An artificial intelligence model developed by KIMS and Max Planck Institute predicts the mechanical properties of metal components produced with LPBF, analyzing pore morphology without destructive testing.

The real uptime of industrial 3D printers exceeds 90%, with less than 73 hours of annual downtime. Metrics such as MTBF and MTTR are essential for evaluating reliability. The difference between hobby and industry lies in construction details: robust frames, mechanical auto-leveling, and automation reduce dead times. The main causes of downtime are thermal instability, mechanical wear, and human errors.

Laser cladding offers an innovative and sustainable solution against corrosion, overcoming the limits of hard chrome plating. This technology deposits resistant alloys directly onto surfaces, without toxic substances such as hexavalent chromium, ensuring a strong metallurgical bond and precise control of the layer. Compared to chrome plating, it reduces the CO₂ footprint by up to 12 times and perme

3D printing makes hydrogen safer for use in transportation by eliminating joints and improving the strength of metals.

The US Navy introduces a “material maturity” framework to certify 3D printed materials, reducing logistics lead times by 70% and integrating additive parts into the supply chain without compromising safety or reliability.

The implementation of AI in production process control requires a systemic approach that goes beyond the optimization of individual machines. To achieve significant results in additive manufacturing, it is necessary to integrate data, automation, and open standards throughout the entire production cycle. Only then can AI become the “digital nervous system” of the factory, ensuring quality,

The additive manufacturing sector is consolidating on vertical niches such as aerospace, medical, and foundry, abandoning the logic of horizontal coverage. The companies that survive focus on specialization, integration into client workflows, and reliable solutions, not just innovation. Success now depends on the ability to generate concrete economies and ensure uptime and repeatability.

The 3D market is splitting: on one side entry-level systems under $2,500 are growing over 30%, on the other high-end industrial platforms are struggling. Three sectors are driving demand: aerospace, defense and healthcare. China records strong increases in metal PBF. Business models are differentiating: providers are targeting specific segments to stay competitive. Future growth

In aerospace additive manufacturing, in-process inspection with calibrated measurements overcomes the limits of passive monitoring. Technologies such as structured light metrology enable objective, traceable, and comparable controls between machines, reducing qualification costs and times.

Many additive startups fail because they focus on technology without building a sustainable business. A solid economic model, paying customers, and strategic patience are needed.

Additive Manufacturing (AM) succeeds in production only when applied to specific cases with high functional requirements, not to replace traditional methods, but to solve needs that these cannot satisfy. Success depends on consolidated designs, controlled materials, fixed parameters, and disciplined post-processing. Sectors such as aerospace, medical, and tooling exploit the

3D printing improves with two patented innovations: controlled vibrations and smart sensors for precise powder distribution. These systems reduce defects, waste, and post-production rework, increasing quality and repeatability without changing materials or machinery.