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3D Printing Engineering Manufacturing

Hybrid Manufacturing at Formlabs: 3D Printing Meets Pressure Forming

Inside Formlabs’ R&D Workflow: Combining SLA 3D Printing with the Mayku Multiplier for Faster, Scalable Product Development

Time is one of the most valuable resources for research and development teams. Whether you’re prototyping a new component or preparing for low-volume production, the goal is always the same: to find the most efficient path to a working solution without compromising quality. That’s where hybrid manufacturing comes in.

By combining SLA 3D printing with pressure forming, companies like Formlabs are unlocking faster, more flexible ways to build, iterate, and scale.

What Is Hybrid Manufacturing?

Hybrid manufacturing refers to the integration of multiple fabrication technologies such as combining resin-based SLA 3D printing with desktop pressure forming into a single workflow. While 3D printing is ideal for rapid prototyping and custom part production, pairing it with pressure forming allows teams to move seamlessly into short-run production using durable, functional materials.

This powerful combination reduces turnaround times, lowers production costs, and improves surface finish and part performance making it especially valuable for engineering teams transitioning from prototypes to real-world applications.

Why Formlabs Combines SLA Printing and Pressure Forming

Formlabs, a global leader in professional desktop 3D printing, doesn’t just sell cutting-edge technology, they use it. Inside their Boston-based headquarters, Formlabs’ R&D team relies on hybrid manufacturing to prototype, test, and produce parts entirely in-house.

Their full-stack machine shop includes CNC machining, laser cutting, casting, and SLA 3D printers, all of which empower engineers to maintain complete control over the product development cycle. By integrating the Mayku Multiplier, a compact desktop pressure former, into their workflow, Formlabs has dramatically increased both the speed and scalability of their prototyping process.

The Power of the Mayku Multiplier in Formlabs’ Workflow

A standout example of this approach was the development of a protective IR sensor cover for the new Form 4 printer. The part needed to be both durable and precisely formed to prevent resin leaks that could damage sensitive components.

To solve the challenge, the Formlabs team used their SLA 3D printers to create accurate molds and then leveraged the Mayku Multiplier to pressure-form thermoplastic covers. The result? A functional prototype completed in just days without the need for costly outsourcing or long lead times.

Faster Prototyping With SLA Molds and Pressure Forming

Mayku Multiplier heating up material

Mayku Multipler heating up material 

Multiplier pressure formed IR sensor covers on a Formlabs SLA 3D printed mold.

By pairing SLA-printed molds with pressure-formed parts, the Formlabs team rapidly iterated through designs, testing each version in real-world conditions. What would typically take weeks via third-party vendors was completed in-house in a fraction of the time. This hybrid approach turned a traditionally linear process into an agile, feedback-driven workflow.

“Being able to go from idea to prototype in a day or two changes how we work,” said Mechanical Engineer Jennifer Lu. “It lets us test faster, learn faster, and stay focused on building a better product.”

Real-World Results: Same-Day Prototyping With Mayku and Formlabs

The Mayku Multiplier delivered production-quality parts even on intricate geometries making it a reliable tool for daily use. Its ability to form parts quickly and in high detail helped the Formlabs team speed up testing, reduce iteration time, and boost product development velocity.

Franko Kosic-Matulic, Machine Shop Coordinator at Formlabs.

Franko Kosic-Matulic, Machine Shop Coordinator at Formlabs.

The finished  pressureformed sensor cover after postprocessing

The finished  pressureformed sensor cover after postprocessing

“We can definitely rely on the Multiplier to give us really high detail and also form quickly and produce a lot of parts,” said Machine Shop Coordinator Franko Kosic-Matulic.

What Hybrid Manufacturing Means for Engineers and Product Developers

The collaboration between Formlabs and Mayku is a compelling example of how hybrid manufacturing can elevate modern product development. By combining SLA 3D printing with pressure forming, engineers gain access to a faster, more repeatable, and cost-effective workflow ideal for prototyping, testing, and small-batch production.

Whether you’re a mechanical engineer, industrial designer, or lab manager, this approach shows how the right combination of tools can transform the way you work.

Download the Full Case Study: How Formlabs Accelerated Prototyping with the Mayku Multiplier

Get instant access to the full case study and learn how Formlabs leveraged pressure forming to cut prototyping time from weeks to days.

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3D Printing Engineering

FDM Printing in Architecture, Design, and Traditional Engineering: Dynamism & Ultimaker Shine at Dubai Design Week

FDM Printing in Architecture, Design, and Traditional Engineering: Dynamism & Ultimaker Shine at Dubai Design Week

How FDM Printing is Revolutionizing Architecture and Design

Dubai Design Week, the Middle East’s premier design event served as the global stage for Mitsubishi Estate’s visionary 3D-printed teahouse. This groundbreaking creation seamlessly merged traditional Japanese culture and heritage with FDM 3D printing technology, offering a captivating showcase of architectural innovation. Dynamism played a key role in supporting the 3D printing of teahouse components, which were all done using a wood-based filament. These parts were then shipped to Dubai, where they were seamlessly assembled into the stunning final structure.

Dubai Design Week: A Global Hub for Creativity

Dubai Design Week is renowned for uniting designers from around the world to inspire creativity and foster innovation. The annual event features exhibitions, pop-ups, installations, and talks that engage professionals, media, and design enthusiasts while strengthening Dubai’s reputation as a vibrant design capital.

The 3D-Printed Teahouse: Tradition Meets Innovation

The 3D-printed teahouse stood out as a beacon of innovation at Dubai Design Week. By merging traditional architecture with modern 3D printing, this ambitious project showcased how additive manufacturing can preserve cultural heritage while pushing the boundaries of design and engineering.

Traditional Japanese Engineering Influences

The teahouse design drew heavily from Japanese traditions, particularly the “hozo tsugi” joinery technique. This ancient method involves interlocking wooden joints without nails or screws, a skill-intensive practice that ensures durability and elegance. To recreate this authentically, Polywood—a wood-infused resin filament—was used to replicate the aesthetic of traditional Japanese tea rooms.

Ultimaker’s Role in Precision Printing

Key to the project’s success was Ultimaker’s S series 3D printers. Using digital renderings, the intricate teahouse design was divided into 988 individual parts, including 1,938 meticulously crafted “hozo” joints. The Ultimaker printers delivered unparalleled precision, completing approximately 4,000 hours of printing to bring the project to life. The printers’ versatility enabled the seamless integration of traditional engineering with advanced FDM printing techniques.

The Significance of the 3D-Printed Teahouse

The teahouse was more than an architectural marvel—it symbolized the harmonious blending of tradition and technology. Leveraging FDM printing, this demonstrated the transformative potential of additive manufacturing to preserve and reimagine cultural heritage. The teahouse captivated a global audience, underscoring the possibilities of 3D printing in architecture, design, and engineering.

Bridging Heritage and Innovation

Dynamism’s contribution to Dubai Design Week highlighted the growing role of 3D printing in modern design. Projects like the 3D-printed teahouse not only showcase the technological capabilities of FDM printing but also emphasize its power to honor and elevate tradition. As a leader in advanced 3D printing solutions, Dynamism continues to inspire by merging the past with the future through innovative designs.

ColorFabb 2.85mm Woodfill – 600g

ColorFabb 2.85mm Woodfill - 600g

Ultimaker S Series

Ultimaker S7
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
Education Engineering

Incorporating 3D Printing into
Real- World Biomedical Engineering

Whether you’re a 3D printing aficionado or just getting started with this in the classroom, printing trinkets gets old quickly. When searching for your next project, why not take on something that flexes your creativity and benefits others?


3D Printing in the Real World

3D printing isn’t just something to create a spinning table top for a school project! Practitioners of Biomedical Engineering use this technology regularly. In fact, every time a prosthetic arm is prepared for a patient, customized work must be done to create the right fit. 

When a patient receives a prosthetic hand or limb it is usually ordered “off the shelf”. The new prosthetic must be fitted to ensure compatibility with the size and shape of the person’s arm, write, or remaining limb. Just like fingerprints, each person is slightly different in the shape and size of their amputation site. Additionally, some amputees have their full arm remaining while others have also lost their full forearm. 3D printing techniques allow prosthetists to create customized fits for every patient based on their needs.


The NeuroMaker Connection

NeuroMaker’s materials and culminating experience, the NeuroMaker Challenge, provide students the opportunity to apply their knowledge of prosthetic and assistive devices to solving a real world problem. Students are encouraged to implement new technologies, including additive manufacturing.

Educational Use Case: King Kekaulike High School

Team Digit Prosthetic Band from King Kekaulike High School in Hawaii 3D printed out a specialized Biomedical attachment to a prosthetic finger. These specialized parts allow a person missing a finger to add one artificial finger from an artificial hand onto their wrist for better quality of life.

Educational Use Case: Central High School

Team Commodores of Perry Central High School in Indiana 3D printed out a specialized digit for their prosthetic hand which allows the placement of a piezo sensor. This sensor allows an amputee to detect how much pressure is being applied to an artificial finger. This group of students discovered applications for an amputee holding a baby and ensuring that not too much pressure is applied.


3D Printing Pieces to Investigate for Customized Prosthetics

Depending on how much adventure you’d like to take on, there are multiple ways to design custom pieces to real world prosthetic arm projects. Here are some quick ideas!

Custom Box to Hold Control Components

Learn how to create and print out the case which will hold the “brains” of your prosthetic by watching below.

In this video, step by step instructions are provided to build the control box attachment for the NeuroMaker Hand. Each action of the drafting process is here to follow along!

Once this item is drafted, this attachment will be placed on top of the Arm component of the NeuroMaker prosthetic. This will house all the electrical items needed to control your real prosthetic!

Arm Attachment

Learn how to create and print out a sample housing for your prosthetic to attach to a limb here by watching below.

In this video, step by step instructions are provided to build the grip attachment for the NeuroMaker Hand. Each action of the drafting process is here to follow along!

Once this item is drafted and printed, this attachment will be grasped by the wearer and will house the other pieces of the NeuroMaker prosthetic. This will be the main housing and grip attachment for your prosthetic arm!

Finger Pieces

Learn how to create and print customized finger pieces by watching below.

Base

In this video, step by step instructions are provided to build the finger base attachment for the NeuroMaker Hand. Each action of the drafting process is here to follow along!

Once this item is drafted, this attachment will be connected to the distal and proximal finger attachments. This piece will allow your fingers to connect together on your new prosthetic!

Proximal Finger Base

In this video, step by step instructions are provided to build the proximal finger attachments for the NeuroMaker Hand. Each action of the drafting process is here to follow along!

Once this item is drafted and printed, this attachment will be modified to attach to the provided NeuroMaker Hand finger digits. These digit attachments will provide better control and grip functions for your prosthetic!

Distal Finger Attachment

In this video, step by step instructions are provided to build the distal finger attachments for the NeuroMaker Hand. Each action of the drafting process is here to follow along!

Once this item is drafted and printed, these finger modifications will be attached to the NeuroMaker Hand finger pieces. These adjustments will work with the proximal finger attachments to provide greater control and functions of your prosthetic hand!

Mid Finger Linkage

In this video, step by step instructions are provided to build the finger linkage pieces for the NeuroMaker Hand. Each action of the drafting process is here to follow along!

Once this item is drafted, this attachment will be connected to the finger attachments of your NeuroMaker Hand to provide stability. This piece will allow your fingers to connect together on your new prosthetic!
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.

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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.

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Early sketches of design ideas
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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.

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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.”

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Final design iteration prototyped on the Ultimaker S3
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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.

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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 Engineering Manufacturing

Formlabs Fuse 1 On-Demand Webinar

Fuse 1 Product and Workflow Overview

Bring the industrial power of Selective Laser Sintering (SLS) into your workshop with an affordable, compact system for prototyping and production-ready nylon parts. The Fuse 1 and Fuse Sift deliver high-quality parts at as little as a tenth of the cost when compared to competing systems. In this on-demand webinar, we provide an overview of the Formlabs Fuse 1 system, along with detailing a number of applications. Watch now to learn more about:

  • How the Fuse 1 system provides high productivity and throughput, with minimal downtime
  • How Formlabs developed an approach for SLS 3D printing focused on simplifying powder management and delivering consistent parts
  • Potential applications for medical prosthetic devices and low batch production
  • More…

Fill out the form below to watch the webinar!

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The Fuse 1 brings the industrial power of Selective Laser Sintering (SLS) to your benchtop, providing prototyping and production at a tenth of the cost of existing SLS machines.

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SmartSlice is a plug-in for Ultimaker Cura that empowers users to perform validation and optimization of print parameters based on end-use requirements.

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Get fast, on-demand manufacturing and rapid prototyping. Dynamism’s online 3D printing service is fast, easy, and allows access to multiple printing technologies.

Categories
Engineering Manufacturing

Machine Design

Custom Machining with Metal Printing

Custom machining methods for prototypes and assemblies can be costly and time-consuming. By utilizing 3D printing to print metal directly, companies have been able to reduce outsourcing costs and tooling backlogs, while opening new possibilities for additional revenue. Review these four use case examples to learn how:

  • Assembly consolidation can can simplify production
  • Additive manufacturing can unlock design elements not possible through other methods
  • Products can be brought to market faster using rapid prototyping
  • More…
Categories
Engineering Manufacturing

Successfully Implementing Additive for Engineering and Manufacturing

14 Manufacturing and Engineering Case Studies

In this collection of case studies, review how companies are currently using Formlabs SLA technology within their workflows. A wide range of applications are covered, including rapid prototyping, production tools, hybrid manufacturing, and end-use parts. Find out how they successfully:

  • Circumvented complex supply chain issues
  • Reduced cost per part by up to 90%
  • Brought prototyping, manufacturing, fixture, and jig production in-house
  • Unlocked mass customization of products
  • And much more…
Categories
Engineering Manufacturing

Printed Tools and Fixtures Save Time and Money

Optimizing Workflows with 3D Printing

Needs in a manufacturing environment can be varied and difficult to plan for logistically. Metro Plastics, an injection mold manufacturer, has turned their Ultimaker S5 printer into an everyday workhorse, saving them time, money, and manpower in everyday production needs. Explore how they have been able to:

  • Drastically cut down lead times from their internal tool shop
  • Generate customized and streamlined parts for easy printing and minimal post-processing
  • Realize significant per part cost reductions
  • More…
Categories
Engineering Manufacturing

3D Printed Metal Tooling Components

Save Time and Money with Desktop Metal

Additive manufacturing dramatically simplifies the process of creating tooling and fixturing. This white paper will cover multiple examples of how Bound Metal Deposition reduces time and cost in manufacturing situations. Discover how:

  • To generate higher throughput with existing machinery
  • To reduce the need for operators
  • To simplify production and reduce lead time
  • To reduce Maintenance Repair and Operation costs
  • More…