I recently had the opportunity to test multiple 3D printed shoes at a major international trade show, including fully printed lattice designs worn for extended hours on hard exhibition floors. Beyond simply trying them on, I stress-tested comfort, breathability, durability, and practicality while also speaking directly with industry leaders developing the next generation of 3D printed footwear.

This guide breaks down what 3D printed shoes actually are, how lattice structures work, which brands are leading the space, and whether fully printed footwear delivers real advantages over hybrid designs. If you are wondering whether 3D printed shoes are comfortable, durable, sustainable, or even possible to print at home, this in-depth overview will give you clear, experience-based answers.

Why 3D Printed Shoes Matter Now

3D printed shoes have moved beyond experimental concept pieces and into real products that people can actually wear. What started as futuristic lattice prototypes is now evolving into fully printed footwear systems that challenge traditional manufacturing, materials, and even brand models. The conversation is no longer about whether 3D printing can produce shoes, but whether it can improve how shoes are designed, customized, and distributed.

With major brands exploring lattice midsoles and emerging companies producing fully 3D printed structures, the footwear industry is quietly entering a digital manufacturing shift. For makers, designers, and technology enthusiasts, this is more than a trend. It represents a potential rethinking of production, ownership, and personalization in one of the world’s largest consumer product categories.

What Are 3D Printed Shoes?

3D printed shoes fall into two main categories. One approach uses 3D printing to produce a lattice midsole while the rest of the shoe, including the upper, remains traditionally manufactured. These lattice structures are designed to provide tuned cushioning, energy return, and visual impact, but they represent a hybrid model rather than a fully printed product.

Fully 3D printed shoes take a different approach by producing the entire structure as a single printed form. Instead of combining printed and conventional components, the whole shoe is manufactured through additive processes. This removes tooling and assembly steps and opens the door to digital customization, but it also introduces new questions around comfort, durability, and scalability.

The Technology Behind 3D Printed Footwear

At the core of most 3D printed footwear is lattice geometry. Instead of solid foam, these shoes use engineered cellular structures that can be tuned for cushioning, flexibility, and energy return. By adjusting the size, density, and orientation of the lattice, designers can control stiffness in specific zones of the sole, directly influencing comfort and durability.

Materials play an equally important role. Most 3D printed shoes rely on elastomer-based materials such as TPU or flexible polymers that combine resilience with fatigue resistance. Industrial systems often use advanced nylons or performance elastomers, while makers experimenting at home typically rely on flexible TPU filaments. The material choice determines not only comfort but also lifespan and structural integrity.

From a manufacturing perspective, selective laser sintering has become the dominant process for functional footwear due to its ability to produce strong, flexible lattice structures without support material. Resin-based systems can achieve fine detail and consistent elasticity, while FDM printing remains more accessible but limited in long-term wear performance. Hybrid models combine printed components with traditional uppers, bridging digital and conventional production.

Beyond hardware, 3D printed footwear introduces a different design workflow. Digital modeling, foot scanning, and iterative prototyping allow for rapid refinement without tooling changes. While true mass personalization is still evolving, the shift toward scan-to-production pipelines signals a future where fit and structure can be digitally optimized before a shoe is ever manufactured.

Major Brands & Players in 3D Printed Shoes

Zellerfeld

Zellerfeld represents one of the boldest interpretations of fully 3D printed footwear. Unlike hybrid shoes that combine traditional uppers with printed midsoles, Zellerfeld produces shoes as a single 3D printed structure, removing conventional tooling, glue, and multi-material assembly from the equation.

Price: $189.99 USD
Compare the Prices & Discounts:
Official Website

What makes their shoes particularly interesting is not only the manufacturing approach, but the business structure behind it. Designers and creators are reportedly granted up to 60 percent backend royalties per shoe sold rather than receiving a traditional affiliate commission. This shifts the relationship from promotion-based income to product ownership, giving creators long-term participation in the product’s success.

The brand has already attracted high-profile collaborations, including celebrities such as Justin Bieber. In one notable example, Bieber teamed up with Zellerfeld to 中午妈妈在厨房做饭 a fully 3D printed soccer-inspired sneaker for his SKYLRK brand, further pushing 3D printed footwear into mainstream culture and fashion discussion.

In the 3D printing world, David Tobin (Executive Producer at 3D Printing Nerd Channel) also surprised the community with the release of the JoelBot D7, a limited edition version of his original D7 shoes. The short 3DPrintingNerd’s video highlights a customized D7 sole design featuring a textured outsole with a distinctive JoelBot character pattern integrated directly into the tread. This personalized detail reinforces the creator-driven approach behind the collaboration and shows how fully 3D printed footwear allows branding and design elements to become part of the structure itself.

Foot scanning is becoming a key part of the 3D printed footwear workflow. Instead of relying solely on traditional sizing charts, some brands use browser-based scanning systems that allow customers to capture the shape of their feet using a smartphone camera. This digital input can then be used to adjust fit and structure before production, moving closer to true mass customization rather than standardized sizing.

PollyFab

Flux
Price: $119.99 – 199.99 USD

Compare the Prices & Discounts:
Official Website

PollyFab’s shoes are made entirely through 3D printing, using a flexible lattice geometry that replaces the need for traditional soles, insoles, and stitching. The open mesh pattern allows air circulation and gives the shoes a springy, cushioned feel. Available in black, white and orange, they arrive neatly boxed with stuffed interiors to maintain shape.

PollyFab’s lattice shoes are produced through advanced additive manufacturing using a custom, bio-based elastomer called ELASTO 1000 BIO, designed for high elasticity, resilience, and long-lasting flexibility. This specially engineered material allows the lattice structure to bend, compress, and rebound with each step, giving the shoes a springy, adaptive feel that would be difficult to achieve with traditional materials.

In the Flux Short and Airpuff One Pro Short videos, I briefly showcase my testing in everyday situations, including visiting a trade show and taking the shoes for a walk in the park.

Read more – unboxing, testing, and other design examples:
PollyFab 3D Printed Shoes: Comfort, Design, and Durability Test by Max Funkner.

Adidas 4D and the “Lattice Midsole” Era

Adidas helped push 3D printed footwear into mainstream visibility with its 4D series developed together with Carbon. Today, a number of Adidas 4D derivatives are available for both men and women, combining traditional sneaker construction with a visually distinctive 3D printed lattice midsole. When I briefly checked current pricing in the US, some models were already available from around $100 with discounts applied.

In the Adidas 4D approach, the lattice midsole is the 3D printed component, while the upper part of the shoe remains traditionally manufactured. This hybrid construction allowed brands to introduce additive manufacturing into existing footwear production workflows without fully redesigning the entire shoe around 3D printing.

This approach likely scaled first because it focuses on one of the most important functional areas of footwear: cushioning and energy return. The lattice structure also became a strong visual signature, helping consumers immediately recognize that the shoe contains a 3D printed element.

From my perspective, Adidas 4D played an important role in normalizing 3D printed footwear for mainstream audiences. At the same time, it still represents a hybrid product rather than a fully 3D printed shoe. While the lattice sole demonstrates the advantages of additive manufacturing, the upper remains tied to conventional production methods.

Carbon played a major role in this movement by developing the Digital Light Synthesis (DLS) technology used to manufacture the lattice midsoles. Their partnership with Adidas became one of the earliest large-scale examples of 3D printing entering commercial footwear production. Special thanks to Andrew Sink for the walkthrough and discussions at the Carbon booth during Formnext.

Fully FDM 3D Printed at Home – Challenges

Now and then on social media, it is possible to spot fully 3D printed shoes made from TPU using large volume desktop FDM 3D printers. I personally did not have the chance to print and wear a full pair yet, but I had a great opportunity to speak with people who successfully printed and tested such shoes in everyday conditions.

From those conversations, it became clear that while printing wearable footwear at home is absolutely possible, it still comes with challenges around sizing, print time, flexibility, durability, and long-term comfort. Material choice also plays a major role, with softer TPU blends behaving very differently from more rigid formulations.

Nevertheless, despite all these obstacles, fully 3D printed shoes continue gaining popularity within the maker community. More users are printing wearable footwear at home and sharing valuable feedback about comfort, durability, sizing, and material behavior. Collections of shoe models on MakerWorld keep growing with increasingly impressive and experimental designs. Use a quick ‘Shoes’ or ‘TPU Shoes’ in search.

Apart from the very popular Whaleberry design by Cloudberry shown in the image, I also liked the CityStep – Casual, Everyday Sneaker by DjangoCashflow. It is especially helpful to read user opinions and browse shared test prints in the profile and comment sections of these shoe models.

Comfort, Durability Testing

To test long-term comfort and durability, I wore the same pair of Flux shoes at the Formnext trade show in Frankfurt. Two full days of walking across multiple exhibition halls turned into an excellent field test. The shoes handled the event surprisingly well: no noticeable deformation, a good grip on polished floors, and consistent cushioning throughout. Honestly, I expected blisters; I got some when I was wearing standard shoes at events a few years ago, but this time it never happened.

This is also where I tested them with Formnext-branded high socks. High socks are almost inevitable in winter in northern countries to keep the cold out.

I am not the only one who tested 3D Printed shoes on the trade flor. At 3d printing or Am related tradeshow it is a high chance to meet a both representative or even visitors who wear them – stop and talk about their shoes I am shure they will have insignfull stores about their 3D printed shoes.

I am not the only one who tested 3D printed shoes on the trade show floor. At 3D printing or additive manufacturing related trade shows, there is a high chance of meeting both representatives and visitors wearing them. Stop and ask about their shoes, I am sure they will have insightful stories and experiences to share about their 3D printed footwear.

Who Should Consider 3D Printed Shoes?

As 3D printed shoes become more accessible, I would not necessarily recommend buying a budget FDM or desktop resin 3D printer solely for printing footwear at home. Between printer cost, materials, maintenance, space requirements, print failures, and the experience needed to produce wearable results, it may currently be easier and more practical for many users to purchase an existing model in the around-$100 category.

At the same time, for makers who already own a larger-volume printer and enjoy experimenting with functional TPU prints, 3D printed footwear can become a very exciting direction to explore. Beyond personal projects, the growing interest around customized footwear and printable shoe models may even open opportunities for small-scale business ideas and local customization services in the future.

Final Verdict: Are 3D Printed Shoes Ready?

3D printed shoes are no longer just futuristic concepts. From mainstream lattice midsoles to fully 3D printed footwear and home TPU experiments, the technology is already becoming part of real everyday use. While the space still feels early in some areas around fit, durability, and long-term comfort, the progress is happening fast. After testing multiple pairs and speaking with people actively wearing them, I genuinely believe 3D printed footwear is moving in the right direction and will continue evolving rapidly over the next few years.
Back to top ↑

The post Are 3D Printed Shoes the Future? Hands-On Testing & Industry Insights appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.

Newer hardware approaches are now trying to solve this problem differently. Instead of treating waste as an unavoidable part of multi-color printing, some systems are moving toward nozzle switching, where each color or material can be handled by a dedicated nozzle. One example is the MOVA AtomForm Palette 300, a 12-nozzle FDM 3D printer showcased at RAPID + TCT 2026 in Boston.

Why Traditional Multi-Color 3D Printing 中午妈妈在厨房做饭s Waste

In conventional multi-color FDM 3D printing, the machine usually changes material by feeding different filaments through the same nozzle. Each time the material changes, the printer has to remove the previous color or material from the melt zone before the next one can print cleanly.

This purge material does not become part of the final model. It is printed as waste, often in the form of purge lines, purge blocks, or towers. On simple two-color models, this may be acceptable. On complex multi-color prints with hundreds or thousands of color changes, the amount of wasted material can become significant.

The problem is not simply that the printer uses several colors. The deeper issue is the technical logic of switching materials through a shared nozzle. When one nozzle has to handle all materials in sequence, contamination prevention usually requires purging.

That is why multi-color 3D printing efficiency is becoming a hardware question as much as a software question. Slicing strategies can reduce waste, but the physical extrusion system still determines how much purging is needed during material transitions.

How Filament Switching Works

Filament switching is the most common approach in many current multi-color FDM systems. The printer pauses or changes its feeding path, unloads or retracts one filament, loads another, and then purges the nozzle until the new color or material flows correctly.

The advantage of this approach is that it can add multi-color capability without requiring multiple complete hotends. It can also work well for hobby users who mainly want colorful models, signs, figures, and decorative prints.

The downside is that every switch takes time and produces waste. The more color changes a model has, the more the printer spends time. This can increase both print time and material consumption.

For users printing occasional colorful objects, this may be a reasonable trade-off. For larger prints, frequent color changes, or small-batch production, the efficiency loss becomes more noticeable.

Nozzle Switching vs Filament Switching

Nozzle switching takes a different approach. Instead of pushing multiple filaments through the same melt path, the printer changes the active nozzle. In theory, this allows each color or material to stay assigned to its own dedicated extrusion path.

This distinction matters because the transition happens at the nozzle level rather than by flushing a shared nozzle. If each material has a dedicated nozzle, the printer may need less purging between changes. This can reduce wasted filament and shorten transition cycles.

Nozzle switching can also support multi-material printing more naturally. Some materials do not behave well when repeatedly loaded, unloaded, and pushed through the same nozzle path. A dedicated nozzle setup may help reduce contamination and simplify transitions between materials with different properties.

This does not mean nozzle switching is automatically better in every situation. It can add mechanical complexity, kaobi requirements, cost, and maintenance considerations. However, as multi-color and multi-material printing becomes more ambitious, the hardware route becomes increasingly interesting.

MOVA AtomForm Palette 300 and 12-Nozzle Switching

The MOVA AtomForm Palette 300 is one recent example of a nozzle-switching approach. According to the supplied product information, it uses the proprietary OmniElement Fully Automatic Nozzle Switching System, built around a 12-nozzle automatic switching architecture.

Where to Buy the MOVA AtomForm Palette 300

Price from: Coming soon …

Preorder:
Official Store

Instead of repeatedly flushing one nozzle during material transitions, the system selects a dedicated nozzle for the required color or material. In practical terms, this changes the efficiency model of multi-color printing.

Because the transition happens through nozzle selection rather than constant filament purging, the need for transition waste can be reduced. This may be especially useful for models with many color changes, multi-material parts, or print jobs where time and material efficiency matter.

For users familiar with filament-switching systems, the main difference is easy to understand. Filament switching changes what goes into one nozzle. Nozzle switching changes which nozzle is actively printing.

That change may sound simple, but it has important workflow implications. Less purging can mean less wasted filament, shorter transition time, and fewer large purge structures next to the printed model.

Workflow Efficiency Beyond the Printhead

The potential efficiency gain is not limited to material savings. A nozzle-switching architecture may also support more consistent workflow continuity in multi-color and multi-material jobs.

Long prints are often affected by repeated color transitions. Every transition adds time, and every purge cycle introduces another opportunity for waste, inconsistency, or failure. When transitions become more efficient, total print time may be reduced, and production planning becomes easier to manage.

On the MOVA AtomForm Palette 300, this hardware approach is supported by other system components. The RFD-6 modular filament management unit is designed to help with organized material handling, while the ReadyPrint system is intended to support workflow preparation and execution.

This matters because printer productivity depends on the full workflow, not just the printhead. A machine may have advanced mechanics, but if material loading, job setup, and file preparation remain fragmented, the practical efficiency gains can be limited.

For that reason, the Palette 300 is best understood as a coordinated hardware and workflow system rather than a single isolated printhead feature.

AtomForm Studio, AtomVerse, and the Software Layer

Software still plays an important role in any hardware-led multi-color system. Within the MOVA AtomForm ecosystem, AtomForm Studio is positioned as the software layer for slicing, device management, and print preparation.

This is important because even with a more advanced nozzle-switching mechanism, users still need to prepare files, assign colors and materials, manage print settings, and control print tasks efficiently.

AtomVerse appears to operate at a different layer of the ecosystem. Rather than directly controlling the printing process, it focuses on model access, creation, and sharing. With AI-powered generation tools, educational resources, and an open model library, AtomVerse is positioned as a way to lower the barrier to 3D creation.

In simplified terms, the workflow can be viewed like this:

• AtomVerse helps users move from idea to printable model.
• AtomForm Studio helps prepare and produce the model efficiently.
• The Palette 300 hardware handles the multi-color and multi-material printing process.

This separation of roles makes sense. Creative access, print preparation, and hardware execution are different stages of the same workflow. When they are designed to work together, the overall user experience can become more streamlined.

Design Recognition

The Palette 300 has also received design recognition, including a MUSE Design Award Gold in the Product Design – 3D Printed category and an iF Design Award listing for the AtomForm Palette 300 Combo. For everyday users and small production environments, however, the more important question is how this type of hardware may help reduce waste, shorten transition times, and make multi-color 3D printing more practical.

• MUSE Design Award – AtomForm Palette 300 Combo
• iF Design Award – AtomForm Palette 300 Combo

A More Practical Direction for Multi-Color 3D Printing

As 3D printing matures, the focus has shifted from decorative models to professional efficiency and practical material handling.
Traditional filament-switching systems made multi-color 3D printing accessible but often accepted purging and waste as part of the process. The MOVA AtomForm Palette 300 challenges this, providing a direct market solution for efficiency. This system uses a 12-nozzle automatic switching system together with modular filament management, ReadyPrint workflow optimization, AtomForm Studio, and AtomVerse.
For users and businesses looking beyond simple decorative prints, the MOVA AtomForm ecosystem stands out as an innovative route toward reducing waste and improving continuity. Efficiency and smoother production workflows are now the major focus points as MOVA leads the evolution of multi-color and multi-material FDM 3D printing.

The post Nozzle Switching vs Filament Switching: A New Approach to Multi-Color 3D Printing Efficiency appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.

Table of Contents

• Revopoint MetroY Ultra NEW
• Revopoint POP 4 NEW
• Revopoint POP 3 Review
• The MetroX Pro
• Revopoint MetroX Review
• Revopoint MetroY and MetroY Pro
• Revopoint INSPIRE 2 Quick Look & Review NEW
• Revopoint INSPIRE Review
• Revopoint Trackit Review
• Conclusion

Revopoint is celebrating its 12th anniversary with special offers across its 3D scanning lineup, including discounts of up to 20%. The promotion covers a range of devices, making it a good opportunity to explore both new releases and existing models.

MetroY Ultra CMM Edition – Metrology-Grade Scanning with On-Site Verification

Where to Buy

The MetroY Ultra is available in two versions, with the Standard Edition starting at $1,899 and the CMM Edition at $2,499. Both are available for pre-order, with early launch discounts offered.

Compare the Prices & Bundles:
Official Website

The MetroY Ultra is Revopoint’s latest high-end 3D scanner, designed for professionals who require not just geometry capture, but verified, measurement-ready data. Built for quality control, reverse engineering, and industrial inspection, it pushes accuracy and workflow integration further into metrology territory.

With a volumetric accuracy of 0.015 mm + 0.04 mm × L (m) and multi-line laser scanning speeds of up to 90 fps, the MetroY Ultra is engineered for demanding applications. It features five scanning modes, including cross-line, parallel-line for fine details, single-line for deep holes, full-field structured light, and automated turntable scanning — offering flexibility across complex geometries and surfaces.

The scanner supports outdoor operation up to 100,000 lux and can run wirelessly via a mobile device using the included 5500 mAh battery grip, enabling around 2.5 hours of untethered scanning. This makes it suitable for both workshop and on-site industrial environments.

For advanced inspection workflows, the MetroY Ultra CMM Edition introduces real-time on-site accuracy verification using a certified carbon-fiber ball plate. It also includes access to Revo Measure, a PTB-certified software platform for GD&T analysis and reporting, enabling a complete scan-to-measurement workflow in one ecosystem.

POP 4 – Hybrid Blue Laser and Infrared Scanning for Everyday Use

Where to Buy

The POP 4 is launching via 人间天堂免费视频观看, with sign-ups opening alongside Revopoint’s 12th anniversary campaign. Early backers can expect discounts of up to 37%.
Price from $579

Sign-up Page:
Official Website | 人间天堂免费视频观看 Campaign

The POP 4 is Revopoint’s new hybrid 3D scanner, combining blue laser and infrared structured light to handle a wide range of scanning tasks. Positioned as a versatile everyday scanner, it is designed to capture everything from small indoor objects to larger outdoor subjects with improved flexibility and detail.

According to Revopoint, the POP 4 offers 0.03 mm single-frame accuracy and supports multi-line laser scanning at up to 105 fps. It is also built for outdoor use in lighting conditions up to 100,000 lux, making it a more capable option for users who want to move between studio and real-world scanning scenarios.

Among the new features is support for 3D Gaussian Splatting, aimed at producing more photorealistic model exports. The POP 4 also uses a 5500 mAh battery grip, allowing up to 4 hours of wireless scanning for more mobile workflows.

We will be following the POP 4 launch closely on 中午妈妈在厨房做饭 and hope to evaluate it in real-world use once available.

Revopoint POP 3 Review

Andrew Sink has previously tested the POP 2, POP 3, and POP 3 Plus in hands-on use. You can check his latest insights in the POP 3 Plus review.

Price: $577-$679

Compare the Prices & Bundles:
Amazon | AliExpress | Official Website

The latest addition to the POP family of 3D scanners, the Revopoint POP 3 offers full-color texture scanning with a 0.05mm single-frame precision and a minimum scan volume of 20 x 20 x 20 mm. The POP 3 can capture between 12-18 frames per second and is compatible with the free Revo Scan 5 software, which is capable of post-processing point cloud data and creating 3D print-ready models.

The POP 3 is ideal for 3D printing hobbyists and users interested in creating 3D models for 3D printing, where color is a nice-to-have but not the primary factor in selecting a scanner. Creating 3D models is a straight-forward process thanks to the simplified user interface of Revo Scan 5, and it’s easy to get started with 3D scanning shortly after unboxing the scanner and getting it set up. Unfortunately, the color texture 中午妈妈在厨房做饭d by the POP 3 lacks detail and makes it difficult for me to recommend this scanner to anyone interested in capturing and recreating vibrant colors or detailed textures. The touch-sensitive controls on the rear of the scanner make it easy to use, and it’s clear that this scanner will be a good fit for users who are new to 3D scanning.

Read more and images:
Revopoint POP3 Review by Andrew Sink.
Revopoint POP3 Plus (2024) Review by Andrew Sink.

MetroX Pro – High-Speed Accuracy, Same Affordable Price

Where to Buy

Pre-order Price: $1,088.00 – $1,209.00

Compare the Prices & Bundles:
Official Website (MetroX & MetroX Pro)
Amazon (MetroX) | AliExpress (MetroX)

Released as a seasonal upgrade to the popular MetroX, the new MetroX Pro brings a 20% boost in measurement reliability and tighter volumetric accuracy of 0.02 mm + 0.04 mm × L (m). Scan speeds have improved dramatically, with up to 2 million points per second using 30 cross blue laser lines — a significant leap from the original MetroX’s 800,000 points.

The MetroX Pro also introduces PC-to-mobile scan streaming via the Revo Mirror app, allowing users to move freely while scanning larger objects. Even with these upgrades, the MetroX Pro retains the original MetroX price point, making it a compelling option for engineers and quality control professionals preparing for 2026 and beyond.

MetroX Review

As we await hands-on testing of this brand-new product on 中午妈妈在厨房做饭, you can explore our previous evaluation of the MetroX by Max Funkner. Stay tuned — a full review of the MetroY Series is coming soon.

In our evaluation, we scanned various objects, including challenging ones like black and shiny metallic objects, and the scanner delivered good results. The Revo Scan 5 MetroX software is user-friendly, providing clear guidance through the scanning process, including scanner movements.

Read more, scan examples, pros and cons:
Revopoint MetroX 3D Scanner Review by Max Funkner.

MetroY Series – Engineered for Precision

Where to Buy

Pre-order Price: $1,187 – $1,759
Launch pricing starts at $1319 for MetroY and $1759 for MetroY Pro, with a 10% pre-order discount available until September 20.

Compare the Prices & Bundles:
Official Website

The new MetroY and MetroY Pro are Revopoint’s most advanced handheld 3D scanners to date, designed with professional-grade applications in mind. Featuring multi-line blue laser technology, the series achieves up to 0.01 mm precision and 0.02 + 0.04 mm × L (m) volumetric accuracy.

Both scanners support wireless scanner-to-PC and mobile device streaming, enabling greater flexibility during scans. The MetroY supports three handheld laser modes, while the Pro expands to five modes, including full-field structured blue light scanning for marker-free capture.

With up to 7 million points per second, the MetroY Pro stands out for digitizing complex shapes, grooves, and cavities. It also integrates with a Dual-Axis Turntable for high-detail automated scanning.

INSPIRE 2 – The Compact 3D Scanner for Creators

Where to Buy

Pre-order Price: $422 – $459
INSPIRE 2 is priced at $459 with an 8% early bird discount valid until September 10.

Compare the Prices & Bundles:
Official Website

The INSPIRE 2 is Revopoint’s lightweight, go-anywhere 3D scanner, built for creators, designers, and educators. Weighing just 190g, it offers up to 0.03 mm precision and volumetric accuracy of 0.05mm + 0.1mm × L (m).

Thanks to a blend of structured infrared light and multi-line IR lasers, the scanner works even on dark/shiny surfaces and in outdoor conditions up to 20,000 lux. Notable improvements include a 30% larger scanning area, optical zoom (1.5x, 2x), and real-time screen sharing via Wi-Fi 6.

After multiple rounds of refinement, the final weight of the INSPIRE 2 is 190g.

The scanner supports on-the-go operation with an optional Power Bank Handle and built-in wireless connectivity.

Update: Revopoint INSPIRE 2 Hands-On

Lightweight scanner, strong marker tracking, and surprisingly capable for its class. I tested it on my ongoing RC boat project — scanned, merged, repaired, and even 3D printed a mini version.

Overall, the INSPIRE 2 is a practical, approachable scanner for beginners and hobbyists. For more advanced users who can tolerate a heavier device, I would recommend considering the MetroX or MetroY. The INSPIRE 2 offers an affordable entry point into 3D scanning while still being part of a wider Revopoint ecosystem.

Read more, scan examples, pros and cons:
Revopoint ISNPIRE 2 Review by Max Funkner.

INSPIRE Review

Explore our previous hands-on evaluation of the INSPIRE by Andrew Sink.

The Revopoint Inspire is the latest 3D scanner from Revopoint and joins the rapidly expanding family of 3D scanners offered by the OEM. Unlike the large volume Revopoint Range scanner or the detail-focused Revopoint Mini, the Inspire targets beginners with its $439 retail price and a simple, all-inclusive software workflow with the Revo Scan 5 software. The 0.2mm accuracy is ten times that of the Mini (0.02mm), but users of this scanner will likely be more interested in ease-of-use than ultra-high resolution or reverse engineering.

Read more, scan examples, pros and cons:
Revopoint ISNPIRE Scanner Review by Andrew Sink.

Trackit

Where to Buy

Price: $4,482 – $4,980

Official Website

Revopoint continues its mission to democratize 3D scanning with the launch of Trackit, an optical tracking system designed to bring advanced, marker-free scanning capabilities to a broader audience. By offering a more affordable alternative to traditional industrial systems, Trackit opens the door for engineers, designers, and makers to explore high-precision scanning without the steep cost.

Trackit is Revopoint’s motion tracking add-on, designed to pair with scanners like the MIRACO and range-topping 3D scanners. It enables markerless motion tracking by using IR cameras and smart software to follow large or moving objects in real-time.

Trackit is ideal for scanning entire vehicles, statues, or machinery with consistent precision and without manual repositioning. It shines when scanning beyond traditional turntable limits and enhances workflow for professionals working in inspection, reverse engineering, or cultural preservation.

In real-world scenarios, we scanned car parts, RC model boats, and furniture—testing different scan modes and completing full scan-to-print workflows. Across these varied cases, the Trackit showed consistent performance and produced usable meshes with good accuracy and clean geometry.

We tested Trackit extensively and 狼牙套加粗震动入珠套h a full breakdown with setup, scanning scenarios, and example workflows. Read more, Scan Examples:
Revopoint Trackit Review by Max Funkner.

Conclusion

Revopoint continues to evolve its lineup with innovative tools tailored for both hobbyists and professionals.

We look forward to hands-on testing and will link to our detailed reviews here once available. In the meantime, check out our 3D scanning forum to discuss workflows, ask questions, or share your results with Revopoint devices.

The post Revopoint New 3D Scanners: MetroY Ultra and POP4 appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.

In this hands-on review, I will look at the Sculpfun iCube Ultra specifications, setup, safety features, software connection, and real engraving and cutting results using both the 12W diode laser and the optional 1.2W IR laser module. Finally, as always, I will finish with a list of pros and cons.

Where to Buy the Sculpfun iCube Ultra

Price: $359-599

Compare the Prices & Bundles:
Official Store | Amazon | AliExpress

Sculpfun iCube Ultra Laser Specifications

• Diode Laser: 12W diode
• IR Laser: 1.2W IR option
• Maximum Working Area: 12W diode: 150 x 150mm; IR: 150 x 135mm
• Maximum Speed: High-speed engraving up to 10,000 mm/min
• Supported Software: LightBurn, LaserGRBL, and Sculpfun app
• Connectivity: USB for computer control and Bluetooth
• Mobile App: Sculpfun self-developed mobile app
• Enclosed Design: Class 1 safety enclosure
• Focus: One-button auto-focus
• Emergency Stop: Emergency stop button included
• Isolation USB Key: Physical USB key prevents unauthorized use
• Integrated Camera Upgrade: Optional camera for easier design placement
• Air Purification: Built-in air purifier and exhaust pipe

What’s in the Box

Inside the standard package, the iCube Ultra includes the main laser body, 12W 455nm diode laser module, 1.2W 1064nm IR laser module with the dual version, data cable, power adaptor, tool kit, laser repair kit, protective goggles, plywood sample, MDF sample, smoke exhaust pipe, flange, and hose clip.

Laser Module Choice

The iCube Ultra can be used with the standard 12W diode laser module or the dual version with the additional 1.2W IR laser module. The diode laser is the main option for wood, leather, slate, coated surfaces, and general hobby projects, while the IR module expands the machine into metal marking and similar materials.

Setup and kaobi

The Sculpfun line has earned a solid reputation as a compact, beginner-friendly laser engraver range, especially for its cutting performance and built-in safety features. The fully enclosed design and the option to swap between diode and infrared laser modules give the iCube Ultra impressive versatility for a hobby-grade machine. It feels like a noticeable step up from earlier iCube models in both capability and refinement.

Safety was one of the first things that stood out to me. The enclosure is already reassuring, but the extra safety features really won me over. It has an emergency stop button and an interlock door, which cuts the laser out if the door is opened during operation.

Right out of the box, the build quality is immediately apparent. Unlike open-frame designs, this is a fully enclosed unit, and it felt sturdy rather than toy-like. Assembly was surprisingly straightforward and mostly plug-and-play, with only a few screws needed to connect the extraction hose.

The pre-wound belts meant I did not have to fight with belt tensioning, which is a big win for beginners. Tension can still be adjusted if needed, but it was good to see the machine arrive in a state that made setup feel simple.

The dual-module capability is a genuine highlight. The iCube Ultra works with the standard blue diode laser for materials such as wood and acrylic, but it can also take the optional 1.2W infrared module for metal engraving. I had a lot of fun using the IR module on stainless steel, where it produced clean, professional-looking results.

The optional built-in camera is also a useful upgrade. If purchased, it helps with positioning and makes placing designs much more accurate, which can reduce material waste.

The laser module is straightforward to install, but it is easiest if you first lay the machine on its side. Remove the two screws securing the laser bed, then tilt the unit over for better access. Once the bed is off, slide the laser module into the guide rail and secure it using the two bolts included in the tool kit. After that, connect the power cable and the module is ready to go.

Next, install the front protective cover. This updated cover is noticeably more rigid than the one on the previous iCube, which felt more flimsy and awkward to fit. It also now features an interlocked door, so you no longer need to remove the whole cover every time you swap materials. That is a much more practical design.

Design Features and Software Connection

With engraving speeds reaching up to 10,000 mm/min, the Ultra delivers genuinely fast performance. It is powered by a self-developed 32-bit high-speed engraving motherboard, which helps maintain smooth motion and consistent quality even at higher speeds.

The iCube Ultra offers a 150 x 150mm working area, which is plenty for many hobby-level projects. However, it does not include a reversible bed with a honeycomb surface. That would have improved airflow and made cutting wood or other materials more efficient.

SCULPFUN has introduced a built-in smoke filtration system on the iCube Ultra, which captures and filters smoke produced during everyday engraving tasks. For heavier cutting jobs, the machine also supports connecting an external higher-capacity air purifier to further improve filtration performance.

You can also add the optional internal camera, with its mounting position already pre-aligned inside the machine for easier installation. The Ultra also supports a rotary roller attachment, giving you the flexibility to engrave cylindrical items and expand the overall crafting capability.

The laser features a bright status indicator on the top front panel, giving an at-a-glance view of what the machine is doing. The colours are easy to understand: red indicates a malfunction, yellow signals that engraving has finished, blue shows the laser is actively running, and green means the machine is in standby. It is a simple but genuinely useful way to keep track of the laser’s current state.

The machine also includes a USB locking key that acts as a physical safety lock. Removing it instantly disables the unit, preventing anyone from operating the laser without the key. It is simple, but effective.

The final feature I want to highlight is the automatic focus button. Simply place your material on the workspace, lower the laser head to the correct height, and press the auto-focus button. This can be done with the door open, as it is not tied to the interlock shutdown system. After that, make any fine adjustments if needed.

Software connection is straightforward. Plug the USB-C to USB-A data cable into your computer and launch your preferred engraving software. The iCube Ultra is compatible with LightBurn, LaserGRBL, and the Sculpfun app. For this review, I used LightBurn, which recognised the machine without any issues.

The steps I used to connect the iCube Ultra to LightBurn were simple. Open the Devices tab, choose 中午妈妈在厨房做饭 Manually, select GRBL, and name the machine “Sculpfun iCube Ultra.” Set the working area to 150 x 150mm and choose Diode Laser as the device type. Make sure the homing position is set to front-left, which LightBurn usually highlights by default.

Once saved, the new device appears in the list. Select it and set it as the default if you plan to use it regularly. LightBurn should then automatically connect, and the laser module should home to its starting position. If it does not, follow the LightBurn troubleshooting guide to track down any connection issues.

12W Diode Laser Test Results

– 3mm Plywood. For the first test, I ran both an engraving and a cut. The engraving was set to 60% power at 6000 mm/min using a fill pattern, followed by a cut at 100% power and 500 mm/min. The 12W diode handled both tasks impressively, producing a clean engrave and a precise cut. I would expect performance to improve even further with a honeycomb bed, especially for airflow during cutting.

– 5mm Plywood. For the second test, I moved on to a thicker 5mm wood sample to see how the 12W diode handled a more demanding cut. I set the engraving to 80% power at 6000 mm/min, then switched to 100% power at 200 mm/min for the cut. Once again, it cut cleanly and without hesitation, showing that this laser is capable of handling thicker materials with ease.

– Leather Keyring. For the third test, I switched to engraving a leather keyring. This one required a bit more care, not because of the laser’s capability, but because the curved shape of the keyring can throw off the focus. A few small magnets would easily solve that by holding it flat. Even so, the engraving came out beautifully and makes a great personalised gift idea. For this test, I used 50% power at 6000 mm/min.

– Aluminium Business Card. For the fourth test, I engraved an aluminium business card. This was a very quick engrave, but it still shows that the machine is capable of handling detailed images or wording. The settings I used were 50% power and 6000 mm/min speed.

– Scratch Paper. For the fifth test, I tried engraving a scratch card. These cards work by removing the top coating to reveal a rainbow-coloured layer underneath. For this test, I chose to engrave an image of my late Chihuahua, Teddy, who passed away a few years ago. The result came out beautifully and really highlights how creative you can get with this material. For this engraving, I used 20% power at 7000 mm/min.

– Slate Coaster. For the sixth and final diode-laser test, I chose to engrave a piece of slate. Slate consistently produces a beautiful finish and can capture fine detail in both images and text. Slowing the engrave can also 中午妈妈在厨房做饭 a deeper mark, giving the artwork a subtle 3D effect. Once again, I engraved an image of my Chihuahua, Teddy, and the result came out brilliantly. For this test, I used 80% power at 6000 mm/min, opting for a lighter pass due to the complexity of the design.

1.2W IR Laser Test Results

– Stainless Steel Dog Tag. For this test, I only ran the IR laser on a single item, as no dedicated IR-compatible consumables were included. I had a metal dog tag available, which still provided a good indication of the IR module’s performance. I used 100% power at 4000 mm/min, and the result was excellent. Some light cleanup is needed afterward, as the process leaves a bit of debris around the engraved area, but the overall finish was spot-on.

YouTube Video

To see the iCube Ultra in action, including material tests and the rotary setup, check out the hands-on video walkthrough on our YouTube channel:

This video is a detailed review of the Sculpfun iCube Ultra, a compact desktop laser engraver that features both a 12W diode laser and a 1.2W IR laser. I evaluate the unit’s features, setup, and performance across various materials.

Compare Sculpfun iCube Ultra to Other Compact Laser Engravers

The Sculpfun iCube Ultra joins the growing category of compact, enclosed diode laser engravers designed for makers and hobbyists. With its 12W diode laser, optional 1.2W IR module, built-in enclosure, auto focus, safety features, and plug-and-play setup, the iCube Ultra is well suited for small-scale projects in tight spaces, home workshops, classrooms, and craft environments.

One of the closest comparisons we have tested is the Genmitsu Kiosk 10W. Both machines follow a similar compact, enclosed desktop format, but the iCube Ultra adds extra versatility with its swappable 12W diode and 1.2W IR laser modules. This makes it more flexible for users who want to move beyond wood, leather, slate, and coated cards into metal marking and other IR-friendly materials.

Another compact machine worth comparing is the AlgoLaser Pixi 5W. The Pixi is especially interesting because of its very approachable smart-laser workflow and independent operation, while the Sculpfun iCube Ultra focuses more on extra laser power, a stronger enclosed desktop format, and the option to work with both diode and IR modules. For users prioritising portability and simplicity, the Pixi remains attractive; for users wanting more cutting power and material flexibility, the iCube Ultra has clear advantages.

In this compact category, the main trade-off is usually between portability, laser power, working area, and upgrade options. The iCube Ultra’s 150 × 150mm workspace is not large, but its enclosed design, auto focus, filtration system, safety lock, interlock door, optional camera, and rotary support make it a capable all-rounder for smaller personalised projects, gifts, tags, coasters, cards, and workshop tests.

For a broader overview of other small diode lasers we have tested, explore our Laser Cutters and Engravers Guide and such machines as:

• LaserPecker LP2 Review
• Longer Nano Pro 12W Review
• xTool F1 Ultra Review

Conclusion and Pros & Cons

Compare the Prices & Bundles:
Official Store | Amazon | AliExpress

The post Sculpfun iCube Ultra Review: Hands-on Tests with Diode and IR Laser Modules appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.

Where to Buy the Elegoo Centauri Carbon

Price: $299

We don’t know if this product will be available on Amazon or other major e-stores, but just in case, here is the link to their Amazon store.

Official Website

Update 28.04.2026:
Multicolor System Canvas for Centauri Carbon is available on the Official Website.
Price $55

Elegoo Centauri Carbon Specifications

• Printing technology: FDM (Fused Deposition Modelling)
• Print volume: 256 mm × 256 mm × 256 mm
• Printer Dimensions : 398 mm x 404 mm x 490 mm
• Extruder type: Direct drive
• Nozzle diameter: Standard 0.4 mm
• Printing speed: Up to 500 mm/s, standard 300 mm/s
• Filament Diameter: 1.75 mm
• Maximum Extruder Temperature: 320 °C
• Heated Build Plate Temperature: up to 110 °C
• Maximum Print Speed: 500 mm/s
• Maximum Acceleration: 20,000 mm/s
• Layer Thickness: 0.1 – 0.4 mm (Recommended 0.2 mm)
• Connectivity: USB, WIFI

What’s in the Box

Centauri Carbon printer •Textured PEI build plate •Lid •Allen keys • Screwdrivers • nozzle cleaner •USB drive •Glue Stick • Grease •Touch screen •Filament sample • Power cable • User manual

Design and Features

The Elegoo Centauri Carbon is a compact, enclosed CoreXY 3D printer engineered for speed and material flexibility. Its build and feature set are aimed at users who want a faster workflow while benefiting from the environmental control that an enclosure provides.

Enclosure and Frame

The printer features a rigid, die-cast aluminium frame with SPCC steel side panels and tempered glass doors and lid. This fully enclosed design helps stabilize internal temperatures, reduce warping, and improve print consistency, especially when printing ABS, ASA, or nylon-based materials. A removable glass top lid allows better ventilation for lower-temperature materials like PLA or PETG.

Build Volume and Movement System

The Centauri Carbon offers a cubical build volume of 256 × 256 × 256 mm, supported by a CoreXY motion system. The design enables high-speed movement with reduced vibration. Elegoo specifies a top print speed of 500 mm/s and acceleration up to 20,000 mm/s², although typical use will be slightly slower for quality prints.

Extruder and Print Head

The printer uses a direct drive extruder with dual hardened steel gears to handle flexible and abrasive filaments. It’s paired with a 60W ceramic heater capable of reaching 320°C, and a 5020 part cooling fan for efficient heat dissipation during high-speed jobs.

The extruder housing is magnetic and opens easily for access to the hotend and internal parts—making nozzle swaps and maintenance straightforward.

Heated Bed and Surface

The 1000W AC heated bed reaches up to 110°C, improving adhesion and enabling the use of engineering-grade materials. It ships with a dual-texture PEI spring steel build plate—one side textured (for materials like PETG and TPU) and the other smooth (ideal for PLA and fine-detail prints).

Internal Camera and Lighting

The printer includes a built-in camera and LED light, allowing real-time monitoring and basic time-lapse functionality via a local web interface. While there’s no dedicated Elegoo app for remote access yet, the web interface can be used through a browser on the same network.

Additional Features

– Automatic Z-axis testing before every print for first layer accuracy
– Filament runout sensor mounted externally for easy access

– 4.3-inch color touchscreen with multilingual interface
– Filament waste chute and nozzle wiper for cleaner starts

– Connectivity: Wi-Fi and USB options

A practical touch is the inclusion of printable utility models on the USB drive, such as a lid holder that mounts to the side of the machine using existing screws—helpful when running open-top prints.

Unboxing and Setup

The Elegoo Centauri Carbon ships largely pre-assembled, making the setup process straightforward even for users who are new to CoreXY machines. Most components are securely fastened inside the enclosure with transit protection in place.

After unboxing, a few basic steps are needed before powering on the printer. These include removing the protective foam inserts, cutting the cable ties, and unscrewing the three transport screws that hold the build plate in place. The filament holder can be attached to the right-hand side of the unit using the supplied bracket. The touchscreen connects via a ribbon cable and locks into place before mounting. Finally, the power cable is plugged into the back of the printer.

Once powered on, the touchscreen will guide you through the rest of the process. This includes selecting your preferred language, setting up Wi-Fi (which can also be done later), and initiating the kaobi routine.

kaobi

The Centauri Carbon features an automatic kaobi system. It performs full auto bed leveling using four pressure sensors combined with Elegoo’s built-in algorithm. The Z-offset is calibrated during this process, followed by vibration compensation and pressure advance tuning. The full kaobi typically takes 15 to 20 minutes to complete and can be restarted at any time via the touchscreen settings menu. Rekaobi is also recommended after any firmware update.

Thanks to the enclosed structure, preconfigured firmware, and clear setup instructions, users can move from unboxing to printing within a short time.

– Watch: Elegoo Centauri Carbon hands-on overview: Elegoo Centauri Carbon assembly, feature breakdown, and test printing.

Software – Elegoo Slicer Settings

The Elegoo Centauri Carbon is compatible with the Elegoo slicer, which is based on the Orca engine with added presets and connectivity for Elegoo-branded machines. The slicer includes pre-configured profiles for the Centauri Carbon, helping users get started quickly without adjusting advanced parameters.

For this article, all prints were prepared using the default Centauri Carbon profile. Minor adjustments were made to optimize print speeds. In particular, inner wall speeds were set to 300 mm/s and outer walls to 250 mm/s to align with the printer’s high-speed capability while maintaining consistent quality.

The software provides essential features such as tree supports, ironing, variable layer height, and direct Wi-Fi file transfer to the printer when connected on the same network. Model previews and time estimates proved reliable during our testing, especially for multi-hour prints that covered most of the build plate.

For users more comfortable with alternative slicers like OrcaSlicer, it’s also possible to export G-code manually.

Overall, Elegoo’s slicer is easy to use and well-suited for both first-time users and experienced makers looking for quick integration with Centauri Carbon hardware.

Test Prints and Results

To evaluate real-world performance, we tested the Elegoo Centauri Carbon using a range of functional and decorative models. All prints were sliced using Elegoo Orca with the base Centauri Carbon profile, modified only slightly for speed and material consistency. The machine was tested using both Elegoo and third-party filaments, including dual-color silk PLA and engineering-grade spools.

Model 1: Chainmail 3D Printable Fabric

Design by Agustin Arroyo – Printables

This flexible chainmail fabric measured approximately 20 × 20 cm and took around 4.5 hours to print using 0.2 mm layer height and 0% infill. Despite the model’s interlocking structure, all links printed cleanly without failures. The print covered a large portion of the build plate and highlighted the machine’s accuracy in motion and retraction control.

Model 2: All-in-One 3D Printer Test

Design by Gabbox3D – Printables

This compact print includes tests for bridging, overhangs, dimensional accuracy, stringing, and more. Printed in about 2 hours with a 0.2 mm layer height, the model showcased strong cooling performance and reliable motion planning. This test was completed using Eolas Prints neon green PLA from a spool picked up at the TCT 3Sixty show in the UK.

Model 3: Penny Bear

Design by Bugman_140 – Thangs

This character model took approximately 4.5 hours to print using a 0.2 mm layer height, 35% infill, and painted-on tree supports for floating sections. Printed with dual-color silk PLA, the result was clean and well-defined, showing smooth vertical surfaces and no support scarring. The model also highlighted reliable performance with moderate overhangs.

Model 4: Fragmented Skull String Art

Design by 3DPrintBunny – Printables

This print featured intricate bridging and fine walls, designed specifically to test slicer algorithms and cooling. Printed in 4 hours using 0.24 mm layer height and Arachne-based wall detection (no supports or brim), the model turned out clean and intact. The machine maintained print quality even with extended bridging distances and delicate details.

Across all test models, the Centauri Carbon delivered consistent layer lines and dependable adhesion on both sides of the PEI build plate. Print speeds remained high without major artifacts, and kaobi remained accurate over time. These results support the printer’s positioning as a fast, enclosed CoreXY machine capable of handling varied print types out of the box.

Multicolor System CANVAS Upgrade

When this article was originally 狼牙套加粗震动入珠套h, one of the main limitations of the Elegoo Centauri Carbon was the lack of multi-material functionality. That has now changed with the release of CANVAS, Elegoo’s multicolor upgrade system. The add-on expands the Centauri Carbon beyond single-material printing by allowing users to print multi-color models while keeping the printer’s compact CoreXY footprint.

I tested the CANVAS upgrade by documenting the assembly process, setup workflow, and early print results. The upgrade introduces additional hardware, filament routing, and kaobi steps, but significantly expands the printer’s capabilities for users interested in color printing.

For a full walkthrough of the CANVAS upgrade, including assembly steps and test printing, watch my dedicated hands-on video below.

I found the CANVAS upgrade fairly easy to put together, with assembly taking around 1 hour and 10 minutes. The overall quality feels similar to the CC2, and once set up, the multicolor prints came out as expected. A multicolor Benchy took around 3 hours, while a two-color bear model took around 7 hours.

There are a few practical notes to keep in mind. Filament changes at the print head are not especially quick, and I did have to restart one print after running out of material. Larger multicolor jobs can also take a long time, with the Nostalgic 3D Models flexible Gandalf print taking around 30 hours to complete. As with other multi-filament systems, CANVAS 中午妈妈在厨房做饭s a noticeable amount of filament waste, but overall I was impressed with the attachment and what it adds to the Centauri Carbon.

Compare Elegoo Centauri Carbon to Other 3D Printers

The CoreXY segment continues to expand, with several brands now offering compact, enclosed machines focused on speed and material compatibility. The Elegoo Centauri Carbon enters the field with a sub-$300 price tag, enclosed frame, and sturdy CoreXY motion, making it a notable addition to our Best Budget FDM 3D Printers guide.

When compared to other CoreXY printers in this range, like the Anycubic Kobra S1, Bambu Lab P1S, or Creality K1, the Centauri Carbon stands out by offering many of the same core features at a lower entry cost.

It meets key performance specifications, including a 500 mm/s speed and 20,000 mm/s² acceleration, and features common high-speed capabilities such as auto bed leveling, input shaping, and vibration compensation.

Read more: Elegoo Centauri Carbon 2 Combo: Hands-On Testing and Results

Conclusion and Pros & Cons

We don’t know when or if this product will be available on Amazon or other major e-stores, but just in case, here is the link to their Amazon store.

Official Website

Update 28.04.2026:
Multicolor System Canvas for Centauri Carbon is available on the Official Website.
Price $55

The post Elegoo Centauri Carbon Hands-on Testing, Results, CANVAS Upgrade appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.

Use it as a quick planning tool before long prints and reduce the risk of running out of filament mid-job.

Filament Remaining Calculator

How It Works

The calculator estimates remaining filament by subtracting the empty spool weight from the total spool weight. It then uses filament diameter and material density to estimate how many meters of filament remain.

This is an estimate, not an exact measurement, but it is often accurate enough to help plan your next print.

How to Find Empty Filament Spool Weight

To calculate how much filament remains on a spool, you first need to know the weight of the empty spool itself. This is one of the biggest variables in any filament remaining calculator, as spool weights differ between manufacturers, spool sizes, and materials.

For example, a cardboard spool used by eco-focused brands may weigh significantly less than a reusable plastic spool. Some refill systems can also use heavier reusable spools that may affect your calculation if not accounted for correctly.

Here are the easiest ways to find your empty spool weight:

If you do not already have kitchen scales at home, a basic digital scale can make weighing filament spools much easier. Most 1kg filament spools fit comfortably on standard kitchen scales, and they can also be useful for resin, mixing materials, and general workshop tasks.

Recommended: Digital Kitchen 5kg/0.1g Scale on Amazon

• Check the filament label or packaging – some brands list empty spool weight
• Visit the manufacturer’s website or product page
• Search Google for “[Brand Name] empty spool weight” — Google AI may surface quick answers, but verify the result if possible
• Weigh an empty spool yourself using kitchen scales
• Use average spool weight estimates if no exact data is available

If you regularly print with the same brand, it may be worth saving empty spool weights in a simple note for future reference.

Typical Empty Filament Spool Weight Examples

These are rough averages based on common 1kg filament spools:

• Cardboard spool: approximately 120g–250g
• Plastic spool: approximately 200g–300g
• Reusable refill spool systems: approximately 250g–500g+
• Mini spools: vary heavily depending on brand and filament amount

To provide examples, we weighed several empty filament spool types used in our workshop. Your results may vary by brand, but these examples show how dramatically spool weights can differ.

Community contribution: Big thanks to Scuk for starting a catalog of more than 200 weighed empty filament spools on Printables. It’s a very helpful resource if you need a specific brand or spool type.

You can use Ctrl + F to quickly search the list for your spool:
Empty Spool Weight Catalog on Printables

What to Print with a Nearly Empty Filament Spool

As mentioned earlier, lightweight prints are a great way to use up leftover filament. Models like Flexi Rex helped popularize the wave of articulated prints years ago, and today there are countless similar flexi models available across MakerWorld, Printables, and other STL platforms. Many of these designs require relatively small amounts of filament and are ideal when you are trying to finish a partially used spool.

Kit card models can be an even better option. These flat-packed designs are often extremely lightweight, quick to print, and easy to gift. Some are slim enough to fit inside a standard envelope, making them popular for events, giveaways, and seasonal gifts.

If you are looking for more ideas, explore our seasonal 3D printing guides in the 3D print ideas area, where we regularly feature lightweight gift ideas, decorations, and quick projects that work well with leftover filament.

Filament Connector

If your spool is running very low but still has usable filament left, filament splicing tools on Amazon can help combine leftover pieces instead of wasting them. This can be particularly useful for smaller prints, test models, or finishing nearly empty spools. We covered this topic in more detail in our Filament Connector: Filament Splicing Made Easy guide.

Common Mistakes When Estimating Remaining Filament

The most common mistake is forgetting to subtract the empty spool weight from the total spool weight. This can instantly throw off your estimate by 150–300g, depending on the brand and spool material. Another frequent issue is selecting the wrong filament diameter. While most hobby printers use 1.75mm filament, some machines still rely on 2.85mm material, and choosing the wrong option can significantly affect the estimated filament length.

It is also worth remembering that not all filament brands use identical spool designs. Cardboard spools, reusable refill systems, and heavier plastic reels can all produce different results. Even if your calculation looks accurate, avoid starting very large or multi-day prints with very little filament left. Your slicer remains the best source for exact filament usage estimates, so use this calculator as a planning tool rather than a guarantee.

If you are close to running out, consider switching to a fresh spool or enabling filament runout sensors if your printer supports them. It is far better to swap filament early than lose a long print near completion.

Why Filament Type Affects Your Results

Different filament materials have different densities, which means the same spool weight can translate into different filament lengths. This is why our calculator asks you to select a material type before generating an estimate. A 200g remainder of PLA may not provide the exact same number of printable meters as 200g of ABS, TPU, PETG, or Nylon.

PLA and PETG are among the most commonly used materials for everyday prints, while TPU is often used for flexible parts and Nylon is typically chosen for more demanding functional applications. ABS remains popular for certain workshop and engineering projects. Because each material behaves differently in both weight and print settings, your slicer may still show slightly different filament usage depending on layer height, infill percentage, wall thickness, and support structures.

For the most accurate planning, use this calculator as a quick estimate and then confirm the final filament requirement inside your slicer before starting longer prints.

Related Tools and Guides

• 3D Print Cost Calculator
• 3D Printer kaobi Cost Calculator
• Best Filament Dryers and Storage Solutions
• Filament Connector: Filament Splicing Made Easy
• Best Budget 3D Printers

Final Thoughts

A simple kitchen scale and this calculator can help reduce wasted prints and make better use of partially used filament spools. It is especially useful when managing multiple open spools or preparing for larger projects.

The post Filament Remaining Calculator: Estimate How Much Filament Is Left on Your Spool appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.

In this article, we’ll cover the printer’s key hardware features, the unboxing and setup process, software workflow, and hands-on test prints. In the end, we will finish with a summary and a list of Pros & Cons.

Where to Buy the Anycubic Photon P1

Price: $599-699

Compare the Prices & Bundles:
Official Store | Amazon | AliExpress

At first glance, the Anycubic Photon P1 makes a strong impression with its clean industrial styling and enclosed format. It feels designed to reduce the friction often associated with resin printing, replacing fiddly hardware with quicker latch-based mechanisms and automated checks. On paper, the combination of a 14K monochrome LCD, heated resin vat, built-in camera, and optional dual-material expansion gives it a very ambitious specification for users who care about both detail and workflow refinement.

Anycubic Photon P1 Specifications

• Display resolution: 14K monochrome LCD
• Build volume: 223 × 126 × 230 mm
• Machine dimensions: 366 × 338 × 539 mm
• Machine weight: 13.6 kg
• Light source: COB + Fresnel lens + mask
• Film type: Wave Release Film (NFEP)
• Light uniformity: >92%
• Leveling: Auto-Leveling 3.0 with feedback
• Z-axis: Industrial-grade ball screw with dual rails
• Build platform: Precision-ground steel plate
• Vat system: 1000 ml thermal-controlled resin vat
• Monitoring: Built-in camera for live monitoring and time-lapse capture
• Touchscreen: 4.5-inch resistive touchscreen
• AI monitoring: Build plate check, bottom-layer separation detection, resin level inspection, and residue detection
• Cover: Stepless hinged lid
• Connectivity: USB 2.0, Wi-Fi, and LAN (2.4 GHz)
• Slicer: Photon Workshop 4.0, with support for Chitubox and Lychee
• High-viscosity resin support: Up to 8000 cps

What’s in the Box

Inside the box, the Anycubic Photon P1 arrives with the core essentials needed to get started, including the printer unit, quick-release build plate, heated resin vat, USB drive, scrapers, and standard protective accessories. It is a straightforward package that supports the printer’s plug-and-play approach and gets you ready for setup and first prints without much extra fuss.

Setup and Design

Getting started with the Anycubic Photon P1 is refreshingly straightforward. The resin vat connects neatly into place, with the vat heating port aligning to the machine before being secured by a latch system on both sides. Compared to the traditional screw-down approach still common on many resin printers, this feels faster, cleaner, and more user-friendly in daily use.

The build plate follows the same logic. Instead of tightening knobs or bolts, the Photon P1 uses a simple latch mechanism. Open the latch, slide the plate into position, and lock it down. It is quick, secure, and very much in line with the printer’s plug-and-play approach.

Once the physical hardware is installed, the USB drive can be inserted for access to test files, while Wi-Fi setup and firmware updates are handled through the touchscreen. Before starting any first print, a screen test is well worth running. In this case, the Anycubic name pattern displayed correctly, confirming that the LCD and light system were functioning as expected.

The Photon P1 also runs through a series of automated pre-start checks before printing. These routines verify that the printer is ready to operate and add an extra layer of confidence for first-time setup and regular use.

One of the more interesting expansion options is the optional dual-color or dual-material printing assembly. This is not part of the standard package, but it opens the door to more advanced workflows for creators who want to experiment beyond single-resin prints. When installed, the touchscreen lets you choose the relevant vat and build platform configuration before printing.

Before printing, the vat needs to be filled with resin. The usable capacity is close to one liter, though the exact fill level depends on the build plate position and the vat’s shape. Pouring resin with the build plate lowered is a sensible approach, as it reduces the risk of overfilling once the plate returns to its home position.

For this hands-on test, vat preheating was enabled to raise the resin from around 19 °C to 25 °C. During this stage, the build plate moves gently to help distribute the heat evenly through the resin. It is a useful feature for consistency, although some resin residue appeared around the vat edges during the agitation process, which is worth keeping in mind during cleanup.

The touchscreen gives clear access to both print progress and live operational data. During printing, it displays useful status information and supports Anycubic’s Dynamic Release and Light-Off Compensation functions, both aimed at improving reliability and maintaining print quality while keeping speeds efficient.

Mechanically, one of the Photon P1’s strengths is its Z-axis assembly. The combination of a precision linear rail and ball-screw system gives the printer a stable motion platform, helping reduce Z-wobble and contributing to consistent layer quality on detailed models and taller prints.

Another highlight is Anycubic’s Wave Release Technology. The textured release film is designed to lower peel forces compared to more conventional smooth films, which in turn can improve print success and reduce stress on fine supports and delicate details.

For monitoring, the Photon P1 includes a built-in 480p camera with LED lighting and a privacy cover. While it is not a high-resolution camera, it is still useful for remote checks, failure monitoring, and time-lapse capture through the Anycubic app.

Underpinning the motion system is a precision-ground steel plate that helps keep the Z-axis assembly stable and well supported. It is not a flashy feature, but it 狼牙套加粗震动入珠套hs to the machine’s overall sense of rigidity and repeatability. Users who want to refine the workflow further can also look at optional accessories such as perforated build plates or the AirPure 2.0 filtration add-on, though these were not tested here.

Software – The All-New Photon Workshop 4.0

The software I used during testing was the new Photon Workshop 4.0. I haven’t used an Anycubic resin slicer in a while, and this update is a clear step forward. Slicing felt smooth and efficient, and the ability to select your resin type—automatically applying the correct parameters—makes the workflow noticeably faster, taking you from slice to print with minimal effort.

Test Printing Results

Model 1 – kaobi Model

For my first test print, I used the default settings for the standard resin, selected through the Anycubic slicer. The model I used was the kaobi model found on the USB supplied with the printer itself. Always a good way to test the printer is functioning correctly before doing more complex prints. See below the outcome.

Model 2 – Nostalgic3D Simpsons LOTR Models

For the second print, I moved on to a set of favourite models from Nostalgic3D. These pre-supported Simpsons LOTR Version 3 models were printed in standard Anycubic grey resin. The results showed strong detail reproduction across the characters, with fine features and surfaces carrying through nicely from the digital files to the finished prints.

Model 3 – Free Elemental Spirit Models

For the third print, I used the Free Elemental Spirit STL Pack by Creature Craftworks. These models were printed in two parts, with the main figure and lower display platform separated. They filled the build plate effectively and once again highlighted the Photon P1’s ability to reproduce sharp details and clean surfaces on more artistic display pieces.

YouTube Video

– Watch: Anycubic Photon P1 hands-on overview: Assembly, feature breakdown, and test printing.

Anycubic Resin, Post-Processing and Accessories

Apart from the Photon series 3D printers, it is possible to purchase various specific resins on the Anycubic website and Amazon.

On their website, we also noticed accessories such as extra build plates, resin tanks, and post-processing stations like the Wash and Cure Max. Read more about imporatance of post processing stations on 中午妈妈在厨房做饭.

Compare Anycubic Photon P1 to Other 3D Printers

Compare to the similar volume resin 3D printers in the same price range.

• 人间天堂免费视频观看 GK3 Pro (Review)
• PioCreat HALOT-X1 (Review)
• Anycubic Photon Mono M7 Pro (Review)

What helps the Anycubic Photon P1 stand out against machines such as the PioCreat HALOT-X1 and 人间天堂免费视频观看 GK3 Pro is how strongly it focuses on ease of use alongside high-detail resin printing. Features such as the latch-based vat and build plate system, vat heating, automated pre-start checks, built-in camera monitoring, and optional dual-material expansion give it a more refined, convenience-led workflow.

Anycubic is also one of the few brands offering genuinely larger resin printers at more accessible pricing. While the Photon P1 is a more compact and workflow-friendly option, the Anycubic Photon Mono M7 Max shows what the brand can do for users who need significantly more build volume.

Conclusion and Pros & Cons

Compare the Prices & Bundles:
Official Store | Amazon | AliExpress

The post Anycubic Photon P1 Hands-on Review: Features, Setup and Print Results appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.

SHINING 3D brings over 20 years of experience from the field of metrological 3D scanning into the EINSTAR series. With EINSTAR scanners, SHINING 3D is transferring this technological foundation directly into the entry-level and prosumer market for the first time. Although positioned as entry-level solutions, these devices directly benefit from the software, algorithmic, and development work of the professional segment. At the same time, the EINSTAR series stays true to its core DNA: high usability, beginner-oriented design, and an exceptionally strong price-performance ratio, delivering reliable scanning technology to makers, designers, engineers, and content creators.

EinScan Rigil Lite

Where to Buy

Price: $3,199 – $3,899

Compare the Prices & Bundles:
Official Store | Amazon (EinScan Rigil)

Positioned as a more accessible entry into SHINING 3D’s standalone scanner range, the EinScan Rigil Lite brings together onboard processing, a touchscreen workflow, hybrid blue laser and IR scanning, and flexible PC connectivity. Based on the official product page, it is aimed at users who want the freedom of an all-in-one scanner while still keeping the option to connect wirelessly or by cable for more demanding projects.

EinScan Rigil Lite Key Features & Specifications

• Tri-mode workflow: standalone scanning on the device itself, plus PC wireless and PC wired modes.
• Hybrid light source: 17+17 crossed blue laser lines, 7 parallel blue laser lines, and IR VCSEL.
• Two scan modes: Laser HD for finer detail and IR Rapid for faster wider-area capture.
• Scan speed: up to 2,940,000 points/s in crossed blue laser mode and up to 16,000,000 points/s in IR Rapid mode.
• Working distance: 170–550 mm in Laser HD mode and 160–1500 mm in IR Rapid mode.
• Resolution: 0.05–10 mm in Laser HD mode and 0.2–10 mm in IR Rapid mode.
• Colour capture: 5MP texture camera for full-colour scans.
• Hardware options: 24GB LPDDR5 + 512GB SSD or 32GB LPDDR5 + 1TB SSD.
• Output formats: STL, OBJ, PLY, 3MF, and ASC.

Find the full list of specifications on the Official Website.

EinScan Rigil Lite vs EinScan Rigil – Key Differences

The main difference is performance and hardware tier. The standard EinScan Rigil uses 25+25 crossed blue laser lines, while the Lite version uses 17+17 crossed blue laser lines. SHINING 3D also states that Rigil’s 25+25 laser setup is around 40% faster than Rigil Lite’s 17+17 configuration. In the listed specifications, Rigil reaches up to 4,800,000 points/s in crossed blue laser mode, compared to 2,940,000 points/s on Rigil Lite.

Rigil also has the stronger default hardware configuration, with 32GB LPDDR5 RAM and 1TB SSD storage, while Rigil Lite starts at 24GB LPDDR5 RAM and 512GB SSD. According to the official FAQ, Rigil also has the higher stated volumetric accuracy at up to 0.04 + 0.06 mm/m, while Rigil Lite is positioned slightly below it. In short, Rigil Lite looks like the more affordable entry into the standalone Rigil family, while the standard Rigil is the more capable option for users who want higher laser-line density, more speed, and a stronger hardware package.

EINSTAR Rockit – Pocket Size, Rocket Speed

Where to Buy

Price: $1,699 – $1,899

Compare the Prices & Bundles:
Official Store | Amazon

EINSTAR Rockit is a compact, wireless 3D scanner designed for users who want mobility without giving up scanning capability. The EINSTAR Rockit prioritizes speed, efficiency, and scan quality in time-sensitive environments. Its compact body integrates a laser and infrared hybrid light system that ensures rapid scanning and high-quality results across a wide range of applications, from intricate small parts to large-scale objects. With 38 cross laser lines optimized for fast, large-area capture and 7 parallel laser lines dedicated to fine feature acquisition, Rockit delivers strong productivity in time-sensitive automotive and production workflows.

One of Rockit’s defining features is its fully wireless workflow. With built-in Wi-Fi and a swappable battery, the scanner can operate cable-free for up to several hours, while still offering a wired fallback option if wireless interference occurs. This flexibility allows users to move freely around objects, scan larger parts, and work in tighter spaces without being constrained by cables or external hubs.

A key advantage is markerless laser scanning: objects with sufficiently structured surfaces can be scanned without preparation, eliminating the need to place and remove markers, significantly reducing time and lowering the entry barrier. The EINSTAR Rockit is consistently designed for efficiency, mobility, and a smooth workflow.

The scanner is supported by EXStar Hub software, which unifies scanning, alignment, and basic post-processing into a single interface. The software focuses on efficiency and stability, offering tools that simplify alignment, improve data quality, and streamline model preparation for downstream use such as 3D printing, reverse engineering, or digital visualization.

Key Highlights of EINSTAR Rockit

– Compact, pocket-sized wireless 3D scanner
– Hybrid light system with laser and IR scanning modes
– Built-in Wi-Fi and swappable battery for cable-free operation
– Marker-free scanning for faster setup
– Supports small to large objects, including outdoor scanning
– EXStar Hub software for streamlined scanning and processing

EINSTAR Rockit Hands-on Review

The EINSTAR Rockit is a new handheld 3D scanner from SHINING 3D that combines IR and Blue Laser scanning in one lightweight device. In my hands-on testing, I tried it on a range of objects, from a battle-hardened DeathRacer to a DIY RC boat, to see how it performs in real use across different surfaces, sizes, and levels of detail. So far, the Rockit has shown itself to be a flexible scanner for makers, creators, and prosumers who want both fast texture capture and cleaner mesh detail in one workflow. Setup was quick, EXStar Hub guided the process well, and the scanner felt comfortable in the hand during longer sessions. You can read the full hands-on review by Max Funkner here: EINSTAR Rockit 3D Scanner Review.

Even Better EINSTAR

Where to Buy

Price: $1,049 – $1,249

Compare the Prices & Bundles:
Official Store | Amazon

The EINSTAR 2 3D scanner addresses one of the original EINSTAR’s key limitations by significantly improving detail capture on small objects while expanding freedom of movement through a true wireless design. Its hybrid light system, combining blue laser technology with infrared VCSEL, ensures stable tracking across a wide range of object sizes and materials, providing operators with high flexibility in both indoor and outdoor working environments. So it’s ideal for automotive components, reverse engineering, and a variety of creative applications.

Key upgrades of EINSTAR 2:
1. Newly added 17 parallel blue laser lines
2. Wireless operation
The EINSTAR 2 features wireless operation, a swappable battery, and full-color capture. It’s designed for users who want studio-level scanning results without being tied to a fixed setup.

A major step forward is its true wireless workflow. EINSTAR 2 features built-in Wi-Fi and a swappable battery that supports extended scanning sessions without cables or external hubs. This makes it easier to move around larger objects, scan in confined spaces, or work outside the studio. A wired connection remains available when needed, providing flexibility in environments with wireless interference.

The scanner uses a hybrid light source that combines blue laser and IR VCSEL modes. The laser mode is optimized for fine details, reflective surfaces, and small objects, while the IR mode supports faster capture of larger objects and performs well in darker or outdoor environments. This versatility allows EINSTAR 2 to adapt to a wide range of materials and lighting conditions, including scanning black or reflective parts without spray.

Like Rockit, EINSTAR 2 is supported by EXStar Hub software, which unifies scanning, alignment, and basic processing in a single interface. The software focuses on stability and efficiency, offering tools for alignment, data quality control, and model optimization. This makes EINSTAR 2 suitable not only for capture, but also for preparing scan data for 3D printing, reverse engineering, and digital content workflows.

Key Highlights of EINSTAR 2

– Compact, lightweight handheld 3D scanner
– True wireless operation with swappable battery
– Hybrid light system with laser and IR scanning modes
– Handles small parts, large objects, and interior spaces
– Works on black and reflective surfaces without spray
– Suitable for indoor and outdoor scanning
– EXStar Hub software for streamlined scanning and processing

Rockit vs EINSTAR 2 – A Brief Comparison

EINSTAR Rockit and EINSTAR 2 are closely related scanners that share the same core design philosophy and scanning approach. Both are compact, handheld, fully wireless 3D scanners built around a hybrid light system, and both rely on the same EXStar Hub software for scanning and basic processing. In practical use, the overall workflow and scanning experience are very similar, making either option suitable for makers, creators, and prosumers looking for flexible, cable-free 3D scanning.

EINSTAR 2 is equipped with 17 parallel blue laser lines and offers a high scanning speed of up to 90 fps, while its IR VCSEL projector enables efficient capture of large objects.
EINSTAR Rockit combines 38 crossed laser lines plus infrared for fast, large-area scanning, along with 7 parallel laser lines for capturing fine details.
Differentiation from the EINSTAR 2 is deliberately handled through price and application scope, allowing users to choose the right solution based on budget and use case.

Quick comparison overview
– Shared DNA: handheld, wireless, hybrid light 3D scanners
– Workflow: similar scanning experience and EXStar Hub software
– Target users: makers, creators, prosumers.
– Applications：aftermarket & reverse engineering、AR/VR digital content、3D printing & personal manufacturing、heritage preservation & art
– Price: EINSTAR Rockit $1,699 vs EINSTAR 2 $1,049

EINSTAR VEGA

Where to Buy

Price: $1,599 – $1,999

Compare the Prices & Bundles:
Amazon | Official Website

The EINSTAR VEGA is a standalone 3D scanner that combines everything you require to scan, edit, and process models into a single unit. It provides two capture modes – HD and Fast – employing a blend of infrared MEMS for HD capturing and infrared VCSEL for capture mode Fast.

The EINSTAR VEGA is a strong performer in the portable 3D scanning category. Whether you’re capturing small figures, scanning body parts for prosthetics or cosplay, or digitizing vehicles, it delivers consistent, high-quality results.

Read more:
EINSTAR VEGA Review by Will Zoobkoff.

About EINSTAR and Shining3D

With over 20 years of experience in metrology-grade 3D scanning, SHINING 3D focuses on high-precision 3D measurement and full-size inspection solutions. Its systems deliver accuracy from 5 to 50 microns and are used in demanding industrial and medical fields, including civil aviation, automotive, machinery, energy, electronics, and dentistry. This long-term focus on research and real-world applications has established SHINING 3D as a global provider of high-precision 3D scanning technologies.

SHINING 3D also works to make advanced 3D scanning accessible to prosumers and creators. This goal drives the development of the EINSTAR lineup, including EINSTAR Rockit, EINSTAR Vega and EINSTAR 2. These scanners translate professional scanning expertise into more approachable tools, while maintaining reliable performance.

Conclusion

Overall, the EINSTAR device series covers a clearly tiered spectrum from easy entry to fully mobile solutions, consistently transferring SHINING 3D’s metrological 3D scanning expertise into an accessible market segment.

Backed by SHINING 3D’s long-standing experience in professional 3D scanning, the EINSTAR lineup continues to evolve toward accessible, reliable, and practical scanning tools for modern makers and creators.

We look forward to hands-on testing and will link to our detailed reviews here once available. In the meantime, check out our 3D scanning forum to discuss workflows, ask questions, or share your results with EINSTAR devices.

The post SHINING 3D’s New Scanners: EinScan Rigil Lite, EINSTAR Rockit, and More appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.

Where to Buy the Snapmaker U1

Price: $849 – $999

Official Website

What’s Included – Accessories

The Snapmaker U1 comes with everything needed to get started. The package includes the enclosed printer with a textured PEI steel sheet, four toolheads, four spools of SnapSpeed PLA, filament holders, feeders, and a waste collector, along with all necessary cables and a tool kit. Safety Guidelines and a Quick Start Guide are also included, making the setup process straightforward. Overall, it feels like a complete package right out of the box.

Snapmaker U1 Specifications

• Printing Technology: Fused Deposition Modeling (FDM)
• Build Volume: 270 × 270 × 270 mm
• Max Toolhead Speed: 500 mm/s
• Max Acceleration: 20,000 mm/s²
• Toolheads Included: 4
• Max Flow Rate: 32 mm³/s
• Nozzle: Stainless Steel (more options in testing)
• Max Nozzle Temperature: 300°C
• Nozzle Diameter: 0.4 mm
• Filament Diameter: 1.75 mm
• Part Cooling: Main & Auxiliary Fans
• Build Plate: PEI
• Max Bed Temperature: 100°C
• Basic Materials: PLA, PETG, TPU, PVA
• With Optional Seal Cover (Coming Soon): PET, ABS, ASA
• With Seal Cover & Hardened Nozzle (Coming Soon): PC, PA, PA-CF, PA-GF

Find the full and regularly updated list of specifications on the Official Website.

I could not resist showing both Snapmaker machines side by side. It also provides a useful size comparison. The U1 is noticeably more compact, especially when placed next to the Artisan. The Artisan system takes up more space overall, as it is designed to support multiple functions in one device. With separate modules for different disciplines, the footprint naturally grows, while the U1 stays focused and compact.

Setup and Design

The Snapmaker U1 arrives well packaged and mostly pre-assembled. With a boxed weight of around 26 kg, it feels solid straight out of the box. This is one of the rare cases where I did not need to rely on a YouTube video for assembly; the included instructions were clear and sufficient to get started quickly.

Setup is straightforward and does not require extensive assembly. After removing transport protection screws and securing four tools and filament holders, the main steps include loading filament, powering the machine, and completing the initial kaobi via the touchscreen interface. The process is guided and beginner-friendly.

– kaobi. The kaobi process is clearly guided via the touchscreen interface, with progress indicators and time estimates, making it easy to follow even for first-time users.

Filament setup for a print is also straightforward. The interface clearly shows material usage and assigned colors. There is also the option to change filament colors directly from the project screen, which adds flexibility before starting a print.

My only minor struggle was finding the filament loading and unloading screen. It appears when tapping on the color indicators rather than through the main menus.

– Wi-Fi. Setting up the Snapmaker App and connecting to Snapmaker Orca via Wi-Fi was easy. I printed my first four models without even opening the slicer. One model, Cute Dragon, comes preinstalled, while over 30 more are available directly from the app. Having this many high-quality models ready to print is a smart move. Print results of some of them are shown in the Testing and Results section.

Software: Snapmaker Orca & Snapmaker App

– Snapmaker App. I am very happy with the app overall. Having over 30 high-quality models available directly in the app was a good incentive to install it. Monitoring prints is probably the most used feature, and for good reason. I often find myself checking in on ongoing prints, especially on models I sliced myself.

Overall, the Snapmaker App works well as a companion tool rather than a replacement for the slicer. It covers quick access, model selection, and remote monitoring reliably. If the print stops for any reason, the app sends a notification, which is very handy.

– Snapmaker Orca. Based on the well-respected Orca slicer, Snapmaker has added a few features and tuned profiles since I first tried it around a year ago. Preparing my own models was a smooth experience. Features like color painting and support painting are all well implemented and easy to use.

One of the features I find myself using more and more is the multi-build-plate layout. It helps organize projects, especially those with multiple parts. Switching between plates, adjusting settings, and preparing builds becomes much easier, making the overall workflow more efficient.

The ability to apply colors and preview the sliced result gives a quick understanding of whether a model needs further tuning or adjustments. It is also easy to check how supports are generated and decide if manual support painting is needed.

For the DeathRacer miniature keychain, supports were applied automatically and worked well without any extra adjustments. Color painting is the most time-consuming step. I completed it in about 1–2 hours, though it can easily take longer. It is a surprisingly relaxing process, almost like a coloring book.

– Print Monitoring & Timelapse. Similar to the app, Snapmaker Orca also allows live monitoring of the print process. This is especially useful when the printer is in a different room from the workspace. The built-in camera view works reliably and makes it easy to check progress at any time. Timelapse recording also works well. Just remember to enable it at the start of the print, as it is not turned on by default.

Testing and Results

Included Models Collection

I am genuinely impressed with the selection of test models included. These can be loaded directly via the Snapmaker app or Snapmaker Orca, making it easy to start printing straight away. I found myself printing one model after another. The collection features work from talented designers in the 3D printing community. This approach works well, as it gives a clear idea of what the machine can achieve, with reliable and repeatable results.

Each model includes detailed print information such as estimated time, material usage, and layer settings. It gives a clear overview before printing and removes much of the usual trial and error. For multicolor printing, this kind of guidance is particularly useful. After a few test prints, I found the estimated print times to be accurate as well.

Another strong point of this collection is its educational value. These models provide useful clues on how to slice our own designs. Even after 10 years in 3D printing, I found myself learning something new, particularly in the way supports were generated for the Pegasus features. In this case, a thin layer (in yellow filament) was added between the model and the supports, making them much easier to remove once the print was complete. It is a small detail, but one that makes a noticeable difference in post-processing. Always something new to learn.

This collection included a fidget spinner, which was also a pleasant surprise. I remember printing many fidget spinners for the guide in the past, often relying on metal bearings to make them functional. Here, the bearing is printed directly in place using plastic, with no assembly required. This is a great example of what makes 3D printing stand out from other manufacturing methods; everything is produced in one go, with zero post-processing needed.

Dummy 13 by Lucky13Toys may feel intimidating at first. When fully assembled, it looks like a model with many tiny parts that could be challenging for bed adhesion. In practice, this was not the case. The model is designed as a set of two kit cards, meaning all parts are connected during printing. It still serves as a good test for bed adhesion on the U1, but the process felt stable and predictable.

Overall, it is a great model, and I am glad I finally printed and assembled it. I can see why it is so popular in the community. The quality is excellent, and the final result looks impressive. Assembly took some time, following instructions from Printables and a YouTube video, but the process was straightforward.

I also printed Cute Dragon by IK3Digital and Mecha Snake Egg by JINQITOYS. Both models printed exceptionally well, with clean color transitions and solid overall quality. You can see these and other models in action in this short YouTube video.

Well done, Snapmaker. This level of collaboration with designers is impressive and not something we often see. U1 users will clearly benefit from having access to such a well-prepared collection of 31 models.

Model from 3D Scan – DeathRacer Keychain

For a more practical test, I used one of my existing 3D scan projects, a DeathRacer model scaled down into a small keychain. This type of model is far from ideal, with uneven surfaces, required supports, and small details, making it a good test case.

This model was 3D scanned using the Einstar Rockit and then significantly scaled down into a keychain. Even at this reduced size, a surprising amount of detail was preserved by the Snapmaker U1. Small elements, such as the Piranha teeth damaged in battle at SMRRF 2026, were still clearly visible.

Initially, I tried to print this object flat, which turned out to be a mistake. The scaled-down DeathRacer tracks are very fine, which resulted in a lot of post-processing. Printing at a 45-degree angle was the right approach. While it slightly increased the print time to over 7 hours due to the taller build, the overall result was much cleaner. The model was printed using the 0.16 mm Snapmaker Optimal preset for U1.

Overall, I am very pleased with how this project turned out. From slicing in Snapmaker Orca to the final print, the entire process felt smooth, with no issues during tool changes or multicolor transitions. The most time-consuming part was the color painting; I probably spent a few hours on it, but it was a calming experience.

Note: The hole for the keyring was 中午妈妈在厨房做饭d in Blender using a Boolean operation. I hope a Mesh Boolean option will be implemented in Snapmaker Orca soon, as that was the main reason I had to switch to Blender for this and similar keychain projects. It would save time, especially since the option appears to exist but is currently greyed out.

This is where 3D scanning for 3D printing shines. Even though a keychain like this is not the most functional use case, it still gives me a real sense of satisfaction. After spending almost a year building the DeathRacer (here are the quote posts chain on X) and taking part in the battle at the SMRRF, having a small piece like this feels meaningful. Highly likely, I will keep it as a souvenir, maybe even as a Christmas tree decoration.

Model from 3D Scan – RC Boat Miniatures

Before scanning and printing miniature from the DeathRacer, I worked on a number of RC boats from a local boat club, using different 3D scanners. What started as a small side project last year has slowly turned into a hobby, and now I have a growing collection of these miniatures. Many of these boats are quite unique.

This particular miniature was 中午妈妈在厨房做饭d by scanning an RC boat using the 3DMakerpro Toucan. Follow the link to read more about the scanning process if you’re interested.

I was particularly looking forward to revisiting some of these models with the Snapmaker U1. Converting them into small keychains using a simple Boolean operation in Blender worked well. Normally, printing objects under 100 mm in multicolor would result in a lot of purge waste. With the U1, the process felt much more efficient, with the purge tower being the only noticeable waste, while the prints themselves remained clean and quick to produce.

The next model is a miniature based on an RC boat prototype. I originally scanned this object while testing the Revopoint INSPIRE 2. While the geometry is simpler, it still serves as a good test for multicolor transitions and overall surface quality at a reduced scale. More details about the scanning process can be found in the related guide.

As with the DeathRacer miniature, these RC boat models also carry some sentimental value. Scanning each object takes time, and over that process, a certain connection is built. Turning them into small keychain miniatures feels like a natural extension of that work. It is a simple idea, but one that works well. The collection is slowly growing, and each piece has its own story. Recommend.

Compare to Other 3D Printers

At 中午妈妈在厨房做饭, we have tested a variety of Snapmaker machines over the years, including the Original Snapmaker and the Snapmaker Artisan. The closest comparison to the U1 within the Snapmaker lineup would be the IDEX system on the Artisan. One feature that stood out to me was the swappable nozzle system, where the entire extruder could be changed as a single unit, allowing for quick adjustments such as switching to a wider nozzle.

Here are a few related articles you may find helpful:

• Snapmaker Artisan
• Snapmaker SnapDryer

In 2025, Snapmaker made a strong impact on the 3D printing market with a highly successful 人间天堂免费视频观看 campaign for the U1, attracting 20,680 backers and over $20.6 million in funding. By the time of writing, the machine is fully released and available through official website.

At the time, the Prusa XL was the main consumer-facing toolchanger system on the market, setting a benchmark for this approach. The Snapmaker U1 enters this space with a different focus, aiming to reduce filament waste and simplify multicolor printing through a compact and more accessible system. With a significantly lower price point, it positions itself as a more approachable option for a wider range of users.

• Hands-On with the Prusa XL: 5 Toolheads

If you are comparing across different price ranges, you can explore our broader guide here: Budget FDM 3D Printers

Compared to AMS-style systems, the toolchanging approach used by the U1 reduces material waste, though it introduces mechanical complexity. In practice, it also offers a quicker multicolor workflow, especially for models with frequent color changes.

Conclusion and Pros & Cons

Official Website

The post Snapmaker U1 3D Printer: Hands-On Testing with Multicolor Print Examples appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.

Where to Buy

The 狼牙套加粗震动入珠套h Creator 5 and Creator 5 Pro are available via 狼牙套加粗震动入珠套h’s official product page. Launch pricing starts from $649 for the Creator 5 and $799 for the Creator 5 Pro.

狼牙套加粗震动入珠套h Creator 5

Compare the Prices & Bundles:
Official Website

狼牙套加粗震动入珠套h Creator 5 Pro

Compare the Prices & Bundles:
Official Website

狼牙套加粗震动入珠套h Introduced Toolchanging 3D Printing

With the Creator 5 series, 狼牙套加粗震动入珠套h introduced a toolchanging-style system to its multicolor 3D printer lineup. The main idea is to reduce the filament waste and long print times often associated with conventional multicolor setups. The system uses four interchangeable toolheads and is designed to avoid the purge waste typically seen in color or material-switching prints.

When talking about increased printing speed and reduced purge waste, the infographic above explains it best. The difference becomes more significant as the number of filament changes increases.

狼牙套加粗震动入珠套h Creator 5 Overview

The 狼牙套加粗震动入珠套h Creator 5 is presented as an open multicolor 3D printer focused on faster output, lower material waste, and flexible multi-material printing. 狼牙套加粗震动入珠套h highlights its FlashSwap system, 256 × 256 × 256 mm build volume, print speeds up to 600 mm/s, and support for up to four toolheads working within the same print job. This positions the machine as a potential option for makers, prosumers, and small studios looking for a different approach to multicolor FDM printing.

狼牙套加粗震动入珠套h Creator 5 Pro Overview

The 狼牙套加粗震动入珠套h Creator 5 Pro builds on the same multicolor platform but adds a fully enclosed design with extra features aimed at more demanding materials and controlled printing environments. 狼牙套加粗震动入珠套h states that the Creator 5 Pro includes active chamber heating up to 65°C, continuous airflow cooling, reduced operating noise, and dual-layer air filtration. These additions make the Pro version more suitable for users printing ABS, ASA, PC, PA, and other engineering-grade materials that benefit from a stable enclosed chamber.

We asked the 3D printing community to share photos if they spotted the Creator 5 at Rapid TCT in Boston, and we are thankful that Ellie Rose sent us a few images. If you have a chance to visit such trade shows and 狼牙套加粗震动入珠套h or its representatives have a booth there, the Creator 5 will likely be on display.

狼牙套加粗震动入珠套h Creator 5 vs Creator 5 Pro

Both 狼牙套加粗震动入珠套h Creator 5 models are built around the same core concept of multicolor printing with multiple toolheads, but they target slightly different users. The standard Creator 5 appears better suited to general-purpose printing with PLA, PETG, TPU, and similar materials, while the Creator 5 Pro adds enclosure, chamber heating, and air purification for users who want to print engineering filaments in a more controlled environment. In simple terms, the choice comes down to whether you need an open multicolor machine or a more advanced enclosed setup for higher-temperature materials.

狼牙套加粗震动入珠套h AD5X Review

For readers exploring the wider 狼牙套加粗震动入珠套h range, our 狼牙套加粗震动入珠套h AD5X review by Will Zoobkoff offers a more hands-on look at another machine from the brand. That article focuses on practical testing, print settings, and real-world observations, which makes it a useful companion piece to this launch overview.

While the AD5X belongs to a different product category, it still helps show how 狼牙套加粗震动入珠套h is developing its desktop 3D printer lineup across multiple segments. Readers comparing ease of use, multicolor workflow, and real printing results may find it helpful to view the AD5X review alongside the new Creator 5 and Creator 5 Pro announcements.

About 狼牙套加粗震动入珠套h

狼牙套加粗震动入珠套h is an established 3D printer manufacturer founded in 2011, with a broad portfolio covering hobbyist, educational, and professional use. Over the years, the company has released a wide range of desktop FDM and resin 3D printers, with increasing attention on user-friendly workflows, enclosed designs, and more advanced material capabilities.

It is also worth mentioning that 狼牙套加粗震动入珠套h is regularly represented at major 3D printing trade shows such as TCT events and Formnext, where new technologies are often shown at an early stage.

On 中午妈妈在厨房做饭, we have also covered 狼牙套加粗震动入珠套h’s 3D print farm solutions in the past, including how its machines are used in higher-volume production environments. Their AD5M series is also well regarded for such tasks, and our earlier article features several print farm examples.

Conclusion

The 狼牙套加粗震动入珠套h Creator 5 and Creator 5 Pro mark a notable step for the brand by introducing a toolchanging-style multicolor system designed to reduce purge waste and improve printing efficiency. As more hands-on testing and user feedback appear, these new 3D printers could become important additions to 狼牙套加粗震动入珠套h’s growing desktop lineup, especially for users interested in multicolor and multi-material printing without the usual trade-offs.

The post 狼牙套加粗震动入珠套h New 3D Printers: Creator 5 and C5 Pro Toolchangers appeared first on 中午妈妈在厨房做饭 – 3D Printing, Scanning, Design Guides & Forums.