Here the latest updates on printed parts or machine updates will be posted in regard to the metal base system. Press the Read more button at the bottom of the message to see more pictures and videos.
Building industrial metal 3D printers requires serious space, not just for the machines themselves, but for receiving heavy components, calibration, and rigorous testing. To accommodate the production of our Kickstarter batch, I am incredibly excited to announce that Metal-Base has officially moved into a new headquarters!
We did it. The Kickstarter campaign for the Metal 1.0 has officially closed, and thanks to an incredible community of early adopters, we raised €136,542—hitting 267% of our funding goal!
We recently received some fantastic news from one of our beta customers. To independently verify the quality of the parts coming off our Metal-Base printer, they sent several "as-built" 316L stainless steel samples to the Experimental Mechanics Laboratory (LEM) at the University of Zagreb's Faculty of Mechanical Engineering and Naval Architecture.
The day we have all been working toward is finally here. After years of engineering, prototyping, and successful beta testing across the EU, the Metal 1.0 is officially live on Kickstarter!
One of the biggest lessons in developing a desktop LPBF metal printer is that your hardware is only as good as the raw materials you feed it. Lately, I’ve been focusing on improving the surface finish and overall reliability of our prints.
We have officially opened our Kickstarter Pre-Launch page. This is your first chance to follow the project and ensure you are notified the moment we go live in Q1 2026.
Lately I have been working on the printer settings for Inconel 718. I can happily report that it prints very well on the system.Measurements from tensile tests show that the material achieves a tensile strength of 900-950 N/mm2 when printing every layer at 0.05.When printing the infill every 0.1mm layers and the walls at the normal 0.05mm layers it achieves a tensile strength of 850-900N/mm2.The mayor advantage of the 0.1mm layer infill is that depending on the geometry it prints up to 40% faster.in the video shown the astronaut weighing about 200 gram took only 5 hours, the chess piece at 200 gram took 6 hours. this would be 7 and 9 hours with everything at 0.05mm layers.
The 4th and 5th beta systems have been delivered and are now also actively used. I have learned a lot from building, integrating and testing these machines and the feedback from the 5 beta customers is very helpful. I'm also preparing the design of the next batch of machines with all the things that were found in these systems. So far only minor things have been found and most of them are related to diagnostics and production.
Last week the second and third machines have been delivered.
Today the first beta system has been delivered in Breda the Netherlands. The installation went without much trouble and the test print performed as expected. In about another month the other 4 beta systems will be delivered.
With the partial success of printing copper I found that Bronze with a much lower heat conductivity could be very interesting. After doing some simple tests I found that bronze is actually very easy to process. The energy absorption seems to be very similar to copper but the reduced conductivity makes this easier to print than stainless steel. I have been using a bronze with 85% copper and 15% tin, the nice thing is that this powder is also less expensive than stainless steel.
I have been doing the first tests with copper powder. From the first test it is clear that it is possible to print copper with the blue 30 watt laser.
