This spring, AM quality assurance software developer Sigma Labs, Inc. (NASDAQ: SGLB) launched the new Production Series of its PrintRite3D software for the commercial 3D metal printing industry, not long after signing an MoU with Materialise to integrate PrintRite3D with the Materialise Control Platform (MCP) product. Now the company has announced the expansion of its market opportunity through a new partnership with Northwestern University in Illinois. As part of this collaboration, Sigma Labs will develop and grow its PrintRite3D In-Process Quality Assurance technology so it can be used with powder-blow Directed Energy Deposition (DED) 3D printing.
“OEM’s have seen an increase in demand of the directed energy deposition machine ranging from high-level R&D projects to the production of prototype and production parts, many of which are for the aerospace industry. This initiative expands our market opportunity and is the first step in Sigma’s strategy to apply our technology across a broad array of Additive Manufacturing processes,” Mark Ruport, the Chief Executive Officer of Sigma Labs, said in a press release.
The New Mexico-headquartered company believes that its software will be a major impetus for the adoption of 3D metal printing, and has been working to steadily improve upon and expand its IPQA software brand, which provides real-time print monitoring and detects and classifies anomalies and defects during the 3D printing process, so production managers know about any quality issues immediately. Last month, Additive Industries’ MetalFAB1 printers integrated PrintRite3D’s in-process melt-pool monitoring, and Sigma Labs’ first contract for its new PrintRite3D Lite In-Process Quality Assurance system, created for compact entry-level 3D printers, went to Coherent.
With this new partnership, Sigma Labs has developed the necessary hardware and software, which will be validated by Northwestern University. The first beta PrintRite3D DED software will be installed at the university’s Advanced Manufacturing Processes Laboratory (AMPL), onto a custom, open-architecture, modular DED printer called the Additive Rapid Prototyping Instrument (ARPI). The ARPI is multifunctional, made up of three separate subsystems—primary 3D printing, secondary operations, and monitoring—which can each function in an integrated manner in a command-and-control environment or as a standalone system
“ARPI provides an integrated processing platform and environment for enhancing part accuracy, surface finish, and material properties beyond the current capabilities of customary DED (currently the primary AM processing method),” Northwestern’s AMPL states on the website.
According to Northwestern’s own collaborative research with Argonne National Laboratory, DED technology relies on heated powder particles, which are blown through nozzles at a high-powered laser’s focal point and melted. A motion control system moves the molten pool of metal to build up the layers of a structure. DED 3D printing is fairly versatile, as it can be used to not only print new parts but also to add on to an existing part by repairing or coating it, and it’s a good choice for hybrid manufacturing applications as well.
DED technology is becoming more popular, especially for things like parts maintenance, rapid prototyping, and structural parts, and has been used in a variety of industries, including oil & gas, maritime, medical, defense, automotive, architecture, and aerospace.
Sigma Labs is actively looking for more commercial DED machine OEM partners to expand its beta testing program, so contact the company if you’re interested.
(Source/Images: Sigma Labs unless otherwise noted)
Subscribe to Our Email Newsletter
Stay up-to-date on all the latest news from the 3D printing industry and receive information and offers from third party vendors.
Print Services
Upload your 3D Models and get them printed quickly and efficiently.
You May Also Like
3D Printing Predictions 2026: Industrial Production in Metal Additive Manufacturing
The industrial metal additive manufacturing world is splitting, with commoditization and lower-cost parts driving the production of millions of components for consumer electronics, machinery, dental, and beyond. Meanwhile, large parts...
Inside Xometry’s 2026 Outlook: Why AM Is Becoming Essential — and What’s Still Holding It Back
In the first part of this series, we spoke with Xometry’s Senior Vice President of Marketplace Operations, Mike Cavalieri, about how manufacturers are reshoring, diversifying their suppliers, and building more...
Top 10 Moonshot Ideas for 3D Printing’s Future
As the year comes to a close, it’s clear that additive manufacturing (AM) is entering a new phase. Costs are falling, supply chains are changing, government spending is rising, and...
3D Printing Predictions for 2026: Scaling AM Through Software
For several years, we have seen additive manufacturing software play a more central role in our industry. LPBF machines achieve higher yields and can produce thinner-walled parts thanks to the...























