Reporting window: August 31–September 6, 2026.

This week’s additive manufacturing production news was less about isolated print demonstrations and more about the infrastructure that makes repeatable work possible. New investments addressed domestic titanium processing and aerospace ceramic capacity, while product and software releases targeted feedstock control, multi-printer planning and specialized medical materials. Two research projects also showed how additive design can combine structure with thermal or buoyancy functions.

For smaller manufacturers, the useful signal is that 3D printing increasingly depends on the system around the machine: qualified material, controlled software and documented processing.

1. Army task order supports domestic titanium processing

IperionX announced that the U.S. Army awarded a second task order under an existing Small Business Innovation Research Phase III contract for domestic titanium. The company says the firm-fixed-price task order has a base value of $18.5 million, with $11.5 million currently funded and obligated. Additional unfunded options could raise its value, but those options remain at the government’s discretion.

The funded work is intended to expand IperionX’s titanium powder-to-component operations in Virginia. The company says it will add processing capacity, bring fastener finishing in-house and support defense track pins, bolts and fasteners. Inspection and acceptance are planned at Army facilities.

This matters to metal additive manufacturing because feedstock and downstream processing can be as limiting as printer capacity. Defense contractors, powder suppliers, heat-treatment providers and machining or finishing shops are affected when more of the titanium chain moves into one domestic system. The announcement comes from IperionX, so projected cost and lead-time benefits should be treated as company expectations rather than demonstrated program results.

Practical takeaway: When evaluating a metal-AM supply chain, map every step after powder production—forming, printing or consolidation, heat treatment, machining, finishing and acceptance. A bottleneck in any one of them can erase the advantage of faster printing. Read the IperionX task-order announcement.

2. U.S. aerospace customer orders 12 ceramic printers

Prodways Group reported an order for 12 MovingLight ceramic 3D printers from an unnamed U.S. aerospace manufacturer. The customer already operates Prodways equipment and is expected to have more than 15 of the company’s ceramic printers after deliveries during 2027. Prodways described the order as worth several million euros and said it covers printers only, with ancillary services to be ordered separately.

The repeat purchase is more informative than a single-machine launch. Prodways says the printers will expand capacity for ceramic elements used in serial aerospace manufacturing. Because the customer and application are undisclosed, the release does not establish production volumes, yields or final-part performance.

Aerospace suppliers, investment-casting operations, ceramic material providers and quality teams should still note the move from development equipment toward a multi-machine fleet. Fleet expansion introduces practical questions about calibration, lot consistency, operator training, maintenance and traceability across machines.

Practical takeaway: Before scaling from one printer to a fleet, establish a common acceptance method. Compare output across machines with the same test geometry, material lot, orientation and inspection plan. Read the Prodways ceramic-printer order announcement.

3. Filament Maker X10 targets in-house feedstock control

3devo introduced the Filament Maker X10, a production-oriented extrusion system for converting pellets, regrind or powder into filament. The manufacturer lists throughput up to 1.5 kilograms per hour for PLA, heating to 450°C and closed-loop diameter control. Its tighter ±30-micrometer diameter figure is specifically identified as a reference result for recycled carbon-fiber-filled PA12, not a universal tolerance for every material.

The system targets print farms, material developers and organizations recycling powder-bed waste or making custom formulations. 3devo says its internal line and pilot users processed more than 2,000 kilograms during validation. Real output will vary with material and operating conditions.

For regional manufacturers, in-house filament extrusion could reduce dependence on specialized spools or create a route for reusing clean material streams. It also moves responsibility upstream: incoming-material control, contamination prevention, diameter verification and print-property testing become the operator’s job.

Practical takeaway: Do not evaluate recycled or custom filament on diameter alone. Track moisture, melt behavior, filler distribution, spool-to-spool consistency and printed-part properties before releasing it for production. Review 3devo’s X10 specifications and the September 4 industry report.

4. PrusaSlicer 3.0 preview rebuilds project planning

Prusa Research released the first public preview of PrusaSlicer 3.0. The software has a redesigned interface and data architecture, with multiple printer beds treated as parts of one project. Users can prepare beds with different printers or configurations, slice them independently and work with multiple projects in one application window.

The release also adds a redesigned multi-tool profile system, YAML-based profiles, sandboxed Lua plugins and an offline mode that does not load networking libraries. Those features may help print farms and restricted manufacturing environments.

Prusa is explicit that this is an early preview rather than production-ready software. Some functions from the 2.x line are still being ported, the plugin interface is experimental and several capabilities are planned for later releases. Shops should not replace a validated production workflow merely to gain preview features.

Practical takeaway: Test slicer upgrades on copied profiles and representative parts. Compare toolpaths, estimated material, dimensional results and machine behavior before approving a new version for customer work. Read Prusa’s 3.0 preview notes.

5. Printed phase-change heatsinks combine structure and storage

Johns Hopkins Applied Physics Laboratory reported initial testing of SPEAR, a compact heatsink that combines additive manufacturing with phase-change materials. A phase-change material absorbs heat as it melts, storing more thermal energy without increasing temperature as quickly as a conventional solid heatsink.

The APL team printed single-piece housings, filled and sealed them, and tested two configurations against a conventional aluminum design. According to APL, one configuration matched thermal capacity with more than a 50% reduction in size and weight, while another increased capacity within the same volume. The prototypes passed the team’s leak testing and performed as expected in the initial comparison.

This is development work, not a commercial qualification. Electronics, aerospace and defense teams with short, intense heat loads are the direct audience, but the design principle is broader: additive manufacturing can place internal volume where conventional assemblies cannot.

Practical takeaway: Functional integration should simplify the whole system, not just the printed part. Include sealing, fill procedures, cycling durability, inspection and repair in the design review. Read the Johns Hopkins APL SPEAR report.

6. Foam-filled titanium lattice floats after damage

RMIT University researchers reported a 3D-printed titanium lattice made from hollow, interconnected struts filled with polyurethane foam. The open structure allows water through its exterior while sealed foam cells inside the struts preserve buoyancy. Samples remained afloat in freshwater for more than two months, and a prototype buoy stayed stable during a turbulent tank test.

RMIT reported that the hybrid structure was 70% stronger than stainless steel or high-density polyethylene at the same overall density. After two weeks in natural seawater, test samples lost 0.15% of their mass and less than 1% of their strength. The structure also remained buoyant after cracking and localized failure.

Marine-infrastructure designers, sensor manufacturers and lattice-design specialists may find the damage-tolerant concept useful. However, researchers still plan larger demonstrations and longer testing in realistic marine and deep-sea conditions. Short laboratory and tank tests do not establish service life.

Practical takeaway: When a lattice serves more than one function, define failure modes separately. Strength, corrosion, water ingress and buoyancy can degrade at different rates and need different inspections. Read RMIT’s floating-titanium research summary.

7. SprintRay launches a highly filled dental printing resin

SprintRay launched Midas Restore, a light-curable dental resin containing more than 75% glass-ceramic and zirconia filler by weight. It is designed specifically for the company’s Midas Digital Press and became available in the United States on September 1. The FDA issued a 510(k) substantial-equivalence determination for the material in April for specified professional dental restorations.

The launch shows how printer architecture and material formulation can be developed together. Highly filled resins can be difficult to move and recoat in conventional vat processes, so SprintRay designed the material for its pressure-based capsule workflow. Claims about wear, polish and mechanical performance in the launch announcement are manufacturer test results, not independent clinical comparisons.

Dental laboratories and practices are the immediate users. For industrial manufacturers, the relevant lesson is platform specificity: a material validated on one machine, exposure system and post-cure workflow should not be assumed suitable for another.

Practical takeaway: Treat the printer, material, software and post-processing instructions as one qualified process. Do not substitute components without documenting the effect on the finished part. Read SprintRay’s Midas Restore announcement and the FDA 510(k) decision summary.

What This Means for Additive Manufacturing Production

  • Production scale is moving upstream and downstream. Titanium processing, filament extrusion, finishing and acceptance are receiving investment alongside printers.
  • Fleet management needs evidence. Multi-machine aerospace capacity and multi-bed slicing both require controlled profiles, comparison parts and documented releases.
  • Integrated function is a growing design advantage. The APL heatsink and RMIT lattice combine geometry with thermal storage or buoyancy, but they also create new inspection questions.
  • Application-specific validation remains essential. Early software, research prototypes and medical materials each have different evidence thresholds. None should be generalized beyond its tested workflow.

The common thread is disciplined system design. A machine purchase or material launch is only the beginning; repeatable output comes from controlling the inputs, documenting the process and checking the finished result against the real requirement.

Conclusion

For manufacturers in Barron County and the surrounding region, the immediate opportunity remains practical: a replacement part that is no longer stocked, a fixture that shortens setup, a jig that reduces variation or a prototype that needs one more iteration before tooling.

If your team has one of those problems, contact Stuntz Manufacturing to review the application. You can also compare available 3D-printing materials before requesting help.

Sources

  1. IperionX via GlobeNewswire, “IperionX Secures Second U.S. Army Task Order to Accelerate Industrial-Scale American Titanium Production,” August 31, 2026. Direct source.
  2. Prodways Group via WebDisclosure, “Large order for a dozen MovingLight ceramic printers in the United States,” September 2, 2026. Direct source.
  3. 3Druck.com, “3devo Filament Maker X10: New Extruder for In-House Filament Production,” September 4, 2026. Direct source.
  4. 3devo, “Filament Maker X10,” publication date not shown; accessed September 7, 2026. Manufacturer specifications.
  5. Prusa Research, “PrusaSlicer 3.0 Preview – Built for the Future of 3D Printing,” September 1, 2026. Direct source.
  6. Johns Hopkins University Applied Physics Laboratory, “Johns Hopkins APL Researchers Developing New Heatsink Using Additive Manufacturing,” September 1, 2026. Direct source.
  7. RMIT University, “Engineers create a world-first in floating titanium,” September 3, 2026. Direct source.
  8. SprintRay, “SprintRay Introduces Midas Restore,” September 1, 2026. Direct source.
  9. U.S. Food and Drug Administration, “510(k) Decision Summary: Midas Restore (K260661),” April 15, 2026; background regulatory verification. Direct source.