New 3D printing generates metal-ceramic composite in situ: components come out already resistant to wear, cutting times and costs of post-treatments.

AI transforms metal 3D printing from prototyping to serial production: real-time control, early defect detection, reduced costs and waste. Precision Additive launches ultra-fast LPBF platform, paving the way for critical aerospace and energy components.

3D printing eliminates molybdenum segregation in superalloys, ensuring homogeneous microstructures without expensive remelting processes. More reliable components for gas turbines and aerospace.

Intelligent thermal control in 3D printing: adaptive pauses and real-time sensors reduce defects by up to 47%, cutting waste and time even in aerospace and medical fields.

In 2025, additive manufacturing of metals and ceramics enters industrial production: DED heads without chamber, LFAM for large structures, 3D ceramics for medtech and semiconductors.

Industrial mass customization leverages 3D printing and AI to produce customized components at competitive costs, transferring flexibility from consumer to B2B and reducing times and waste.

To scale additive manufacturing, end-to-end planning is needed: integrate printing, post-processing and the supply chain, monitor flows and bottlenecks, use specific software and build repeatability on data and standards, not just on machines.

Formnext 2026 and major fairs show mature additive manufacturing: large parts, AI, IoT, and concrete cases in aerospace, healthcare, and defense for productivity and certain ROI.

Industrial 3D printing grows beyond 20% annually, moving from 40 to 250 billion dollars by 2035. Automation, aerospace, and defense adopt it for critical parts, cutting costs and times. Challenges: scalability, regulations, skills.

The lack of skills is slowing the growth of additive manufacturing: universities, industry, and certifications converge to rapidly train 4.0 professionals.

The EU pushes for shared standards for autonomous systems and additive manufacturing: rigorous qualification, traceability, and ISO/AS certifications to accelerate industrial adoption and reduce risks.

Metal additive manufacturing is now essential in aerospace and defense: lightweight alloys, DMLS/EBM/FFF processes and increasingly stringent certifications reduce weight, times and costs, but powder qualification and supply-chain remain the main challenges.