In 2026, 3D shoes become industrial reality: Zellerfeld, PollyFab and others offer production platforms, AI design and dedicated materials. From custom footwear to orthopedic soles, the industry abandons experimentation for scalable models and digital customization.

SLS 3D printing in Nylon 12 produces custom pediatric prostheses in 8-10 hours. The Pedi-Knee prototype weighs 240g with 0-120° flexion. Rapid workflow and clinical-industrial partnerships allow devices to be adapted to a child's growth with frequent iterations and sustainable costs.

To customize wearable devices in series, four pillars are needed: modular architecture, AI and biometric scans for ergonomic variants, hybrid production processes, and end-to-end digital integration. Missing one and the system collapses.

Flexible 3D structures that become rigid: variable geometries, asymmetric struts, and central limiting structures allow for the controlled transition from flexibility to rigidity, optimizable with 3D printing and composite materials.

The Metal AM market in 2026 exceeds 6 billion with a decisive turning point: for the first time, data include defense and maritime, revealing hidden dynamics. Solid growth, a data-driven approach based on real data, and consolidation towards specialized applications will guide winning strategies.

Automating the post-processing of resin improves precision and repeatability. A modular workflow adapts each phase to the specific parameters of the material, reducing errors and manual times. The integration between the printer and washing/curing stations enables certified, traceable, and scalable flows, ideal for professional and biocompatible applications.

New patented method for thermal control in metal 3D printing reduces times by up to 47% and prevents defects caused by overheating, improving quality and repeatability.

Additive manufacturing is transforming sectors such as aerospace and healthcare, where complex geometries and customizations offer tangible structural and economic advantages, confirming the mechanism of creative destruction.

3D bioprinting uses 15% GelMA and 0.5% LAP to create precise and reproducible tissue models. Photopolymerization at 405 nm and low/intermediate speed printing ensure high cell viability. The use of viscoelastic supports such as Pluronic allows for complex geometries without cell damage. Modular systems such as MagMix easily integrate existing platforms, improving

Optimizing additive production requires a holistic vision that includes not only print time, but also preparation phases, order aggregation, and post-processing. Often overlooked, these latter stages represent the true bottlenecks. To improve efficiency and reduce delivery times from 3 days to 3 hours, it is essential to integrate the entire production flow into a system

Next-generation photopolymer resins cost more because they are formulated to emulate the properties of engineering plastics like PP or TPU, with chemical precision and control of mechanical characteristics. They are not simple liquids: each resin is designed for specific applications, ensuring quality, durability, and performance similar to injection molding. The difference in pr

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.