Creality Print: Complete Guide to the Creality 3D Slicer

Creality Print is Creality's free, official slicing software for preparing models, generating G-code, and sending or monitoring prints on Creality FDM machines over USB, LAN, or Wi-Fi. If you own an Ender, CR, or K series printer, it is the slicer Creality ships factory profiles for, and it is the path of least resistance for getting a tuned print off a new machine. This guide covers what it actually is, where its engine comes from, how to install it, which printers it supports, and how it fits into a print farm.

What Creality Print Is

Creality Print is an open-source FDM/FFF slicer maintained by Creality and hosted publicly on GitHub at CrealityOfficial/CrealityPrint. It ships with factory-tuned machine and filament profiles for Creality's lineup, integrates with the Creality Cloud account for model browsing and remote device management, and supports printing over USB, LAN, and Wi-Fi or cloud.

The current generation is version 5.0 and later. That matters more than the exact point release, because the 5.x rewrite is where Creality Print moved into the OrcaSlicer family. Use the current official download page or GitHub release page for the newest installer instead of relying on a version number copied from an article.

A note on the name and the lineage

There is real confusion here, and it matters if you are reading older tutorials. Two distinct Creality products get conflated everywhere, including on third-party download sites:

1. Creality Slicer (the legacy product still found on some download mirrors) was a fork of UltiMaker Cura. This is the product most "Creality is Cura under the hood" claims refer to.
2. Creality Print (the current, actively developed product) was rebuilt from version 5.0.0 onward as a fork of OrcaSlicer, which itself descends from Bambu Studio, which descends from PrusaSlicer and Slic3r.

The current Creality Print is therefore not a Cura slicer. The official GitHub README describes it as "an open source slicer for FDM printers" and lists OrcaSlicer-lineage features directly: Sandwich (inner-outer-inner) wall mode, SuperSlicer Polyholes conversion, and Klipper support. If you have used OrcaSlicer or Bambu Studio, the interface and feature set will feel immediately familiar, because that is the codebase it sits on. The Cura comparison only applies to the older Creality Slicer.

How to Download and Install Creality Print

There are three official sources:

• The Creality website download page
• The Creality Cloud Download Center
• The GitHub releases page

Operating system support

OS	Notes
Windows (64-bit)	Standard installer; a portable build also exists
macOS (Apple Silicon)	Separate arm64 build
macOS (Intel)	x86_64 build
Linux (Ubuntu)	Available as an AppImage, primarily through GitHub

Per the GitHub README, Linux is supported via an Ubuntu AppImage. The Creality Cloud Windows download page listed only Windows plus the two Mac variants and did not surface a Linux build, so for Linux the GitHub releases page is the reliable source.

Install steps by platform

Windows. Run the standard installer. The build may require the Microsoft Edge WebView2 Runtime and the Visual C++ 2019 redistributable. A portable build is available if you prefer not to install.

macOS. Drag CrealityPrint.app into your Applications folder. Unsigned or pre-release builds can be blocked by Gatekeeper; if that happens, use cmd and right-click then Open, or clear the quarantine attribute from a terminal:

xattr -dr com.apple.quarantine /Applications/CrealityPrint.app

Linux. Make the AppImage executable and run it:

chmod +x CrealityPrint.AppImage
./CrealityPrint.AppImage

System requirements

Minimum cited specs are a 64-bit OS, 4 GB RAM, and an OpenGL 2 capable GPU. Creality recommends 8 GB RAM and an OpenGL 4.1 GPU for a smooth experience, particularly with large models and heavy support generation.

Supported Creality Printers

Creality expresses device support through per-version release notes rather than one master list, so treat the model coverage below as broadly current rather than exhaustive. In practice, Creality Print supports nearly every current Creality machine.

Series	Models
Ender	Ender-3, Ender-3 V2, Ender-3 S1, Ender-3 V3, Ender-3 V3 SE, Ender-3 V3 KE, Ender-3 V3 Plus, and broadly the rest of the Ender line
K / Flagship	K1, K1C, K1 Max, K2 Plus
CR	CR-6 SE, CR-10, CR-10 Smart, CR-1000S, and other CR models
Hi / desktop	Creality Hi
Sermoon	Sermoon V1 Pro (CR-200B also referenced)
Companion devices	Sonic Pad, Nebula Pad

The K series gets the deepest treatment: these flagship machines ship with 40-plus tuned official filament profiles covering temperature, speed, and retraction per material. Newer SKUs continue to appear in release notes as Creality adds machines.

Key Features and the Slicing Workflow

Because Creality Print rides on OrcaSlicer, the feature depth is well beyond the old Cura-based slicer.

• Engine depth. Per-object settings, granular wall, infill, speed, support, and retraction control, and the Sandwich (inner-outer-inner) wall mode.
• Auto-calibration suite. The full OrcaSlicer calibration workflow is built in: flow rate, pressure or linear advance, temperature towers, max volumetric speed, and retraction tests.
• Klipper support. For Klipper-based machines (K1, K2, and similar), the README recommends adding [exclude_object] and [gcode_arcs] (resolution 0.1) to printer.cfg.
• Connectivity. LAN, Wi-Fi, and USB printing, plus Creality Cloud account integration for model search, upload, and remote device monitoring.
• CFS integration. The Creality Filament System gets RFID filament display with remaining percentage and length, plus automatic low-filament switching to compatible spools.
• Newer additions. Recent builds have added features such as AI-assisted support analysis, gradient or variable-density infill, and smaller incremental updates on Windows.

A basic slicing pass

1. Select your printer profile (the factory machine preset for your exact model).
2. Pick a filament preset; on K series machines you have dozens of tuned options to choose from.
3. Import your model, orient it, and apply any per-object settings.
4. Choose a process or quality preset and adjust walls, infill, and supports as needed.
5. Slice, preview the toolpath layer by layer, and check the time and material estimate.
6. Export G-code, or send directly to the printer over LAN, Wi-Fi, or USB.

Settings worth tuning first

Start from the factory profile and run the built-in flow rate and pressure or linear advance calibrations before chasing surface quality. These two have the largest effect on dimensional accuracy and corner sharpness, and the OrcaSlicer-derived calibration tests make them quick to dial in. Temperature towers are worth running once per new filament brand.

Exporting G-code and 3MF

Creality Print exports both plain G-code and project files. G-code is what you send to the machine for a print. The project format preserves your plate layout, per-object modifiers, and process settings so you can reopen and re-slice later, which is the format you want for anything you will revisit.

Because the engine descends from Bambu Studio and PrusaSlicer, its project files use the 3MF format family that OrcaSlicer and Bambu Studio use, rather than a Creality-specific container. That shared lineage is convenient if you move projects between OrcaSlicer-family slicers, though profiles do not transfer cleanly because the machine and process presets differ.

Creality Print vs OrcaSlicer vs Cura

Aspect	Creality Print	OrcaSlicer (upstream)	Cura
Engine lineage	OrcaSlicer fork (Bambu Studio, PrusaSlicer, Slic3r)	Bambu Studio, PrusaSlicer, Slic3r	UltiMaker, independent engine
Vendor integration	Deep Creality Cloud and CFS hardware integration	Generic, multi-vendor	Generic, UltiMaker-focused
Factory profiles	Tuned per Creality machine out of the box	Community and bundled profiles	Community and UltiMaker profiles
Calibration tooling	Inherited Orca calibration suite	Full calibration suite	Add-on plugins
Update cadence	Lags upstream Orca	Upstream, fastest	Independent release cycle

Versus stock OrcaSlicer

Creality Print is a vendor fork of OrcaSlicer with a simplified UI, deep Creality Cloud and CFS integration, and factory profiles tuned for Creality machines. The trade-off is that it tends to lag upstream OrcaSlicer on features and bug fixes, since Creality maintains its own fork. It also adds Creality-specific pieces such as auto-temperature and AI support analysis. If you want the tightest hardware integration, especially CFS, stay on Creality Print. If you want upstream engine updates sooner and you are comfortable importing your own machine profile, stock OrcaSlicer is a legitimate alternative. For a broader vendor-fork comparison, see our guide to OrcaSlicer forks.

Versus Cura

This comparison mostly applies to the legacy Creality Slicer, which was a Cura fork. The current Creality Print differs from Cura the same way OrcaSlicer does: a different engine with Bambu and Prusa heritage, built-in calibration tooling, and object-level settings that Cura handles through plugins.

Versus the older Creality Slicer

Version 5.0 was a ground-up move off the Cura codebase and onto OrcaSlicer. That brought a new UI, a faster engine, and the full Orca calibration and feature set. If you are still on a 4.x build or the old Creality Slicer, the current product is a different piece of software.

Common Issues to Know About

• Stability. Crash and freeze reports during slicing recur on user forums, sometimes stalling at specific percentages. If a build is unstable for you, the previous release or stock OrcaSlicer are the usual fallbacks.
• Feature lag. Because Creality maintains its own fork, fixes and features land later than they do upstream in OrcaSlicer.
• Naming confusion. "Creality Slicer" (the legacy Cura fork) and "Creality Print" (the current Orca fork) are conflated everywhere. Third-party download sites may serve old or repackaged builds, so stick to the official sources above.
• Cloud dependency. Some convenience features lean on the Creality Cloud account, which is not ideal if you want a purely local workflow.

Creality Print Across a Print Farm

Creality Print is built around one operator driving one or a few machines from a desktop. That model breaks down once you are running a rack of Enders or a row of K1 Max units. Slicing each job by hand, tracking which G-code went to which printer, and babysitting cloud connections does not scale, and the stability complaints above hurt more when the slicer is in your production path.

A print farm needs slicing and job routing to be automatic and consistent. The OrcaSlicer engine underneath Creality Print is well suited to a cloud slicing workflow, where profiles live in one place and every job is sliced the same way regardless of which workstation queued it. If you are designing this from scratch, our guides on print farm slicing and how to set up a 3D print farm cover the moving parts.

If you run a farm of Creality machines, Printago handles the parts Creality Print was never built for: centralized profile management, cloud slicing, automatic job routing across your fleet, and real-time progress on every printer. See how Printago manages a print farm.