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3D Printing

2026 Professional 3D Printer Buyers Guide

2026 3D Printer Buyers Guide | Dynamism

With over 20 years of experience in hardware , Dynamism helps engineers, labs, and manufacturers select the right additive technology for their application not just buy a printer. Use this 3D printer buyers guide to compare the three most common professional processes: material extrusion, vat photopolymerization, and powder bed fusion.


Choosing the wrong process is the most common and costly mistake in additive manufacturing. This 3D printer buyers guide breaks down each technology’s fundamental tradeoffs, cost, material capability, surface finish, and throughput, so you can make the right call before you buy.

Material Extrusion

A strand of thermoplastic filament is drawn through a heated nozzle. A motion system guides the nozzle to deposit layers one at a time. One of the most economical and material-diverse processes in additive manufacturing.

Best For: Functional prototypes, tooling, engineering-grade thermoplastics, education, high-volume throughput

Typical surface finish: Moderate layer lines visible, can be post-processed

Vat Photopolymerization

More commonly referred to as SLA or DLP. A build plate is lowered into a vat of photocurable resin where layers are cured from a light source below. Known for sharp edges, fine details, tight tolerances, and minimal visible layer lines.

Best for: Medical devices, dental, high-detail prototyping, casting patterns, biocompatible parts

Typical surface finish: Excellent, near-isotropic properties, smooth surfaces

Powder Bed Fusion

Layers of powdered material are deposited fractions of a millimeter at a time. The material is then melted and fused using a heat source — typically a laser or electron beam. No support structures required; excellent for complex geometries.

Best for: Low-volume production, complex geometries, nylon and PA materials, functional end-use parts, metal

Typical surface finish: Good, slightly grainy, highly consistent mechanical properties


MakerBot — Education & Classroom 3D Printers

MakerBot Sketch Sprint 3D Printer

MakerBot Sketch Sprint

Best for Classrooms

Print Volume: 220 × 220 × 220 mm³

MakerBot Sketch 3D Printer

Makerbot Sketch

Best for K-12 Classrooms

Print Volume: 150 × 150 × 150 mm³

UltiMaker — Professional & Industrial 3D Printers

Ultimaker Factor 4 Plus 3D Printer

UltiMaker Factor 4 Plus

Industrial-grade hardware optimized for high-speed production

Print Volume: 330 × 240 × 300 mm³

Ultimaker Method XL 3D Printer

UltiMaker Method XL

Best for Industrial Applications

Print Volume: 305 × 305 × 320 mm³

UltiMaker S6 Pro Bundle 3D Printer

UltiMaker S6 Pro Bundle

Best for Higher Education & Engineering-Grade Materials

Print Volume: 330 × 240 × 300 mm³

Available with glass build plate or flexible build plate.

UltiMaker S8 Pro Bundle 3D Printer

UltiMaker S8 Pro Bundle

Best for Industrial Prototyping & Tooling

Print Volume: 330 × 240 × 300 mm³

Bambu Lab — Professional & Enterprise 3D Printers

Bambu Lab P2S Combo 3D Printer

Bambu Lab P2S Combo

Best for Professional & High-Volume Users

Print Volume:

256 × 256 × 256 mm³

Bambu Lab H2D Pro 3D Printer

Bambu Lab H2D Pro

Best for Secure & Professional Environments

Print Volume:

(Single) 256 × 256 × 256 mm³  (Dual) 300 × 320 × 325 mm³

Bambu Lab H2D Combo 3D Printer

Bambu Lab H2D Combo

Best for Multi-Material 3D Printing
Print Volume:

(Single) 325 × 320 × 325 mm³

(Dual) 300 × 320 × 325 mm³

Bambu Lab H2D Laser Combo 3D Printer

Bambu Lab H2D Laser Combo 10/40W

Best for Multi-Functional Creations

Print Volume: 325 × 320 × 325 mm³

Laser cutter & engraver (10W and 40W options)

Bambu Lab H2S Combo 3D Printer

Bambu Lab H2S Combo

Best for Large Format + Engineering-Grade Materials

Print Volume: 340 × 320 × 340 mm³

Bambu Lab H2S Laser Combo 3D Printer

Bambu Lab H2S Laser Combo

Best for Large Format + Laser Cutting & Engraving

Print Volume: 340 × 320 × 340 mm³

Bambu Lab H2C 3D Printer

Bambu Lab H2C

Best for Multi-Color & Multi-Material (Minimal Waste)

Print Volume: 300 × 320 × 325 mm³

Bambu Lab H2C Laser Combo 3D Printer

Bambu Lab H2C Laser Combo 10/40W

Best for Advanced Multi-Material + Laser

Print Volume: 300 × 320 × 325 mm³


Large Format Material Extrusion 3D Printers (FFF/FDM)

BigRep — Industrial Large Format 3D Printers

BigRep ONE.5X 3D Printer

BigRep ONE.5X

Best for Engineering-Grade, High-Resolution Applications

Print Volume: 1005 x 1005 x 1005 mm³

BigRep VIIO250 3D Printer

BigRep VIIO250

Best for Automated, High-Temp Production Workflows

Print Volume: 1000 × 500 × 500 mm³

BigRep ALTRA 280 3D Printer

BigRep ALTRA 280

Best for high-temperature engineering polymers and aerospace/defense-grade production parts.

Print Volume: 500 × 700 × 800 mm³

Modix — Budget Extra Large Format 3D Printers

Modix BIG-60 V4 3D Printer

Modix BIG-60 V4

Best for large-format prototyping and end-use parts on a budget

Print Volume: 600 × 600 × 660 mm³

Modix BIG-120X V4 3D Printer

Modix BIG-120X V4

Best for wide-format for automotive/large flat parts

Print Volume: 1200 × 600 × 640 mm³

Modix BIG-120Z V4 3D Printer

Modix BIG-120Z V4

Best for large vertical parts

Print Volume: 600 × 600 × 1200 mm³


Vat Photopolymerization 3D Printers (SLA / DLP)

Formlabs — Professional Resin 3D Printers

Formlabs Form 4L SLA 3D Printer, Formlabs Cure, & Formlabs Wash

Formlabs Form 4L Complete Package

Best for Large Prints

Print Volume: 353 × 196 × 350 mm³

Formlabs Form 4BL SLA 3D Printer, Resin Tank and Resin Mixer

Formlabs Form 4BL Basic Package

Best for Large Format Rapid Medical Device Design

Print Volume: 353 × 196 × 350 mm³

Formlabs Form 4B SLA 3D Printer and Form Wash (2nd Gen.)
Form Cure (2nd Gen.)

Formlabs Form 4B Complete Package

Best for Rapid Medical Device Design

Print Volume: 200 × 125 × 210 mm³


SLA Post Processing Accessories

Formlabs — Wash & Cure Post Processing Accessories

Formlabs Form Cure V2 Unit for SLA post processing

Formlabs Form Cure V2

Best for Fast Curing

Print Volume: 200 × 125 × 205 mm³

Formlabs Form CureL V2 Unit for SLA post processing

Formlabs Form Cure L V2

Best for Fast Curing Large Prints

Print Volume: 423 × 423 × 365 mm³

Formlabs Form Wash Unit for SLA post processing

Formlabs Form Wash V2

Best for Automated Precise Uncured Resin Removal

Print Volume: 315 × 293 × 405 mm³

Formlabs Form WashL V2  Unit for SLA post processing

Formlabs Form Wash L V2

Best for Automated Resin Removal on Large Prints

Print Volume: 780 × 460 × 670 mm³


Powder Bed Fusion 3D Printers (SLS / Metal)

Formlabs — Benchtop SLS 3D Printers

Formlabs SLS Bundle wtih Fuse 1 +30 3D printer and sift unit

Formlabs Fuse 1+ 30W Printer Package

Best Benchtop SLS Solution

Print Volume: 330 × 240 × 300 mm³

Formlabs SLS Bundle wtih Fuse X1 SLS 3D Printer

Formlabs Fuse X1

Best Large Format SLS Solution

Print Volume: 330 × 330 × 565 mm³


SLS Post Processing Acessories

Formlabs — SLS Post Processing Accessories

Formlabs SLS Fuse Blast Unit

Formlabs Fuse Blast

Function: Fully automated cleaning and polishing for SLS parts

Formlabs Fuse Depowdering Kit

Formlabs Fuse Depowdering Kit

Function: All-in-one manual post processing solution

Formlabs Fuse Sift Unit

Formlabs Fuse Sift X1

Function: Powder recovery station that keeps your SLS workflow clean and efficient. A sealed glovebox, automated powder transport, and compressed air system handle post-print processing without the mess .

AMT PostPro Vapor Smoother & SLS Post Processing Accessories

Formlabs Fuse 1 +30 SLS 3D printer, Fuse blast and Sift Unit, and AMTPost Pro vapor blast unit

AMT PostPro SFX SLS Workflow Bundle

Best for Complete SLS 3D Printing & Post Processing

Print Volume: 190 × 320 × 190 mm³

AMT PostPro SFX Complete Bundle

Best for Small-Scale Production & R&D (Full Kit)

Print Volume: 190 × 320 × 190 mm³

3D Scanners

Shining 3D Handheld 3D Scanners

Einstar 2

Entry level handheld scanner

EinScan Rigil

Hybrid Scanning

Matter and Form Desktop 3D Scanner

Matter and Form THREE 3D Scanner

Best for Education


Laser Engravers & Cutters

xTool Laser Engraver & Cutting Units

xTool F2 Ultra Deluxe Bundle

Best for Micro Metal Engraving

Working Area: 220 × 220 mm

xTool P3 Laser Engraver

Best for Businesses, Schools & Professional-Grade Results

Working Area: 915 × 458 mm

Frequently Asked Questions

Questions Dynamism’s application engineers hear most often when helping buyers find the right technology. This 3D printer buyers guide is updated for 2026.

Where do 3D printing models come from?

Almost all CAD modeling programs export an .STL file, which can then be read and 3D printed using a slicing program. CAD modeling programs are not traditionally included in a 3D printer purchase, but free options exist for beginners. Dynamism also offers a range of 3D scanners to digitize physical objects. There are many online repositories with hundreds of thousands of ready-to-print models available for download.

What is a slicing program?

A slicing program tells the 3D printer what to do. It takes the model file and slices it into hundreds of layers, each with specific instructions (toolpath) for the machine to produce that layer. Most desktop 3D printers include a free slicing program.

How fast are 3D printers?

Print speed varies significantly by technology, material, part quality, part size, and infill amount. Small models can take hours; medium to large designs can take days. Contact Dynamism Sales for specific print time estimates on your model — email sales@dynamism.com or call 1-800-711-6277.

What is DMOD — Dynamism Manufacturing On Demand?

DMOD is Dynamism’s in-house on-demand 3D printing service. Send a file, get professional parts — without owning hardware. Dynamism engineers handle the prototyping process with your needs and confidentiality in mind. DMOD is ideal for prototyping, bridge production, benchmarking new materials, and scaling to full production.

What 3D printing training does Dynamism offer?

Dynamism offers 1-on-1 Online Training covering FFF/FDM, SLA, and slicing are available at both basic and advanced levels. Training is designed to get your team operating confidently and is available on-site or remote. Sessions can be tailored to your specific printer and workflow.

Why choose Dynamism over buying direct from a manufacturer?

A printer manufacturer can only sell you their own machine, regardless of whether it’s the right process for your part. Dynamism selects from a full portfolio of technologies and brands, so the recommendation is driven by your application, not a single vendor’s inventory. Our engineers install on-site, train your team, and return for repairs and check-ins. One partner across FFF, resin, metal, and large-format, as your needs evolve, you scale with someone who already knows your operation.



Download the full 2026 Professional 3D Printer Buyers Guide as a free PDF.

Categories
3D Printing

Bambu Lab vs Prusa: Which 3D Printer is Right for You in 2026?

Choosing between Bambu Lab vs Prusa has become the defining decision for anyone entering the desktop 3D printing market in 2026.

Two desktop 3D printers side by side — an enclosed multi-material system (left) and an open-frame multi-toolhead printer (right).

Bambu Lab vs Prusa: The Two Titans of Desktop 3D Printing

Choosing between Bambu Lab vs Prusa has become the defining decision for anyone entering the desktop 3D printing market in 2026.

Both manufacturers have earned devoted followings, but for distinctly different reasons. Prusa built its reputation on open-source principles, meticulous engineering, and bulletproof reliability over more than a decade. Bambu Lab disrupted the industry in 2022 with aggressive pricing, impressive speeds, and a closed ecosystem that prioritizes user experience over tinkering and in 2026, they’ve continued to push the value story even further.

For educators building maker labs, small business owners scaling production, and prosumers demanding consistent results, understanding these differences matters. The right choice depends less on which printer is “better” and more on which philosophy aligns with your workflow, technical comfort level, and long-term goals.

This Bambu Lab vs Prusa comparison examines both brands across the metrics that matter most: print quality, speed, reliability, ease of use, material compatibility, and overall value. We focus primarily on the Bambu Lab P1S and X2D against the Prusa MK4S and XL, the sweet spot for serious users who need production-ready performance without industrial-grade budgets.

Quick Comparison: Bambu Lab vs Prusa at a Glance

FeatureBambu Lab P1SBambu Lab X2DPrusa MK4Prusa XL
Price$549$649 / $899 combo$999 assembled / $709 kit$2,299 / $4,499 assebled 5 tool head
Print Speed250-300mm/s250-300mm/sUp to 200mm/s100-150mm/s
Build Volume256×256×256mm256×256×256mm250×210×220mm360×360×360mm
EnclosureYesYes, actively heated to 65°COptionalOptional
Multi-MaterialAMS (up to 4)AMS (up to 25 colors)MMU3 (up to 5)Up to 5 toolheads
Open FilamentPartialPartialYesYes
Open SourceNoNoYesYes
Best ForProsumers, businessAdvanced, dual nozzleEducators, tinkerersLarge format, education

Print Quality and Speed: Different Approaches to Excellence

When it comes to the Bambu Lab vs Prusa decision, the right choice depends on your specific workflow and priorities. Both manufacturers deliver exceptional print quality, but they achieve it through contrasting engineering philosophies.

Prusa’s approach emphasizes mechanical precision and proven technology. The MK4S the 2025 evolution of their flagship MK4 features a refined 360° cooling system, a high-flow Nextruder, and numerous firmware optimizations that deliver faster speeds without sacrificing accuracy. Independent tests gave the MK4S a perfect 30/30 score for print quality from TechRadar, and CNET named it “The Best Printer for Quality.” Prints emerge with smooth surfaces, accurate dimensions, and predictable results across various geometries.

Bambu Lab prioritizes speed without sacrificing quality. The P1S and X2D utilize CoreXY motion systems, sophisticated vibration compensation, and AI-powered flow calibration to achieve print speeds of 250–300mm/s routinely. A benchy that takes over 40 minutes on the MK4S finishes in under 20 minutes on the P1S with comparable surface quality. The difference becomes stark for production runs or classroom environments where throughput matters.

The X2D takes this further with a dual nozzle system, a direct drive main nozzle for precision and a Bowden auxiliary nozzle for support and multi-material work. Combined with 31 sensors, a toolhead camera for AI print monitoring, and an actively heated chamber reaching 65°C, the X2D is Bambu’s most capable machine to date.

For absolute detail on miniatures or small-scale prototypes, both perform admirably at slower speeds. Prusa’s open-source slicer gives advanced users granular control over acceleration and jerk settings. Bambu’s proprietary Bambu Studio applies machine learning to optimize paths automatically, brilliant for most scenarios but offering less manual override for edge cases.

Reliability and Maintenance: Open vs. Closed Ecosystems

Reliability means different things depending on your technical capabilities and support infrastructure.

Prusa has earned near-legendary status for reliability. The MK4S builds on years of field-tested engineering with fully documented components, transparent firmware, and a massive community knowledge base. Prusa ships around 10,000 printers per month and reports a claim rate of less than 1%. When something breaks and everything eventually breaks replacement parts are readily available, often from third-party suppliers. For schools and small businesses without dedicated technical staff, knowing you can diagnose and fix issues with community documentation provides immense peace of mind.

Bambu Lab printers are engineered for reliability through tight integration rather than user serviceability. The closed ecosystem means fewer variables, and quality control has proven solid across multiple product generations. The X2D adds 31 sensors including filament runout, grinding, and tangle detection, proactive monitoring that catches issues before they become failed prints. However, when issues do arise, you are dependent on Bambu’s support infrastructure and proprietary parts. For institutions requiring guaranteed uptime, this is a legitimate consideration.

Both manufacturers offer multi-material systems Prusa’s MMU3 (up to 5 colors) and Bambu’s AMS. Bambu’s AMS implementation on the X2D supports up to 25 colors with faster purges and better waste management than the previous generation. The Prusa XL takes a different approach entirely with true independent toolheads up to 5 allowing near-zero-waste multi-material printing without purge towers.

Materials, Ecosystem, and Long-Term Value

Material compatibility reveals each manufacturer’s strategic priorities.

Prusa maintains an open-filament philosophy. The MK4S handles PLA, PETG, ASA, PC, flex, and more with published profiles. You can use any filament from any manufacturer without restriction, which significantly reduces operating costs and eliminates vendor lock-in. Prusa’s open-source PrusaSlicer includes over 180 tested material profiles.

Bambu Lab technically supports third-party filaments, but the ecosystem strongly encourages Bambu-branded materials. RFID tags auto-configure settings, and Bambu Studio’s profiles are optimized for their filaments. For high-temperature engineering polymers, the X2D’s actively heated chamber reaching 65°C and support for PC, nylon, and carbon-fiber composites through the main nozzle provide genuine advantages.

The pricing story in 2026 has shifted dramatically in Bambu’s favor. The Prusa MK4S assembled now retails at $925 while the Bambu P1S starts at $549 and the flagship X2D at $649. Even the Prusa XL, which received a 2026 price drop, sits at $2,299 for the single toolhead setup. Bambu is delivering comparable or faster print quality at significantly lower entry points. For buyers weighing value per dollar, the math has changed.

However, total cost of ownership tells a more complete story. Prusa’s open filament ecosystem typically yields lower per-kilogram material costs. Bambu’s faster print speeds reduce electricity costs and increase throughput value. For educational institutions, Prusa’s open-source curriculum resources and established educator community provide significant intangible value. For small businesses focused on production efficiency, Bambu’s combination of speed and price is increasingly difficult to argue against.

Which Printer Matches Your Needs?

Product Shot of the Prusa XL with 5 tool heads
The Original Prusa XL with five independent toolheads.

Choose Prusa if you:

  • Value open-source principles and long-term repairability
  • Need comprehensive community support and documentation
  • Prefer vendor-neutral filament sourcing
  • Operate in educational settings emphasizing learning over production
  • Need zero-waste multi-material printing (Prusa XL)
  • Have technical users comfortable with maintenance and troubleshooting
Bambu Lab X2D enclosed 3D printer with touchscreen
The Bambu Lab X2D — dual nozzle, actively heated chamber, and AMS support for up to 25 colors starting at $649.

Choose Bambu Lab if you:

  • Prioritize print speed and production throughput
  • Want minimal setup and excellent out-of-box experience
  • Need multi-color printing up to 25 colors (X2D with AMS)
  • Need dual nozzle capability for complex multi-material work (X2D)
  • Want reliable performance with limited technical expertise on staff
  • Are working within a tighter budget, Bambu offers more speed per dollar in 2026

Frequently Asked Questions

Is Bambu Lab better than Prusa?

Neither is objectively better, they serve different users. Bambu Lab is better for speed, ease of use, and production throughput. Prusa is better for repairability, open-source flexibility, and educational environments. The right choice depends entirely on your priorities.

Can Bambu Lab printers use third-party filament?

Yes, but with limitations. Bambu Lab printers technically support third-party filaments but the ecosystem is optimized for Bambu-branded materials with RFID auto-configuration. Custom profiles can be created but require additional setup and experimentation.

Which is more reliable,  Bambu Lab or Prusa?

Both are reliable but in different ways. Prusa has a longer track record, fully documented components, and superior community support for self-repair. Bambu Lab has fewer maintenance issues out of the box but is more dependent on manufacturer support when problems arise.

Is Prusa good for beginners?

Prusa is beginner-friendly with excellent documentation and community support, though it requires more hands-on involvement than Bambu Lab. For users who want a true plug-and-play experience, Bambu Lab offers a more streamlined out-of-box setup.

Which 3D printer is best for schools and education?

Prusa is generally preferred for educational settings due to its open-source curriculum resources, repairability, vendor-neutral filament compatibility, and strong community. However, Bambu Lab’s ease of use and significantly lower price point in 2026 make it increasingly popular in classrooms focused on design output and throughput rather than printer maintenance and tinkering. Prusa is beginner-friendly with excellent documentation and community support, though it requires more hands-on involvement than Bambu Lab. For users who want a true plug-and-play experience, Bambu Lab offers a more streamlined out-of-box setup.

What is the Bambu Lab X2D?

The Bambu Lab X2D is Bambu’s current flagship desktop 3D printer, featuring a dual nozzle system (direct drive main + Bowden auxiliary), an actively heated chamber up to 65°C, 31 sensors including AI print monitoring via a toolhead camera, and AMS support for up to 25 colors. It starts at $649 for the printer or $899 as a combo with the AMS.

READY TO DECIDE?

Dynamism carries the complete range of Bambu Lab and Prusa 3D printers, filaments, and accessories. Our team has hands-on experience with both ecosystems and can help match the right platform to your workflow, budget, and use case.

Shop Bambu Lab
Shop Prusa
Talk to a specialist: sales@dynamism.com | 1-800-711-6277

Categories
3D Printing Aerospace Education Engineering Healthcare Manufacturing

Tullomer Filament: Breakthrough Findings on Low-Outgassing for Ultra-High Vacuum Applications

Tullomer: The Ideal Low-Outgassing Filament for UHV Applications

With its remarkably low outgassing properties, Tullomer outperforms standard materials like PEEK, making it ideal for UHV applications. Extensive testing, including residual gas analysis, has proven its reliability in maintaining pristine vacuum conditions, making it a top choice for industries like aerospace and semiconductor manufacturing.

When designing components for ultra-high vacuum (UHV) applications, the choice of materials is crucial. Metals and ceramics have traditionally been favored due to their low outgassing properties, but recent advances in 3D printing are bringing plastics into the conversation. Evaluating these 3D-printed materials, particularly in terms of outgassing and residual gas analysis (RGA), is essential to ensuring they can maintain the integrity of a UHV environment.

Outgassing Challenges in UHV Applications

Outgassing refers to releasing trapped gasses from a material when exposed to vacuum conditions. 3D-printed plastics often present challenges due to the nature of polymer absorption and their manufacturing process, which can leave microscopic voids and unreacted compounds. For 3D-printed plastics to be viable for UHV applications, their outgassing properties must be minimized. Common strategies for reducing outgassing include baking components in a vacuum oven and applying specialized surface coatings.

Residual Gas Analysis and Testing Results

Residual Gas Analysis is a critical process used to evaluate the suitability of materials for UHV applications. By measuring the gases released from a material in a vacuum, RGA allows engineers to detect contaminants and the material’s overall outgassing characteristics.  In tests, Tullomer filament has shown a significantly lower emission of residual gases, making it a top choice for environments where even trace contaminants can cause issues.

Tullomer’s Superior Outgassing Performance

Tullomer filament has been scientifically proven to significantly outperform other materials in minimizing outgassing. In a recent study conducted by Lund University, Tullomer demonstrated an outgassing rate lower than industry-standard PEEK after a standard bakeout process. The results were so impressive that Tullomer reached the system detection limit post-bakeout, making it an ideal choice for engineers and researchers in UHV applications. These groundbreaking findings were presented at the SRI conference in Hamburg, where experts praised Tullomer for its unmatched outgassing performance in vacuum environments. As a result, Tullomer is now considered the top material for applications where maintaining vacuum conditions is critical.

Applications in Aerospace and Semiconductor Manufacturing

The unique formulation of Tullomer filament offers more than just low outgassing. It also provides exceptional strength and thermal stability, making it ideal for high-performance applications in both high-vacuum (HV) and UHV systems. Its low desorption rates ensure that vacuum conditions remain pristine, minimizing contamination risks while ensuring reliable operation over extended periods. Extensively tested and validated by leading experts in vacuum technology, Tullomer is engineered for precision. Whether you’re developing complex components for UHV research or deploying systems in critical environments like aerospace or semiconductor manufacturing, this filament offers unmatched performance, with proven results that set it apart from competitors like PEEK.

Why Tullomer is the Future of UHV-Compatible Filaments?

With the development of advanced filaments like Tullomer, 3D-printed plastics are set to become a reliable choice for UHV applications. While traditional polymers like PEEK and ULTEM have demonstrated solid performance, Tullomer’s revolutionary low-outgassing properties place it ahead of the curve. Its strength, thermal stability, and precision make it an indispensable material for engineers and researchers working in ultra-high vacuum environments. By minimizing outgassing and ensuring high system reliability, Tullomer elevates the standard for vacuum-compatible materials. Whether you’re prototyping or producing critical components, switching to Tullomer offers a new level of performance backed by scientific validation and industry trust.

Tullomer Out Performs All Tested Samples

Tullomer performed significantly better both before and after the bakeout, even reaching the detection limit of our setup for the sample size after the bakeout.

Tullomer vs PEEK

Tullomer filament residual gas analysis results

Tullomer vs all samples

Tullomer filament residual gas analysis results

Download The Full Case Study Results

Lund University’s Study on Outgassing Performance

Evaluation of 3D-Printed Plastics for Ultra-High Vacuum applications: Outgassing, and Residual Gas Analysis

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Tullomer Filament

Tullomer: Minimize Outgassing, Maximize Performance

Categories
Engineering Manufacturing

Yasuhide Yokoi and Final Aim Inc’s Autonomous Delivery Robot

Yasuhide “Yasu” Yokoi is the cofounder of design and technology firm Final Aim Inc., which works with laboratories, startups, and multinational companies to transform ideas into tangible solutions. There, he and his team use Ultimaker 3D printers to better enable rapid design iterations during the prototyping phase.

One of the company’s latest projects is the OSTAW Camello, an autonomous package delivery robot.

Revolutionizing Package Delivery

The Camello was designed to address issues in the delivery logistics chain in Singapore, which causes high shipment costs and operational complexities. Due to low loads and long waiting periods in loading and unloading bays, package deliveries are often inefficient – a fact exacerbated by high delivery volumes and tight delivery deadlines.

To tackle this challenge, Final Aim collaborated with a Singaporean robotics start-up OTSAW Digital PTE LTD, with the Camello being the final product.

The Camello is user friendly, featuring an ergonomic cargo space and sleek design – optimal for Singapore’s urban environment. Plans are currently underway for it to be used by various industrial key players, delivery companies, and retailers throughout Singapore, creating an improved ecosystem that provides smooth and efficient delivery to customers, while increasing profit margins for those businesses that use it.

The Birth of the Camello

As with any product, several phases were involved in Camello’s design, with the Ultimaker S3, Ultimaker Cura, and CAD software acting as Yasu’s and Final Aim’s greatest companions throughout the process.

First came the robot’s concept development and evaluation. From the initiation to ideation, he used both hand-drawn design sketches and CAD software.

Image
Industrial designer Yasuhide Yokoi with the Ultimaker S3 and Camello prototypes

Once he developed the idea, Yasu began the process of presenting it to the higher-level management, frontline members, and end-users. This divergent approach allowed Yasu to gain as much feedback as possible, which he could then use to refine, improve, and further flesh out his concept.

Image
Early sketches of design ideas
Image
A CAD design iteration, which can be 3D printed

Next came the prototyping phase. As Yasu now had numerous potential ideas, he needed to rapidly actualize them – often on tight deadlines. Luckily, this was a task that 3D printing was able to easily handle. Compared to other common prototyping methods such as sculpting or carving from Styrofoam, chemical wood, or industrial clay, 3D printing is much more efficient – freeing up time for Yasu to work on other design tasks.

“More than just cost-cutting, 3D printing has added value to my process,” Yasu said.

Image
3D printed iterations of the robot, ready to be tested and compared

Finalizing an Intuitive Design

Yasu was also responsible for ensuring that the Camello’s final design was of excellent quality. As his works often incorporate organically curved surfaces and silhouettes, which are often difficult to implement, he needed to create numerous iterations. 3D printing technology utilizes the contour layers of printouts to analyze the curvature of surfaces – essentially an equivalent to the zebra mapping that CAD software performs.

“The Ultimaker S3’s double extrusion feature has [also] been essential to my everyday design applications,” Yasu said. “Together with Breakaway and PVA material, my printing experience has become exponentially more efficient. I am deeply satisfied with the resulting quality as it leaves behind no support structure remaining.”

Image
Final design iteration prototyped on the Ultimaker S3
Image
Production Camello delivering groceries in Singapore

For the Camello to be a success, its design had to be intuitive and accessible at first glance. The design process, therefore, involved divergent ideation, exploring all possibilities, which were then carefully narrowed in focus. Development speed was also critical for stakeholders’ requests.

3D printing enabled these stakeholders to see and touch a physical product, deepening their understanding of the Camello’s concept and design – and streamlining the decision-making process.

Image

Go To Market Faster

Discover how 3D printing can accelerate your development cycles, with insights including:

  • How to 3D print faster to test more iterations
  • 4 essential applications for designers
  • The ideal design studio setup and workflow
  • And lots more handy tips and tricks!
Categories
3D Printing

Loading Filament On The Ultimaker 2+ Connect

Before you can start printing on the Ultimaker S3/S5, you need to load materials into the printer. For the first use, it is recommended to use the spools of  Tough PLA and PVA that come with the Ultimaker S3/S5.


Getting Started

Before you can start printing on the Ultimaker 2+ Connect, you need to load material into the printer. For the first use, it is recommended to use the spools of  Tough PLA that comes with the Ultimaker 2+ Connect.


Mount The Material Spool

01

Place the spool with the material on the spool holder. Make sure to put it with the material in a counter-clockwise direction, so that the material can enter the feeder from the bottom.

02

Wait for the Ultimaker 2+ to heat up the nozzle. This will ensure the material can flow through the nozzle while the printer feeds filament.


Insert Material Into Feeder

01

Insert the material into the feeder and gently push it until the material is grabbed by the feeder and is visible in the Bowden tube. Select confirm to continue.

02

Confirm when the new material extrudes from the nozzle.

Categories
3D Printing

Ultimaker 2+ Connect Unboxing and Setup

The Ultimaker 2+ Connect comes in reusable, durable packaging, specially designed to protect your 3D printer. Ensure you save your packaging, it will be required to send the machine in should it require warranty service and will ensure the safety of your machine when changing locations.


Follow the steps below to unpack your Ultimaker 2+ Connect:

01

Place the box on the ground.

02

Remove the plastic locking clips from the lower section of the box.

03

Holding the handles, lift the upper section of the box, and place it aside.

04

Take the quick start guide, safety and warranty information booklet, accessory box, and a spool of filament off the upper cardboard piece.

05

Remove the upper cardboard section and four foam pieces.

06

Carefully lift the Ultimaker 2+ Connect out of the bottom cardboard section and foam pieces.

07

Place the printer on a flat surface.


What Is Included With Your Printer

The Ultimaker 2+ Connect is supplied with several hardware accessories. Check if all these items are included before continuing:

Accessories
  • Glass plate
  • Spool holder
  • Power adapter and cable
  • Ethernet cable
  • USB stick
  • Calibration card
  • 0.4 mm nozzle
Consumables
  • PLA Silver Metallic 750 g
  • Glue stick
  • Oil
  • Grease
Tools
  • Hex screwdriver 2 mm
  • Hex key 2.5 mm
  • Nozzle wrench
  • Print head calibration aid
Documents
  • Quick start guide
  • Safety and warranty information

Get to Know Your Printer

Familiarize yourself with the different components of the Ultimaker 2+ Connect. Throughout our documentation, these terms will be used frequently.


Hardware Installation and Setup

01

Insert the spool holder into the back panel and push until it snaps into place.

Install spool holder
02

Open the front build plate clamps to insert the glass plate.

Open front build plate clamps
03

Slide the glass plate into the rear build plate clamps, then close the front clamps.

Install glass build plate
04

Connect the power cable to the printer with the flat side facing down and the other end to a power outlet.

Plug in printer

Categories
3D Printing

Ultimaker Support Resources

Categories
3D Printing

Ultimaker 2+ Connect Air Manager Installation

The Ultimaker 2+ Connect Air Manager gives you more confidence and setup flexibility. Designed to increase user safety, it removes up to 95% of ultrafine particles and shields users from hot and moving components. This is an excellent addition to any office or education-focused environment.


The Air Manager is delivered in separate components, which can be installed in a few easy steps.

01

Align the filter housing with the back of the Ultimaker 2+ Connect.

02

Guide the Bowden tube and print head cable into the slot.

03

Push down on the filter housing until it clicks firmly into place.

04

Gently push the filter completely into the filter housing, with the tab facing down.

05

Place the cover over the filter housing and align it with the top panel; ensure there are no gaps between the cover and the printer.

06

Connect the Air Manager cable to the port at the back of the Air Manager and ensure it is secure with the clip.

07

Guide the Air Manager cable around the left side of the spool holder.

08

Plug the cable into the OUT port at the back of the Ultimaker 2+ Connect.

09

Take the front enclosure and place the hinge profile on the front panel as shown.

10

Push the handle against the panel; the magnet will hold the front enclosure in place when closed.

The front enclosure must be installed when the Ultimaker 2+ Connect is printing. To remove the print, or for certain maintenance procedures, the front enclosure must be removed. This can be conveniently placed on the top of the printer, resting against the Air Manager cover.

Familiarize yourself with the different components of the Ultimaker 2+ Connect Air Manager. Throughout our documentation, these terms will be used frequently.

Categories
3D Printing

Ultimaker S3 / S5 Unboxing and Setup

The Ultimaker S3 and S5 come in reusable, durable packaging, specially designed to protect your 3D printer. Ensure you save your packaging, it will be required to send the machine in should it require warranty service and will ensure the safety of your machine when changing locations.


Follow the steps below to unpack your Ultimaker S3 / S5:


What Is Included With Your Printer

Accessories
  • Glass build plate
  • Spool holder with material guide
  • Power cable
  • Ethernet cable
  • USB stick
  • Print core AA 0.4
  • Print core BB 0.4
  • XY calibration sheet
  • Calibration card
  • Nozzle cover (3x)
Consumables
  • Tough PLA (750 g)
  • PVA (750 g)
  • Glue stick
  • Oil
  • Grease
Tools
  • Hex screwdriver 2 mm

Get to Know Your Printer

Familiarize yourself with the different components of the Ultimaker S5/S3. Throughout our documentation these terms will be used frequently.

1. Glass door(s)

2. Print head

3. Build plate

4. Build plate clamps

5. Touchscreen

6. USB port

7. Feeder 2

8. Bowden tubes

9. Feeder 1

10. Power socket and switch

11. Ethernet port

12. Double spoolholder with NFC cable

13. NFC socket


Hardware Setup Directions

Install the Bowden Tubes (Ultimaker S5 Only)

01

Remove the clamp clips from the print head.

Remove bowden clamp clip
02

Insert the Bowden tubes. The Bowden tubes connect to the corresponding numbers on the print head and feeder.

Install bowden tubes
03

Secure the Bowden tubes with the clamp clips.

Install bowden clamp clip
04

Fit the print head cable clips onto Bowden tube 2.

Attach bowden tube 2 to print head cable

Install and Connect the NFC Spool Holder

01

Insert the spool holder into the back panel and push until it snaps into place.

02

Secure the cable from the spool holder behind the cable clips in the back panel.

Install spool holder
03

Connect the cable to the NFC socket at the back of the printer.

Route and install NFC cable

Install the Glass Build Plate

01

Open the glass doors.

Open front doors
02

Open the two build plate clamps at the front of the build plate.

Open front build plate clamps
03

Gently slide the glass plate onto the build plate and ensure that it snaps into the build plate clamps at the back.

Install glass build plate
04

Close the two build plate clamps at the front to secure the glass build plate and close the glass doors.

Close front build plate clamps

Plug-In and Power On!

01

Connect the power cable to the power socket at the back of the Ultimaker S5.

02

Plug the other side of the cable into a wall outlet.

03

Turn on the power switch near the power connection on the printer.


A World of Resources Available to You

Whether you are new to 3D printing or an expert with years under your belt, you can never have too many resources. View our full support and resource section for various OEM’s here.


Next Steps

Loading filament

Before you can start printing on the Ultimaker S3/S5, you need to load materials into the printer. For the first use, it is recommended to use the spools of Tough PLA and PVA that come with the Ultimaker S3/S5.

Model Preparation and Slicing

Cura and other slicing programs transform a CAD model (STL, OBJ, 3MF) into a set of machine instructions that tell your printer how to create your model.

Removing Prints

After your print has completed, it will need to removed from the glass build plate. There are a few separate techniques to accomplish this, and each can have advantages depending on the specific part and whether any additional adhesives were used.

Categories
3D Printing

Recommended Maintenance For Ultimaker 2+ Connect

Maintenance Schedule

To keep your Ultimaker 2+ Connect in optimal condition, we recommend the following maintenance schedule, based on 1,500 printing hours per year. If you are printing more than 1,500 hours per year be sure to adjust your maintenance schedule accordingly.

Click the link for each support topic for detailed instructions in how to accomplish your task.