The Breast Cancer Locator by Cairn Surgical is a customized 3D guide obtained from magnetic resonance imaging to precisely locate breast tumors during lumpectomies. Created using 3D printing with biocompatible materials, it improves surgical margins, reduces reoperations, and offers millimetric positioning of the guide wire and dye. The device, created based on the anatomy

PreFlight is a new open-source slicer for FFF/FDM developed by oozeBot, designed to overcome the architectural limitations of traditional software. With a native 64-bit architecture and modern stack (C++20, OpenCASCADE, CGAL), it aims to ensure greater reliability, precision, and scalability in professional slicing. It introduces advanced features such as Athena Perimeter Generator and Interlocking Per

Chitosan bioprinting allows the creation of customized patches for chronic ulcers, combining mechanical barrier, antibacterial release, and support for tissue regeneration. Studies from the University of Mississippi show promising results in accelerating healing and reducing infections, thanks to the biocompatible and multifunctional properties of chitosan. The technol

An ESA project is studying how to transform lunar regolith into conductive materials to print electronic components in space, reducing dependence on Earth-based supplies.

3D printing is revolutionizing wearable fashion, as demonstrated by the case of AMISS, an Australian brand that has integrated this technology into its creative workflow. By collaborating with Creality, AMISS has drastically reduced production times and costs, eliminating outsourcing and accelerating the creative cycle. Through a complete digital process, from design to final printing, the brand has

The choice of materials for medical implants requires a balance between biocompatibility, durability and costs. Titanium, PEEK and bioresorbable materials such as magnesium offer different solutions with specific advantages. Innovations such as TPMS structures and AI improve bone integration and reduce operating times. Customization enables better results, albeit with higher initial costs

New smart heat exchangers, made with 3D printing technologies and patented, offer greater thermal efficiency without pumps or fans. Thanks to innovative geometries such as partial fins and preloaded integration in engines, weight, costs and consumption are reduced, improving reliability and facilitating assembly. Applications in data centers and aerospace confirm adva

Innovation in materials and advanced recycling are transforming the manufacturing industry. Arkema, with the Virtucycle® program, promotes the use of recycled polymers without compromising performance. Technologies such as chemical recycling and 3D printing with recovered powders reduce environmental impact and costs. Strategic collaborations and bio-based materials open new paths towards an econ

3D printing is revolutionizing university laboratories, integrating into teaching and research processes. A key tool for rapid prototyping, it allows students to translate theory into practice, accelerating learning. Case studies such as drones and aerospace components demonstrate the real-world application of the technology, supported by advanced motion capture systems and workflow

3D printing is revolutionizing dentistry, enabling rapid and customized production of dental devices directly in the office. Thanks to technologies such as SLA, DLP and PolyJet and biocompatible materials, it is possible to create crowns, surgical guides, orthodontic models and prostheses in reduced times, with greater precision and lower costs compared to traditional methods. The integr

Uptool, a startup founded in 2024, uses AI to automate administrative processes for small manufacturing workshops, reducing the time for quotes by up to 60%. With $6 million in funding, the platform promises to increase the efficiency and competitiveness of companies, allowing them to focus on growth and customer relationships.

Researchers from IMDEA Materials Institute and UPM have developed 3D-printed Nitinol metamaterials with intertwined structures that restore superelasticity, overcoming the limitations of traditional 3D printing. Thanks to tissue-inspired geometries, it is possible to obtain advanced biomedical devices and smart actuators, opening new perspectives for clinical and engineering applications