40,000 Lights are Better Than One

That’s the claim made by Huntsman Advanced Materials, who recently announced the availability of their new Araldite Digitalis. It’s a stereolithography machine that produces 3D objects by selectively hardening pixel-sized areas of a resin.

Most stereolithography machines utilize a laser to gradually “draw” each layer of pixels into the media resin. Huntsman Advanced Materials has a very unique approach to the hardening process, which typically is the most time-consuming part of the process. Instead of a single laser tracing the pattern, they use MEMS (micro-electromechanical systems) to produce 40,000 light pixels simultaneously! According to their website, the approach “significantly reduces production times and thereby costs”.


We’re fascinated by this development, as it is quite a break from most “single pixel” 3D printing techniques. Unfortunately, no statistics were immediately available from Huntsman, so we can’t say precisely how much faster this technique might be. However, we can all imagine the possibilities here: solving the biggest issue in 3D printing today, time to print. Currently it takes hours to produce even the smallest items, and often several runs are required to produce all component pieces for later assembly. With the “parallel pixel” approach build times are sure to drop significantly.

Can other printer manufacturers develop similar approaches with their technology? Will this tech eventually make its way into home-based fabbers, and permit quick builds? Time will tell.

Via Huntsman and Develop3D

Share on facebook
Facebook
Share on twitter
Twitter
Share on linkedin
LinkedIn
Share on pinterest
Pinterest

Black Hawk Twinned

Digital twin creation of the US Army’s Black Hawk helicopters will bring new life into the out-of-production aircraft.

Read More »

Email us

Feedback, Tips?

We’ll use the details you provide on this form to contact you regarding your inquiry. You can read our Privacy Policy here.

Be Informed!

Keep up to date on the latest developments in 3D printing and additive manufacturing