Creality Print 7.0 delivers a comprehensive upgrade across print quality, algorithm stability, and ecosystem experience. This release significantly enhances intelligent processing, slicing algorithm performance, system efficiency, community integration, and wide-area network control. We have also re-engineered key interface and compatibility modules to provide a more streamlined, intelligent, and highly efficient printing workflow.
A new AI Analysis feature has been added to the toolbar. When AI Cloud Service is enabled, the system automatically analyzes all models in the workspace to determine whether support is required and recommends the appropriate support type (Normal/Tree).

AI Support (AI Support (clicking “Apply” will modify the support parameters at the object level.)

New Process Parameter: Quality → Walls & Surface → Smoothing wall speed along Z(Experimental)

Parameter Description: Reduce visible Z-banding artifacts by smoothing speed transitions along the Z direction.
It mitigates surface irregularities caused by abrupt regional speed changes, improving the uniformity of vertical wall finishes.
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New Filament Parameter: Cooling → Cooling Slowdown Logic → Consistent Surface / Uniform Cooling

Parameter Description
Consistent Surface:
Ensures the outermost two walls are always printed at the configured maximum speed while reducing the speed of inner paths. This maintains the original layer time without sacrificing outer-wall quality. An adjustable Outer Wall Transition Distance allows the nozzle to gradually return to normal print speed, minimizing quality loss caused by sudden speed changes.
Uniform Cooling:
Maintains the traditional minimum-layer-time logic: if the actual layer time is below the minimum threshold, all paths are slowed proportionally to ensure adequate cooling.
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New Process Parameter: Speed → Travel short distance acceleration; Travel short distance threshold
Parameter Description: Further refines motion behavior to reduce ringing artifacts.
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We’ve added a series of high-performance sparse infill patterns optimized for strength, weight, print speed, and functional behavior.
Newly supported patterns include: TPMS-FK Lattice, Zig Zag, Cross Zag, Locked Zag, Lateral Honeycomb, and Lateral Lattice.

A. TPMS-FK Lattice:A lightweight, high-stiffness, high-stability infill designed for load-bearing and energy-absorbing structures.
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B. Zig Zag:Similar to standard Line infill, its infill rotation step can be adjusted to offset the next layer’s infill by a certain line width through rotation.
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C. Cross Zag:Similar to standard Line infill, its infill translation step can be adjusted to offset the next layer’s infill by a certain line width through translation.
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D. Locked Zag:Supports adjusting skin and core infill types, densities, and more.
Improve surface quality:Continuous, surface-friendly infill (such as Zig Zag or Concentric) can be applied to shell contact areas to reduce the impact of internal infill on the surface, resulting in smoother and more stable top surfaces.
Enhance shell bonding and shear resistance:Grid/paths near the outer walls can use denser or stronger patterns to improve shell load-bearing capacity and interlayer strength.
Save filament / increase speed:The core region can use lightweight and efficient infill (Zig Zag, Gyroid) to reduce time and filament consumption.
Functional zoning: High-density, energy-absorbing / rigid structures can be used in contact areas while keeping the core lightweight (e.g., rigid edges and elastic cores in shoe soles).
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E. Lateral Honeycomb: Standard honeycomb is a top-down vertical honeycomb pattern with multiple speed changes within the same layer, resulting in slower print speeds. Lateral Honeycomb has mostly continuous paths with speeds close to Zig Zag.
Lateral Honeycomb = “engineering-grade infill” balancing strength + print speed + stability.
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F. Lateral Lattice: Standard lattice infill is a top-down lattice pattern with multiple speed changes within the same layer, resulting in slower print speeds. Lateral Lattice has mostly continuous paths with speeds close to Zig Zag. Lateral Lattice = Zig Zag-like speed with lattice-like strength, an “engineering-grade infill” highly suitable for FDM.
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Fill Multiline improves part strength, stability, top surface quality, and reduces vibration by coordinating more paths working together. It is a more stable and reliable internal structure than traditional single-line infill.
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After slicing is completed and returning to the Prepare page, the exact position and geometry of the Prime Tower are shown, allowing users to accurately control its placement.
In the new version, with the exact shape visualization enabled, the Prime Tower can be positioned as close as 2 mm from the build plate boundary, significantly increasing the usable build area.
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New parameter: Adhesiveness category
This feature is designed to handle filaments with different interlayer adhesion levels.
When printing a Prime Tower with filaments of varying adhesion characteristics, the tower is printed with separated sides to avoid breakage issues that occurred in previous versions where layers were printed in an interleaved manner (for example, when printing non-bonding filaments such as PLA and PETG).

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When printing with multiple filaments, an outer wall printed with a unified filament is added to enclose the infill printed with different filaments, preventing Prime Tower collapse caused by potential collisions during printing.
Added outer wall openings and opening ironing: Openings are introduced in the Prime Tower outer wall, allowing the nozzle to enter through the opening to print the Prime Tower infill.
At the opening area, ironing is applied to smooth the extrusion start point and reduce warping caused by filament buildup.

Aligned with the K2 series firmware update, the Device Details page in Creality Print has been optimized accordingly.
The functional areas are now further clarified: the left side focuses on the camera and the real-time printing display area, while the right side sequentially integrates printing settings, filament settings, XYZ control, local files management, print history, and timelapse video according to operational logic, effectively improving operational convenience and visual clarity.

1. You can now simply hover over the icons beside the temperature indicators to view the temperature curves.

2. Previous versions displayed the “Skip Model” operation entry directly on the details page. This has now been adjusted to be triggered and used only during the printing process.


The camera preview feature for devices bound to Creality Cloud is now available. Once printing begins, you can view real-time previews. Currently, playback automatically pauses after 15 seconds, but you can resume manually with a click. Effortlessly manage the entire remote printing process.

For wide-area network transmission scenarios, the print-sending interface in Creality Print has been upgraded with the following improvements:
Optimized device display logic: The previous “LAN / Creality Cloud” grouping has been removed, and devices are now presented based on the actual network connection type.
Upgraded icon-based status indicators: When both network modes are available, the WiFi icon and the globe icon 🌐 are both shown in green. When only LAN is available, the WiFi icon remains green while the globe icon 🌐 appears gray, clearly distinguishing the availability of network modes through visual differentiation.
New intelligent channel-switching mechanism: When sending a model, the system will prioritize the LAN transmission channel. If the LAN connection fails, it will automatically switch to the WAN channel, significantly improving the success rate of model transmission and overall transfer stability.

This update currently applies to K2 plus printer. The new features will take effect after upgrading the K2 Plus firmware to version 1.1.4.8. (For other printers, please wait for future firmware updates.)
For K2 plus printer running firmware below above version, please refer to the documentation here: Printing Time & Filament Estimation Accuracy——Firmware and Slicer Version Compatibility Guide
During filament change flushing, a long retraction is performed before cutting. This retracts the filament from the throat tube, ensuring that unmelted filament is pulled out as much as possible before the cut. This process helps save the length of filament that would otherwise be wasted during a long retraction.
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During filament change, waste flushing filament will be used for printing model supports.
Example: Changing from black to white requires flushing 100 mm of filament. If the next layer’s supports require 40 mm, enabling this feature will flush only 60 mm before proceeding to print the wipe tower and then the supports. This may cause slight color mixing in the supports but will not affect the main model’s print quality.
Applicable scenario: For models requiring supports, enabling this feature can save filament.
Similar to “Flush into Object Supports,” this uses flushing waste for printing model infill.
Applicable scenario: For models printed with opaque filament, enabling this feature can reduce filament usage.
Similar to the above, but uses flushing waste to print the entire object.
Applicable scenario: For print jobs where only the model shape matters and color accuracy is not required, enabling this option can direct most flushing into the object itself, significantly saving filament.
This version introduces extensive testing and development to significantly improve print time estimation accuracy for both single-color and multi-color printing scenarios.
Single-color printing: Print time estimation error is reduced to less than 5%.
Multi-color printing: Print time estimation error is reduced to less than 5%. The new version decomposes the entire printing process, performs detailed estimation and error analysis, and delivers much more accurate print time predictions.

This version includes extensive testing and development to improve filament usage estimation accuracy, with a focus on multi-color printing scenarios. filament usage estimation is now divided into three parts: model printing usage, filament change flushing usage, and wipe tower usage, each tested for accuracy. Compared to previous versions with up to 20% estimation error, version v6.3.0 reduces this error to within 5%.
A new Online Models entry is available in the top bar, enabling one-click access to the Creality Cloud model library.

The homepage layout has been fully redesigned to improve first-screen efficiency—making online models and frequently used functions easier to locate.
The Tutorials section has been fully rebuilt with a new UI and reorganized content structure.
Whether for hardware maintenance or advanced software techniques, users can now navigate through clear series-based and topic-based categories to quickly locate the knowledge they need.

A new quick-access entry to the Creality Mall has been added to the homepage sidebar—allowing users to browse and purchase printers, filaments, and accessories directly from within Creality Print.
A dedicated Feedback entry has been added to the sidebar, along with a new quick-access feedback button in the top toolbar.
Users can now submit issues or suggestions instantly during operation, enabling faster turnaround on user requests.

A new intelligent rendering pipeline has been introduced for the G-code Layer Preview:
This adaptive LOD-based rendering significantly reduces lag when previewing tall models or high-density layer data.

Across common preview scenarios, average framerate improved by 20% or more in internal testing. Using the small dinosaur case as an example, the frame rate improved by up to 24% after optimization.
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Optimized the import logic for third-party 3MF files. When importing 3MF files created for non-Creality printers, users are prompted to select a printer preset. Printer parameters from third-party 3MF files that are incompatible will not be imported. Modified process parameters and filament types/colors can be imported, while any unsupported filaments or process settings will be replaced with the default parameters matched to the selected printer preset.

Local user presets saved in version 6.x will be automatically migrated to the 7.0 user folder. Presets already synced to the Creality Cloud can be accessed by logging into your Creality Cloud account.