Create value with 90% efficiency. On the mechanical side, we create value with 20% efficiency. We’re like the internal combustion engine, and they’re electric cars. That was the way of the world. It needed to change.
Formula SAE Electric Racing Team at the University of Michigan-Dearborn 3D printed battery cooling ducts for their electric race car.
Thousands of customers later, their mission hasn’t changed: giving every Designer and Engineer the ability to create same-day strong, reliable parts.
Each fill type has specific strength properties and we will demonstrate how to effectively utilize Concentric and Isotropic fill to strengthen different parts in different ways. Watch how now!
Tools, fixtures, and jigs can be easily created without taking away machining bandwidth and come out just as strong as their machined counterparts.
As soon as Dixon Valve unboxed their industrial strength Markforged 3D printer, they put it to work.
The Mark Two not only allowed to produce their robotic jaws quickly, but the material capabilities of the printer, including its ability to lay continuous strands of high-strength fibers into 3D printed parts, ensured reliability in a factory setting.
The first prototype (Roboy Junior) has muscles and tendons rather than motors in the joints. It has been developed under substantial usage of AM: The complete skeletal body structure of Roboy, which encases his bones and muscles, has been built with EOS systems for Plastic Additive Manufacturing.
Watch this Markforged Webinar on optimising fiber reinforcement strategies for your parts There are a number of strategies available to balance part cost with part strength using the Markforged Eiger software. In this video, you will learn about the various fiber reinforcement strategies available to you when printing fiber reinforced 3D parts. This webinar recording covers the following topics: Fiber
The Mark Two has allowed Arow Global to simplify and expand prototyping and gave them the ability to rethink their design and manufacturing capabilities.
Several different 3D printing technologies and materials were used, including clear resin and black resin printed with a stereolithography (SLA) 3D printer. The lungs were 3D printed in nylon using a selective laser sintering (SLS) process, and the joints and armatures were 3D printed in steel to add stability and durability to the skeleton.