Desktop Metal, University of Toledo Collaborate on Alloy Research
The partnership includes installing a Desktop Metal Production System P-1 in the University of Toledo lab to open new possibilities in materials and application development.
Desktop Metal’s P-1 3D printer is said to offer enhanced process flexibility. Photo Credit: Desktop Metal
Desktop Metal and The University of Toledo’s Institute of Applied Engineering Research are partnering to support the development of nickel-titanium (Nitinol) alloys, Rene alloys and other nonweldable nickel-based, high-temperature materials on Desktop Metal’s Production System platform. The system’s single pass jetting (SPJ) technology is designed to achieve the fastest build speeds in the metal additive manufacturing (AM) industry.
“We are thrilled to partner with The University of Toledo on this disruptive technology development, opening up a tremendous opportunity for medical, aviation and space applications,” says Ric Fulop, Desktop Metal founder and CEO. “Our Production System platform enables the development of new materials for binder jet 3D printing that can be used for at-scale production. We’re proactively partnering with leading research universities around the world to accelerate materials development and look forward to working with The University of Toledo to advance the development of Nitinol and other critical alloys for binder jetting.”
The partnership includes installing a Desktop Metal Production System P-1 in the University of Toledo lab to open new possibilities in materials and application development.
“By combining our metallurgy, software, chemistry and design expertise, this partnership will allow us to pursue the development of numerous advanced materials, including Nitinol, a shape memory alloy used for many medical applications; ultra-high temperature nickel-based superalloys, such as Rene alloys, for aerospace; conductive materials such as pure copper for electrification; and lightweight materials including advanced aluminum alloys for automotive applications,” says Behrang Poorganji, Ph.D., research professor and director of advanced manufacturing at The University of Toledo College of Engineering. “We believe our collaboration with Desktop Metal will accelerate our education, training and workforce development, which will be key to successful technology adoption in the industry for the future years ahead of us.”
Related Content
-
Large-Format “Cold” 3D Printing With Polypropylene and Polyethylene
Israeli startup Largix has developed a production solution that can 3D print PP and PE without melting them. Its first test? Custom tanks for chemical storage.
-
Beehive Industries Is Going Big on Small-Scale Engines Made Through Additive Manufacturing
Backed by decades of experience in both aviation and additive, the company is now laser-focused on a single goal: developing, proving and scaling production of engines providing 5,000 lbs of thrust or less.
-
Additive Manufacturing Is Subtractive, Too: How CNC Machining Integrates With AM (Includes Video)
For Keselowski Advanced Manufacturing, succeeding with laser powder bed fusion as a production process means developing a machine shop that is responsive to, and moves at the pacing of, metal 3D printing.