Industrial 3D printing presents often underestimated contractual risks, with clauses that unilaterally shift liability and costs onto clients. Key points include: GPS tracking, geographic limits, training obligations, vague definitions of “failure”, and choice of jurisdiction. It is essential to negotiate fair contracts to avoid legal constraints and ensure safe operations.

The collaboration project between NAICO Malaysia and WAAM3D demonstrates the concrete integration of Wire Arc Additive Manufacturing (WAAM) in civil engineering, with a systemic approach covering every phase of the process, from engineering to finishing. Through the MiniWAAM platform, the project develops advanced industrial capabilities, promoting the efficient production of metallic components of

From agricultural waste to construction materials: an innovative industrial process transforms waste such as straw and peels into eco-friendly panels and bricks. Technologies such as robotic extrusion and 3D printing enable the creation of high-performance biocomposites, reducing the environmental impact of construction. Projects such as CORNCRETL in Mexico and European initiatives demonstrate industrial feasibility

Industrial 3D printing can reduce environmental impact, but it requires strategic choices on materials, energy efficiency and life cycle management. Although it offers advantages such as less waste and simplification of the supply chain, the real benefit depends on sustainable feedstocks, efficient processes and recovery policies. Studies show that the use of recycled material and energy sources

Prusa launches PETG Ultraglow, a high-quality phosphorescent filament. Superior to glow-in-the-dark PLA for brightness and durability. Ideal for technical and safety applications thanks to the resistance of PETG and its ability to shine for a long time. Requires hardened nozzles for printing. High cost but justified for professional use.

3D printing is revolutionizing architecture: models and concrete houses in days, zero waste, recycled materials and circular design for a sustainable future.

Cornell prints 3D concrete on the seabed using marine sediments: lower costs, zero transport, autonomous robots and reduced environmental impact for sustainable infrastructure.

3D Printing and Bio-Recycled Materials: Circdal revolutionizes construction with circular economy, local zero-waste production, and regenerative architectures.

3D Printing Drives Industry 4.0: automotive, aerospace, healthcare, and construction adopt it for custom parts, reduced costs, and local production. Market from 40 to 250 billion by 2035.

3D printing revolutionizes luxury and automotive: Subaru produces accessories in-house, Bentley uses 3D platinum, PRO creates ultra-lightweight saddles. More sustainability, customization, and impossible design.

Industrial 3D printing scales volumes and speeds: SLA and FDM XXL, advanced materials, Industry 4.0 automation, and new frontiers in tooling, construction, and aerospace.

In 2026, record investments in industrial 3D printing: +51% hardware revenue, China boom +221%, defense and water infrastructure projects with CO₂ savings up to 501%.