
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## Grid
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## 2D Lattice
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## Line
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## Cubic
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## Triangles
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## Tri-hexagon
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## Gyroid
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## Honeycomb
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## Adaptive Cubic
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## Aligned Rectilinear
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## 3D Honeycomb
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## Hilbert Curve
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## Archimedean Chords
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## Octagram Spiral
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## Support Cubic
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## Lightning
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## Cross Hatch
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## Quartered Cubic
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> [!NOTE]
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> Standard images are taken with:
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> - Primitive Cube: 66mm x 66mm x 66mm
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> - Layer Height: 0.2mm
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> - Infill Density: 15%
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> - Layer Count: 329
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> - Wall loops: 3 (Hide in isometric view)
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> - Anchor: Off
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<?xml version="1.0" encoding="UTF-8"?>
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|
|
@ -1,15 +0,0 @@
|
|||
# Precise Z Height Adjustment
|
||||
|
||||
This feature ensures the accurate Z height of the model after slicing, even if the model height is not a multiple of the layer height.
|
||||
|
||||
For example, slicing a 20mm x 20mm x 20.1mm cube with a layer height of 0.2mm would typically result in a final height of 20.2mm due to the layer height increments.
|
||||
|
||||
By enabling this parameter, the layer height of the last five layers is adjusted so that the final sliced height matches the actual object height, resulting in an accurate 20.1mm (as shown in the picture).
|
||||
|
||||
- **Precise Z Height Off**
|
||||
|
||||
|
||||
|
||||
- **Precise Z Height On**
|
||||
|
||||
|
||||
112
doc/print_settings/quality/quality_settings_precision.md
Normal file
112
doc/print_settings/quality/quality_settings_precision.md
Normal file
|
|
@ -0,0 +1,112 @@
|
|||
# Precision
|
||||
|
||||
This section covers the settings that affect the precision of your prints. These settings can help you achieve better dimensional accuracy, reduce artifacts, and improve overall print quality.
|
||||
|
||||
- [Slice gap closing radius](#slice-gap-closing-radius)
|
||||
- [Resolution](#resolution)
|
||||
- [Arc fitting](#arc-fitting)
|
||||
- [X-Y Compensation](#x-y-compensation)
|
||||
- [Elephant foot compensation](#elephant-foot-compensation)
|
||||
- [Precise wall](#precise-wall)
|
||||
- [Technical explanation](#technical-explanation)
|
||||
- [Precise Z Height](#precise-z-height)
|
||||
- [Polyholes](#polyholes)
|
||||
|
||||
|
||||
## Slice gap closing radius
|
||||
|
||||
Cracks smaller than 2x gap closing radiusCracks smaller than 2x gap closing radius are being filled during the triangle mesh slicing. The gap closing operation may reduce the final print resolution, therefore it is advisable to keep the value reasonably low.
|
||||
|
||||
## Resolution
|
||||
|
||||
The G-code path is generated after simplifying the contour of models to avoid too many points and G-code lines. Smaller value means higher resolution and more time to slice.
|
||||
|
||||
## Arc fitting
|
||||
|
||||
Enable this to get a G-code file which has [G2 and G3](https://marlinfw.org/docs/gcode/G002-G003.html) moves.
|
||||
|
||||
After a model is sliced this feature will replace straight line segments with arcs where possible. This is particularly useful for curved surfaces, as it allows the printer to move in a more fluid manner, reducing the number of G-code commands and improving the overall print quality.
|
||||
|
||||
This will result in a smaller G-code file for the same model, as arcs are used instead of many short line segments. This can improve print quality and reduce printing time, especially for curved surfaces.
|
||||
|
||||
|
||||
|
||||
> [!IMPORTANT]
|
||||
> This option is only available for machines that support G2 and G3 commands and may impact in CPU usage on the printer.
|
||||
|
||||
> [!NOTE]
|
||||
> **Klipper machines**, this option is recommended to be disabled.
|
||||
Klipper does not benefit from arc commands as these are split again into line segments by the firmware. This results in a reduction in surface quality as line segments are converted to arcs by the slicer and then back to line segments by the firmware.
|
||||
|
||||
## X-Y Compensation
|
||||
|
||||
Used to compensate external dimensions of the model.
|
||||
With this option you can compensate material expansion or shrinkage, which can occur due to various factors such as the type of filament used, temperature fluctuations, or printer calibration issues.
|
||||
|
||||
Follow the [Calibration Guide](https://github.com/SoftFever/OrcaSlicer/wiki/Calibration) and [Filament Tolerance Calibration](https://github.com/SoftFever/OrcaSlicer/wiki/tolerance-calib) to determine the correct value for your printer and filament combination.
|
||||
|
||||
## Elephant foot compensation
|
||||
|
||||
This feature compensates for the "elephant foot" effect, which occurs when the first few layers of a print are wider than the rest due:
|
||||
|
||||
- Weight of the material above them.
|
||||
- Thermal expansion of the material.
|
||||
- Bed temperature being too high.
|
||||
- Inaccurate bed height.
|
||||
|
||||
|
||||
|
||||
To mitigate this effect, OrcaSlicer allows you to specify a negative distance that will be applied to the first specified number of layers. This adjustment effectively reduces the width of the first few layers, helping to achieve a more accurate final print size.
|
||||
|
||||
|
||||
|
||||
## Precise wall
|
||||
|
||||
The 'Precise Wall' is a distinctive feature introduced by OrcaSlicer, aimed at improving the dimensional accuracy of prints and minimizing layer inconsistencies by slightly increasing the spacing between the outer wall and the inner wall.
|
||||
|
||||
### Technical explanation
|
||||
|
||||
Below is a technical explanation of how this feature works.
|
||||
|
||||
First, it's important to understand some basic concepts like flow, extrusion width, and space. Slic3r has an excellent document that covers these topics in detail. You can refer to this [article](https://manual.slic3r.org/advanced/flow-math).
|
||||
|
||||
Now, let's dive into the specifics. Slic3r and its forks, such as PrusaSlicer, SuperSlicer, and OrcaSlicer, assume that the extrusion path has an oval shape, which accounts for the overlaps. For example, if we set the wall width to 0.4mm and the layer height to 0.2mm, the combined thickness of two walls laid side by side is 0.714mm instead of 0.8mm due to the overlapping.
|
||||
|
||||
- **Precise Wall Off**
|
||||
|
||||
|
||||
|
||||
- **Precise Wall On**
|
||||
|
||||
|
||||
|
||||
This approach enhances the strength of 3D-printed parts. However, it does have some side effects. For instance, when the inner-outer wall order is used, the outer wall can be pushed outside, leading to potential size inaccuracy and more layer inconsistency.
|
||||
|
||||
It's important to keep in mind that this approach to handling flow is specific to Slic3r and its forks. Other slicing software, such as Cura, assumes that the extrusion path is rectangular and, therefore, does not include overlapping. Two 0.4 mm walls will result in a 0.8 mm shell thickness in Cura.
|
||||
|
||||
OrcaSlicer adheres to Slic3r's approach to handling flow. To address the downsides mentioned earlier, OrcaSlicer introduced the 'Precise Wall' feature. When this feature is enabled in OrcaSlicer, the overlap between the outer wall and its adjacent inner wall is set to zero. This ensures that the overall strength of the printed part is unaffected, while the size accuracy and layer consistency are improved.
|
||||
|
||||
## Precise Z Height
|
||||
|
||||
This feature ensures the accurate Z height of the model after slicing, even if the model height is not a multiple of the layer height.
|
||||
|
||||
For example, slicing a 20mm x 20mm x 20.1mm cube with a layer height of 0.2mm would typically result in a final height of 20.2mm due to the layer height increments.
|
||||
|
||||
By enabling this parameter, the layer height of the last five layers is adjusted so that the final sliced height matches the actual object height, resulting in an accurate 20.1mm (as shown in the picture).
|
||||
|
||||
- **Precise Z Height Off**
|
||||
|
||||
|
||||
|
||||
- **Precise Z Height On**
|
||||
|
||||
|
||||
|
||||
## Polyholes
|
||||
|
||||
A polyhole is a technique used in FFF 3D printing to improve the accuracy of circular holes. Instead of modeling a perfect circle, the hole is represented as a polygon with a reduced number of flat sides. This simplification forces the slicer to treat each segment as a straight line, which prints more reliably. By carefully choosing the number of sides and ensuring the polygon sits on the outer boundary of the hole, you can produce openings that more closely match the intended diameter.
|
||||
|
||||
|
||||
|
||||
- Original implementation: [SuperSlicer Polyholes](https://github.com/supermerill/SuperSlicer/wiki/Polyholes)
|
||||
- Idea and mathematics: [Hydraraptor](https://hydraraptor.blogspot.com/2011/02/polyholes.html)
|
||||
|
|
@ -73,14 +73,14 @@ To minimize the visibility of potential over-extrusion at the start of an extern
|
|||
|
||||
This is useful when printing with Outer/Inner or Inner/Outer/Inner wall print order, as in these modes, it is more likely an external perimeter is printed immediately after a de-retraction move, which would cause slight extrusion variance at the start of a seam.
|
||||
|
||||
## Tips:
|
||||
## Tips
|
||||
|
||||
With seams being inevitable when 3D printing using FFF, there are two distinct approaches on how to deal with them:
|
||||
|
||||
1. **Try and hide the seam as much as possible:** This can be done by enabling scarf seam, which works very well, especially with simple models with limited overhang regions.
|
||||
2. **Try and make the seam as "clean" and "distinct" as possible:** This can be done by tuning the seam gap and enabling role-based wipe speed, wipe on loops, and wipe before the external loop.
|
||||
|
||||
## Troubleshooting Seam Performance:
|
||||
## Troubleshooting Seam Performance
|
||||
|
||||
The section below will focus on troubleshooting traditional seams. For scarf seam troubleshooting, refer to the guide linked above.
|
||||
|
||||
|
|
@ -93,7 +93,7 @@ However, due to mechanical and material tolerances, as well as the very nature o
|
|||
|
||||
|
||||
|
||||
### Troubleshooting the Start of a Seam:
|
||||
### Troubleshooting the Start of a Seam
|
||||
|
||||
Imagine the scenario where the toolhead finishes printing a layer line on one side of the bed, retracts, travels the whole distance of the bed to de-retract, and starts printing another part. Compare this to the scenario where the toolhead finishes printing an internal perimeter and only travels a few mm to start printing an external perimeter, without even retracting or de-retracting.
|
||||
|
||||
|
|
@ -113,7 +113,7 @@ So this is a trade-off between print speed and print quality. From experimental
|
|||
|
||||
In addition, larger nozzle diameters allow for more opportunity for material to leak compared to smaller diameter nozzles. A 0.2/0.25 mm nozzle will have significantly better seam performance than a 0.4, and that will have much better performance than a 0.6mm nozzle and so forth.
|
||||
|
||||
### Troubleshooting the End of a Seam:
|
||||
### Troubleshooting the End of a Seam
|
||||
|
||||
The end of a seam is much easier to get right, as the extrusion system is already at a pressure equilibrium while printing. It just needs to stop extruding at the right time and consistently.
|
||||
|
||||
|
|
@ -125,7 +125,7 @@ Furthermore, the printer mechanics have tolerances – the print head may be req
|
|||
|
||||
Finally, the techniques of **wiping can help improve the visual continuity and consistency of a seam** (please note, these settings do not make the seam less visible, but rather make them more consistent!). Wiping on loops with a consistent speed helps tuck in the end of the seam, hiding the effects of retraction from view.
|
||||
|
||||
### The Role of Wall Ordering in Seam Appearance:
|
||||
### The Role of Wall Ordering in Seam Appearance
|
||||
|
||||
The order of wall printing plays a significant role in the appearance of a seam. **Starting to print the external perimeter first after a long travel move will always result in more visible artifacts compared to printing the internal perimeters first and traveling just a few mm to print the external perimeter.**
|
||||
|
||||
|
|
|
|||
|
|
@ -0,0 +1,23 @@
|
|||
# Wall Generator
|
||||
|
||||
WIP...
|
||||
|
||||
## Classic
|
||||
|
||||
WIP...
|
||||
|
||||
|
||||
|
||||
## Arachne
|
||||
|
||||
WIP...
|
||||
|
||||
|
||||
|
||||
- Wall transitioning threshhold angle
|
||||
- Wall transitioning filter
|
||||
- Wall transitioning length
|
||||
- Wall distribution count
|
||||
- First layer minimum wall width
|
||||
- Minimum feature size
|
||||
- Minimum wall length
|
||||
|
|
@ -33,8 +33,9 @@ This parameter interacts with the below printer kinematic settings and physical
|
|||
|
||||
**4. The pressure advance smooth time (klipper)** - higher smooth time means higher deviation from ideal extrusion, hence more opportunity for this feature to be useful.
|
||||
|
||||
<h3>Acceleration vs. Extrusion rate smoothing</h3>A printer's motion system does
|
||||
not exactly follow the speed changes seen in the gcode preview screen of Orca
|
||||
### Acceleration vs. Extrusion rate smoothing
|
||||
|
||||
A printer's motion system does not exactly follow the speed changes seen in the gcode preview screen of Orca
|
||||
slicer.
|
||||
|
||||
When a speed change is requested, the firmware look ahead planner calculates the slow down needed to achieve the target speed. The rate of slowdown is limited by the move's acceleration value.
|
||||
|
|
@ -98,15 +99,15 @@ The trade-off is extrusion accuracy. There is a deviation between the requested
|
|||
|
||||
**2. Decreasing Smooth Time:** Makes the Pressure Advance adjustments more immediate, which can improve the responsiveness of pressure compensation but may also reintroduce abrupt changes in flow rate, potentially leading to the issues mentioned above.
|
||||
|
||||
In essence, p**ressure advance smooth time creates an intentional deviation from the ideal extruder rotation** and, therefore, extrusion amount, to allow the printer's extruder to perform within its mechanical limits. Typically, this value is set to 0.04sec, which means that when Pressure Advance adjusts the extruder's flow rate to compensate for changes in pressure within the hot end, these adjustments are spread out over a period of 0.04 seconds.
|
||||
In essence, **pressure advance smooth time creates an intentional deviation from the ideal extruder rotation** and, therefore, extrusion amount, to allow the printer's extruder to perform within its mechanical limits. Typically, this value is set to 0.04sec, which means that when Pressure Advance adjusts the extruder's flow rate to compensate for changes in pressure within the hot end, these adjustments are spread out over a period of 0.04 seconds.
|
||||
|
||||
There is a great example of pressure advance smooth time induced deviations [here](https://klipper.discourse.group/t/pressure-advance-smooth-time-skews-pressure-advance/13451) that is worth a read to get more insight in this trade-off.
|
||||
There is a great example of pressure advance smooth time induced deviations in [this Klipper forum post](https://klipper.discourse.group/t/pressure-advance-smooth-time-skews-pressure-advance/13451) that is worth a read to get more insight in this trade-off.
|
||||
|
||||
In the worked example above, **we need to set an Extrusion Rate smoothing value enough to decrease the error introduced by pressure advance smooth time against the produced output flow.** The lower the extrusion rate smoothing value, the lower the changes in flow over time hence the lower the absolute deviation from the ideal extrusion caused by the smooth time algorithm. However, going too low will result in a material decrease in overall print speed, as the print speed will be materially reduced to achieve low extrusion deviations between features, for no real benefit after a point.
|
||||
|
||||
**The best way to find what the lower beneficial limit is through experimentation.** Print an object with sharp overhangs that are slowed down because off the overhang print speed settings and observe for extrusion inconsistencies.
|
||||
|
||||
<h2>Finding the ideal Extrusion Rate smoothing value</h2>
|
||||
## Finding the ideal Extrusion Rate smoothing value
|
||||
|
||||
**Firstly, this value needs to be lower than the extrusion rate changes resulting from the acceleration profile of the printer.** As, generally, the greatest impact is in external wall finish, use your external perimeter acceleration as a point of reference.
|
||||
|
||||
|
|
@ -152,7 +153,7 @@ Perform a test print with the above ERS settings as a starting point and adjust
|
|||
|
||||
If you're not noticing any artefacts, increase by 10%, but don’t go over the maximum values recommended above because then this feature would have no effect in your print.
|
||||
|
||||
## A note for Bowden printers using marlin without pressure advance.
|
||||
## A note for Bowden printers using marlin without pressure advance
|
||||
|
||||
If your printer is not equipped with pressure advance and, especially, if you are using a Bowden setup, you don’t have the benefit of pressure advance dynamically adjusting your flow.
|
||||
|
||||
BIN
doc/print_settings/strength/infill_desc_calculator.xlsx
Normal file
BIN
doc/print_settings/strength/infill_desc_calculator.xlsx
Normal file
Binary file not shown.
335
doc/print_settings/strength/strength_settings_infill.md
Normal file
335
doc/print_settings/strength/strength_settings_infill.md
Normal file
|
|
@ -0,0 +1,335 @@
|
|||
# Infill
|
||||
|
||||
Infill is the internal structure of a 3D print, providing strength and support. It can be adjusted to balance material usage, print time, and part strength.
|
||||
|
||||
## Sparse infill density
|
||||
|
||||
Density usually should be calculated as a % of the total infill volume, not the total print volume.
|
||||
Higher density increases strength but also material usage and print time. Lower density saves material and time but reduces strength.
|
||||
|
||||
Nevertheless, **not all patterns interpret density the same way**, so the actual material usage may vary. You can see each pattern's material usage in the [Sparse Infill Pattern](#sparse-infill-pattern) section.
|
||||
|
||||
## Sparse Infill Pattern
|
||||
|
||||
Infill patterns determine how material is distributed within a print. Different patterns can affect strength, flexibility, and print speed using the same density setting.
|
||||
|
||||
There is no one-size-fits-all solution, as the best pattern depends on the specific print and its requirements.
|
||||
|
||||
Many patterns may look similar and have similar overall specifications, but they can behave very differently in practice.
|
||||
As most settings in 3D printing, experience is the best way to determine which pattern works best for your specific needs.
|
||||
|
||||
| Infill | X-Y Strength | Z Strength | Material Usage | Print Time |
|
||||
|---------------------------------------------|--------------|-------------|----------------|-------------|
|
||||
| [Concentric](#concentric) | Low | Normal | Normal | Normal |
|
||||
| [Rectilinear](#rectilinear) | Normal-Low | Low | Normal | Normal |
|
||||
| [Grid](#grid) | High | High | Normal | Normal |
|
||||
| [2D Lattice](#2d-lattice) | Normal-Low | Low | Normal | Normal |
|
||||
| [Line](#line) | Low | Low | Normal | Normal-Low |
|
||||
| [Cubic](#cubic) | High | High | Normal | Normal-Low |
|
||||
| [Triangles](#triangles) | High | Normal | Normal | Normal-Low |
|
||||
| [Tri-hexagon](#tri-hexagon) | High | Normal-High | Normal | Normal-Low |
|
||||
| [Gyroid](#gyroid) | High | High | Normal | Normal-High |
|
||||
| [TPMS-D](#tpms-d) | High | High | Normal | High |
|
||||
| [Honeycomb](#honeycomb) | High | High | High | Ultra-High |
|
||||
| [Adaptive Cubic](#adaptive-cubic) | Normal-High | Normal-High | Low | Low |
|
||||
| [Aligned Rectilinear](#aligned-rectilinear) | Normal-Low | Normal | Normal | Normal |
|
||||
| [2D Honeycomb](#2d-honeycomb) | Normal-Low | Normal-Low | Normal | Normal-Low |
|
||||
| [3D Honeycomb](#3d-honeycomb) | Normal-High | Normal-High | Normal-Low | High |
|
||||
| [Hilbert Curve](#hilbert-curve) | Low | Normal | Normal | High |
|
||||
| [Archimedean Chords](#archimedean-chords) | Low | Normal | Normal | Normal-Low |
|
||||
| [Octagram Spiral](#octagram-spiral) | Low | Normal | Normal | Normal-High |
|
||||
| [Support Cubic](#support-cubic) | Low | Low | Extra-Low | Extra-Low |
|
||||
| [Lightning](#lightning) | Low | Low | Ultra-Low | Ultra-Low |
|
||||
| [Cross Hatch](#cross-hatch) | Normal-High | Normal-High | Normal | Normal-High |
|
||||
| [Quarter Cubic](#quarter-cubic) | High | High | Normal | Normal-Low |
|
||||
|
||||
> [!NOTE]
|
||||
> You can download [infill_desc_calculator.xlsx](https://github.com/SoftFever/OrcaSlicer/blob/main/doc/print_settings/strength/infill_desc_calculator.xlsx?raw=true) used to calculate the values above.
|
||||
|
||||
### Concentric
|
||||
|
||||
Fills the area with progressively smaller versions of the outer contour, creating a concentric pattern. Ideal for 100% infill or flexible prints.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Low
|
||||
- **Vertical Strength (Z):** Normal
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal
|
||||
- **Material/Time (Higher better):** Normal-High
|
||||
|
||||
|
||||
|
||||
### Rectilinear
|
||||
|
||||
Parallel lines spaced according to infill density. Each layer is printed perpendicular to the previous, resulting in low vertical bonding.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Normal-Low
|
||||
- **Vertical Strength (Z):** Low
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal
|
||||
- **Material/Time (Higher better):** Normal-High
|
||||
|
||||
|
||||
|
||||
### Grid
|
||||
|
||||
Two-layer pattern of perpendicular lines, forming a grid. Overlapping points may cause noise or artifacts.
|
||||
|
||||
- **Horizontal Strength (X-Y):** High
|
||||
- **Vertical Strength (Z):** High
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal
|
||||
- **Material/Time (Higher better):** Normal
|
||||
|
||||
|
||||
|
||||
### 2D Lattice
|
||||
|
||||
Low-strength pattern with good flexibility. Angle 1 and angle 2 TBD.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Normal-Low
|
||||
- **Vertical Strength (Z):** Low
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal
|
||||
- **Material/Time (Higher better):** Normal
|
||||
|
||||
|
||||
|
||||
### Line
|
||||
|
||||
Similar to [rectilinear](#rectilinear), but each line is slightly rotated to improve print speed.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Low
|
||||
- **Vertical Strength (Z):** Low
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-Low
|
||||
- **Material/Time (Higher better):** Normal-High
|
||||
|
||||
|
||||
|
||||
### Cubic
|
||||
|
||||
3D cube pattern with corners facing down, distributing force in all directions. Triangles in the horizontal plane provide good X-Y strength.
|
||||
|
||||
- **Horizontal Strength (X-Y):** High
|
||||
- **Vertical Strength (Z):** High
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-Low
|
||||
- **Material/Time (Higher better):** Normal-High
|
||||
|
||||
|
||||
|
||||
### Triangles
|
||||
|
||||
Triangle-based grid, offering strong X-Y strength but with triple overlaps at intersections.
|
||||
|
||||
- **Horizontal Strength (X-Y):** High
|
||||
- **Vertical Strength (Z):** Normal
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-Low
|
||||
- **Material/Time (Higher better):** Normal-High
|
||||
|
||||
|
||||
|
||||
### Tri-hexagon
|
||||
|
||||
Similar to the [triangles](#triangles) pattern but offset to prevent triple overlaps at intersections. This design combines triangles and hexagons, providing excellent X-Y strength.
|
||||
|
||||
- **Horizontal Strength (X-Y):** High
|
||||
- **Vertical Strength (Z):** Normal-High
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-Low
|
||||
- **Material/Time (Higher better):** Normal-High
|
||||
|
||||
|
||||
|
||||
### Gyroid
|
||||
|
||||
Mathematical, isotropic surface providing equal strength in all directions. Excellent for strong, flexible prints and resin filling due to its interconnected structure.
|
||||
|
||||
- **Horizontal Strength (X-Y):** High
|
||||
- **Vertical Strength (Z):** High
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-High
|
||||
- **Material/Time (Higher better):** Low
|
||||
|
||||
|
||||
|
||||
### TPMS-D
|
||||
|
||||
Triply Periodic Minimal Surface - D. Hybrid between [Cross Hatch](#cross-hatch) and [Gyroid](#gyroid), combining rigidity and smooth transitions. Isotropic and strong in all directions.
|
||||
|
||||
- **Horizontal Strength (X-Y):** High
|
||||
- **Vertical Strength (Z):** High
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** High
|
||||
- **Material/Time (Higher better):** Low
|
||||
|
||||
|
||||
|
||||
### Honeycomb
|
||||
|
||||
Hexagonal pattern balancing strength and material use. Double walls in each hexagon increase material consumption.
|
||||
|
||||
- **Horizontal Strength (X-Y):** High
|
||||
- **Vertical Strength (Z):** High
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** High
|
||||
- **Print Time:** Ultra-High
|
||||
- **Material/Time (Higher better):** Extra Low
|
||||
|
||||
|
||||
|
||||
### Adaptive Cubic
|
||||
|
||||
[Cubic](#cubic) pattern with adaptive density: denser near walls, sparser in the center. Saves material and time while maintaining strength, ideal for large prints.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Normal-High
|
||||
- **Vertical Strength (Z):** Normal-High
|
||||
- **Density Calculation:** Same as [Cubic](#cubic) but reduced in the center
|
||||
- **Material Usage:** Low
|
||||
- **Print Time:** Low
|
||||
- **Material/Time (Higher better):** Normal
|
||||
|
||||
|
||||
|
||||
### Aligned Rectilinear
|
||||
|
||||
Parallel lines spaced by the infill spacing, each layer printed in the same direction as the previous layer. Good horizontal strength perpendicular to the lines, but terrible in parallel direction.
|
||||
Recommended with layer anchoring to improve not perpendicular strength.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Normal-Low
|
||||
- **Vertical Strength (Z):** Normal
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal
|
||||
- **Material/Time (Higher better):** Normal
|
||||
|
||||
|
||||
|
||||
### 2D Honeycomb
|
||||
|
||||
Vertical Honeycomb pattern. Acceptable torsional stiffness. Developed for low densities structures like wings. Improve over [2D Lattice](#2d-lattice) offers same performance with lower densities.This infill includes a Overhang angle parameter to improve interlayer point of contact and reduce the risk of delamination.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Normal-Low
|
||||
- **Vertical Strength (Z):** Normal-Low
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-Low
|
||||
- **Material/Time (Higher better):** Normal
|
||||
|
||||
|
||||
|
||||
### 3D Honeycomb
|
||||
|
||||
This infill tries to generate a printable honeycomb structure by printing squares and octagons mantaining a vertical angle high enough to mantian contact with the previous layer.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Normal-High
|
||||
- **Vertical Strength (Z):** Normal-High
|
||||
- **Density Calculation:** Unknown
|
||||
- **Material Usage:** Normal-Low
|
||||
- **Print Time:** High
|
||||
- **Material/Time (Higher better):** Extra Low
|
||||
|
||||
|
||||
|
||||
### Hilbert Curve
|
||||
|
||||
Hilbert Curve is a space-filling curve that can be used to create a continuous infill pattern. It is known for its Esthetic appeal and ability to fill space efficiently.
|
||||
Print speed is very low due to the complexity of the path, which can lead to longer print times. It is not recommended for structural parts but can be used for Esthetic purposes.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Low
|
||||
- **Vertical Strength (Z):** Normal
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** High
|
||||
- **Material/Time (Higher better):** Extra Low
|
||||
|
||||
|
||||
|
||||
### Archimedean Chords
|
||||
|
||||
Spiral pattern that fills the area with concentric arcs, creating a smooth and continuous infill. Can be filled with resin thanks to its interconnected hollow structure, which allows the resin to flow through it and cure properly.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Low
|
||||
- **Vertical Strength (Z):** Normal
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-Low
|
||||
- **Material/Time (Higher better):** Normal-High
|
||||
|
||||
|
||||
|
||||
### Octagram Spiral
|
||||
|
||||
Esthetic pattern with low strength and high print time.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Low
|
||||
- **Vertical Strength (Z):** Normal
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-High
|
||||
- **Material/Time (Higher better):** Normal
|
||||
|
||||
|
||||
|
||||
### Support Cubic
|
||||
|
||||
Support |Cubic is a variation of the [Cubic](#cubic) infill pattern that is specifically designed for support top layers. Will use more material than Lightning infill but will provide better strength. Nevertheless, it is still a low-density infill pattern.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Low
|
||||
- **Vertical Strength (Z):** Low
|
||||
- **Density Calculation:** % of layer before top shell layers
|
||||
- **Material Usage:** Extra-Low
|
||||
- **Print Time:** Extra-Low
|
||||
- **Material/Time (Higher better):** Normal
|
||||
|
||||
|
||||
|
||||
### Lightning
|
||||
|
||||
Ultra-fast, ultra-low material infill. Designed for speed and efficiency, ideal for quick prints or non-structural prototypes.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Low
|
||||
- **Vertical Strength (Z):** Low
|
||||
- **Density Calculation:** % of layer before top shell layers
|
||||
- **Material Usage:** Ultra-Low
|
||||
- **Print Time:** Ultra-Low
|
||||
- **Material/Time (Higher better):** Extra Low
|
||||
|
||||
|
||||
|
||||
### Cross Hatch
|
||||
|
||||
Similar to [Gyroid](#gyroid) but with linear patterns, creating weak points at internal corners.
|
||||
|
||||
- **Horizontal Strength (X-Y):** Normal-High
|
||||
- **Vertical Strength (Z):** Normal-High
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-High
|
||||
- **Material/Time (Higher better):** Low
|
||||
|
||||
|
||||
|
||||
### Quarter Cubic
|
||||
|
||||
[Cubic](#cubic) pattern with extra internal divisions, improving X-Y strength.
|
||||
|
||||
- **Horizontal Strength (X-Y):** High
|
||||
- **Vertical Strength (Z):** High
|
||||
- **Density Calculation:** % of total infill volume
|
||||
- **Material Usage:** Normal
|
||||
- **Print Time:** Normal-Low
|
||||
- **Material/Time (Higher better):** Normal
|
||||
|
||||
|
||||
|
|
@ -64,7 +64,7 @@
|
|||
|
||||
[hint:Precise wall]
|
||||
text = Precise wall\nDid you know that turning on precise wall can improve precision and layer consistency?
|
||||
documentation_link = https://github.com/SoftFever/OrcaSlicer/wiki/Precise-wall
|
||||
documentation_link = https://github.com/SoftFever/OrcaSlicer/wiki/quality_settings_precision
|
||||
|
||||
[hint:Sandwich mode]
|
||||
text = Sandwich mode\nDid you know that you can use sandwich mode (inner-outer-inner) to improve precision and layer consistency if your model doesn't have very steep overhangs?
|
||||
|
|
|
|||
|
|
@ -2076,13 +2076,13 @@ void TabPrint::build()
|
|||
optgroup = page->new_optgroup(L("Precision"), L"param_precision");
|
||||
optgroup->append_single_option_line("slice_closing_radius");
|
||||
optgroup->append_single_option_line("resolution");
|
||||
optgroup->append_single_option_line("enable_arc_fitting", "acr-move");
|
||||
optgroup->append_single_option_line("xy_hole_compensation", "xy-hole-contour-compensation");
|
||||
optgroup->append_single_option_line("xy_contour_compensation", "xy-hole-contour-compensation");
|
||||
optgroup->append_single_option_line("elefant_foot_compensation");
|
||||
optgroup->append_single_option_line("elefant_foot_compensation_layers");
|
||||
optgroup->append_single_option_line("precise_outer_wall", "Precise-wall");
|
||||
optgroup->append_single_option_line("precise_z_height", "precise-z-height");
|
||||
optgroup->append_single_option_line("enable_arc_fitting", "quality_settings_precision#arc-fitting");
|
||||
optgroup->append_single_option_line("xy_hole_compensation", "quality_settings_precision#xy-compensation");
|
||||
optgroup->append_single_option_line("xy_contour_compensation", "quality_settings_precision#xy-compensation");
|
||||
optgroup->append_single_option_line("elefant_foot_compensation", "quality_settings_precision#elefant-foot-compensation");
|
||||
optgroup->append_single_option_line("elefant_foot_compensation_layers", "quality_settings_precision#elefant-foot-compensation");
|
||||
optgroup->append_single_option_line("precise_outer_wall", "quality_settings_precision#precise-wall");
|
||||
optgroup->append_single_option_line("precise_z_height", "quality_settings_precision#precise-z-height");
|
||||
optgroup->append_single_option_line("hole_to_polyhole");
|
||||
optgroup->append_single_option_line("hole_to_polyhole_threshold");
|
||||
optgroup->append_single_option_line("hole_to_polyhole_twisted");
|
||||
|
|
@ -2096,7 +2096,7 @@ void TabPrint::build()
|
|||
optgroup->append_single_option_line("ironing_angle");
|
||||
|
||||
optgroup = page->new_optgroup(L("Wall generator"), L"param_wall_generator");
|
||||
optgroup->append_single_option_line("wall_generator", "wall-generator");
|
||||
optgroup->append_single_option_line("wall_generator", "quality_settings_wall-generator");
|
||||
optgroup->append_single_option_line("wall_transition_angle");
|
||||
optgroup->append_single_option_line("wall_transition_filter_deviation");
|
||||
optgroup->append_single_option_line("wall_transition_length");
|
||||
|
|
@ -2135,7 +2135,7 @@ void TabPrint::build()
|
|||
optgroup->append_single_option_line("thick_internal_bridges");
|
||||
optgroup->append_single_option_line("enable_extra_bridge_layer");
|
||||
optgroup->append_single_option_line("dont_filter_internal_bridges");
|
||||
optgroup->append_single_option_line("counterbore_hole_bridging","counterbore-hole-bridging");
|
||||
optgroup->append_single_option_line("counterbore_hole_bridging");
|
||||
|
||||
optgroup = page->new_optgroup(L("Overhangs"), L"param_overhang");
|
||||
optgroup->append_single_option_line("detect_overhang_wall");
|
||||
|
|
@ -2156,15 +2156,15 @@ void TabPrint::build()
|
|||
optgroup = page->new_optgroup(L("Top/bottom shells"), L"param_shell");
|
||||
optgroup->append_single_option_line("top_shell_layers");
|
||||
optgroup->append_single_option_line("top_shell_thickness");
|
||||
optgroup->append_single_option_line("top_surface_pattern", "fill-patterns#Infill of the top surface and bottom surface");
|
||||
optgroup->append_single_option_line("top_surface_pattern");
|
||||
optgroup->append_single_option_line("bottom_shell_layers");
|
||||
optgroup->append_single_option_line("bottom_shell_thickness");
|
||||
optgroup->append_single_option_line("bottom_surface_pattern", "fill-patterns#Infill of the top surface and bottom surface");
|
||||
optgroup->append_single_option_line("bottom_surface_pattern");
|
||||
optgroup->append_single_option_line("top_bottom_infill_wall_overlap");
|
||||
|
||||
optgroup = page->new_optgroup(L("Infill"), L"param_infill");
|
||||
optgroup->append_single_option_line("sparse_infill_density");
|
||||
optgroup->append_single_option_line("sparse_infill_pattern", "fill-patterns#infill types and their properties of sparse");
|
||||
optgroup->append_single_option_line("sparse_infill_density", "strength_settings_infill#sparse-infill-density");
|
||||
optgroup->append_single_option_line("sparse_infill_pattern", "strength_settings_infill#sparse-infill-pattern");
|
||||
optgroup->append_single_option_line("lattice_angle_1");
|
||||
optgroup->append_single_option_line("lattice_angle_2");
|
||||
optgroup->append_single_option_line("infill_overhang_angle");
|
||||
|
|
@ -2251,9 +2251,9 @@ void TabPrint::build()
|
|||
optgroup->append_single_option_line("default_junction_deviation");
|
||||
|
||||
optgroup = page->new_optgroup(L("Advanced"), L"param_advanced", 15);
|
||||
optgroup->append_single_option_line("max_volumetric_extrusion_rate_slope", "extrusion-rate-smoothing");
|
||||
optgroup->append_single_option_line("max_volumetric_extrusion_rate_slope_segment_length", "extrusion-rate-smoothing");
|
||||
optgroup->append_single_option_line("extrusion_rate_smoothing_external_perimeter_only", "extrusion-rate-smoothing");
|
||||
optgroup->append_single_option_line("max_volumetric_extrusion_rate_slope", "speed_extrusion_rate_smoothing");
|
||||
optgroup->append_single_option_line("max_volumetric_extrusion_rate_slope_segment_length", "speed_extrusion_rate_smoothing");
|
||||
optgroup->append_single_option_line("extrusion_rate_smoothing_external_perimeter_only", "speed_extrusion_rate_smoothing");
|
||||
|
||||
page = add_options_page(L("Support"), "custom-gcode_support"); // ORCA: icon only visible on placeholders
|
||||
optgroup = page->new_optgroup(L("Support"), L"param_support");
|
||||
|
|
|
|||
Loading…
Add table
Add a link
Reference in a new issue