For most of the last century, if you needed a precision metal part cast from a superalloy, the path looked the same: design a part, machine a hard metal tool to make wax patterns, then run those patterns through the lost-wax process. That tooling step is slow, expensive, and it only pays off if you are making a lot of parts. For a one-off turbine component or a low-volume defense spare, the tool can cost more than the parts themselves and add months to the calendar.
This week a Georgia-based company put a real dent in that problem. DDM Systems commercially launched its Digital Foundry, a platform built to pull tooling out of investment casting entirely. The pitch is bold and the numbers are specific, so it is worth unpacking what is actually new here and what it means whether you are a hobbyist casting brass parts in your garage or an engineer sourcing nickel superalloy castings for a turbine.
What DDM Systems actually launched
DDM Systems is an ITAR-registered manufacturer that has spent roughly 15 years developing ceramic 3D printing for investment casting, with funding support from DARPA and ARPA-E. The Digital Foundry is the commercial bundling of three of its proprietary technologies into one production-ready workflow.
The first is LAMP (Large Area Maskless Photopolymerization), which uses patterned UV light to 3D print ceramic casting shells directly from a CAD file. The second is DirectPour, which delivers ready-to-pour ceramic shells with integrated cores to casting partners. The third is Scanning Laser Epitaxy (SLE), which can directly print single-crystal, equiaxed, and directionally solidified superalloy structures. Founder and CEO Dr. Suman Das, who is also a professor of advanced manufacturing at Georgia Tech, was clear that this is not a lab demo: the company says it is already delivering castings for the U.S. Air Force, gas turbine makers, and aerospace OEMs.
The numbers that matter to a buyer
Traditional lost-wax investment casting runs about 12 process steps. DDM says its LAMP approach prints the ceramic shell with integrated cores directly from the digital design and eliminates 7 of those 12 steps. The headline claims for the full Digital Foundry platform are striking: it removes 100% of upfront tooling cost, cuts scrap rates by roughly 90%, and delivers a 10x reduction in lead time, with first castings arriving in as few as 10 days instead of months, at around 50% lower cost.
If you have ever waited on a casting quote, you know why that lands. The tooling bottleneck is the single biggest reason low-volume metal castings are painful to source. Take it away and the economics of "I only need five of these" change completely. DDM is careful to frame this as additive to the casting industry rather than a replacement: the platform removes the tooling step that keeps existing foundries from responding quickly, rather than putting foundries out of work.
Why it is more than a niche aerospace story
The alloy list is the tell. The Digital Foundry is compatible with hundreds of standard air-melt and vacuum-melt alloys, including everyday stainless steels like 304, 316, and 17-4 PH, aluminum casting alloys like A356 and A357, nickel superalloys like IN 625, IN 718, and IN 713LC, and exotic directionally solidified and single-crystal alloys like Rene 80 and CMSX-4. That spread covers a huge range of real-world parts, from a corrosion-resistant pump housing to a hot-section turbine blade.
The framing around it is a domestic supply chain story. DDM positions the Digital Foundry as a response to what it calls a hollowed-out American casting base, the kind of capacity gap that shows up in defense and energy programs when a single tool sits in a queue for months. That is a theme we care a lot about as a US shop, and it lines up with the broader 2026 shift of additive manufacturing from prototyping toward genuine production.
What this means if you make or buy parts
For makers, this is a useful reframing of what casting can be. Investment casting has always felt like the "big company" process, gated behind tooling costs that made small runs a non-starter. Tool-free shell printing chips away at that gate. The dream of designing a part in CAD on Friday and holding a metal casting a week and a half later is a lot closer than it used to be, even if you are not personally running the furnace.
For engineering buyers, the takeaway is more practical. When you are pricing low-volume metal parts, it is worth asking your suppliers whether they can route work through a tool-free ceramic shell process instead of cutting a hard tool. The lead time math is the prize here, not just the unit cost. A part you can re-spin and re-cast in days lets you iterate a design instead of locking it in to amortize a tool.
Casting is not the only way to get a functional metal-adjacent part, of course. A lot of the parts people assume need casting can be solved faster with high-temperature polymers or direct metal printing, depending on the load and temperature. If you are weighing options, our team is happy to talk through whether a printed engineering-polymer part, a printed metal part, or a tool-free casting is the right call for your application. You can see how we approach production-grade work on our build and ship page, and if your need leans toward heat and chemical resistance, our PEEK and ULTEM printing service covers the high-temp end of the spectrum.
The bigger picture
The Digital Foundry is a good example of where additive manufacturing is heading in 2026. The flashy part is the technology, ceramic shells printed with UV light and superalloys grown with a scanning laser. The important part is the workflow: pulling a slow, expensive, tooling-heavy step out of an old process so that small batches and fast iterations stop being luxuries. Whether that turns into castings on your doorstep in ten days will come down to capacity and adoption, but the direction is clear, and it is the same direction that makes on-demand, US-made parts more practical every month.
Got a part that has been stuck behind a tooling quote, or a metal component you have been quietly hoping to redesign? We would love to hear what you are working on. Reach us anytime at info@dcadditivepros.com.
If you build 3D printers, casting hardware, scanners, filaments, or related gear, DC Additive Pros reviews it all. Send us your product and we will put it through real shop use. Email info@dcadditivepros.com to arrange a review.