Category: Innovations

Bioinspired Soft Robotics: How Multimaterial 3D Printing is Revolutionizing Integrated Actuators and Sensors

Bioinspired Soft Robotics: How Multimaterial 3D Printing is Revolutionizing Integrated Actuators and Sensors

Multimaterial 3D printing is revolutionizing bioinspired soft robotics, allowing the direct integration of actuators and sensors into flexible structures. This approach eliminates complex processes and accelerates prototyping and customization, opening new opportunities in the medical, surgical, and industrial fields.

How Energy-Absorbing Metamaterials Are Revolutionizing Structural Safety

How Energy-Absorbing Metamaterials Are Revolutionizing Structural Safety

Titanium metamaterials, thanks to their nature-inspired geometric structure realized with SLM 3D printing, absorb energy more efficiently and predictably than traditional materials. Designed to distribute stresses homogeneously, they offer a stable stress plateau during deformation, ideal for structural safety applications in the aerospace field

How AI is stitching together the engineering workflow with Aibuild OS

How AI is stitching together the engineering workflow with Aibuild OS

Aibuild OS is an AI platform that unifies the engineering workflow, integrating CAD, CAE, and CAM into a single intelligent environment. It eliminates fragmentation between tools, automates complex processes with “Digital Engineers,” and generates 3D models from text or 2D inputs, reducing errors and production times.

Alloy Evolution: How high-entropy refractory alloys are redefining the aerospace industry

Alloy Evolution: How high-entropy refractory alloys are redefining the aerospace industry

High-entropy refractory alloys are revolutionizing aerospace thanks to superior properties at extreme temperatures. Compared to traditional Inconel, they offer greater strength, lower weight, and better performance in applications such as combustion chambers, nozzles, and hypersonics. RCCAs, with disordered BCC structures, exceed melting and corrosion limits, opening up new possibilities for

How the Soft Optical SOLen Sensor Works in Medical Applications

How the Soft Optical SOLen Sensor Works in Medical Applications

The SOLen soft optical sensor uses light to measure deformations with high precision and stability, overcoming the limits of traditional sensors. Thanks to a 3D-printed Y-structure and a differential configuration of photoreceptors, it offers reliable measurements and is insensitive to environmental interference. Ideal for advanced medical devices, smart orthoses, and monitoring systems

Reducing healthcare costs with 3D printing: the economic impact of customized devices

Reducing healthcare costs with 3D printing: the economic impact of customized devices

Customized 3D printing reduces healthcare costs by preventing avoidable complications, such as oral mucositis, cutting nursing hours and unscheduled hospitalizations by up to 25%. Thanks to tailor-made devices, unnecessary radiological exposure is reduced, improving clinical efficiency and ROI.

BigRep and SEMA Garage: How 3D Printing is Revolutionizing the Automotive Aftermarket

BigRep and SEMA Garage: How 3D Printing is Revolutionizing the Automotive Aftermarket

The partnership between BigRep and SEMA Garage introduces 3D printing into the automotive aftermarket, facilitating local and customized production of aesthetic and functional components thanks to accessible technologies without direct investment.

How the Plug-and-Play Optical Interface Made with 3D Printing Works

How the Plug-and-Play Optical Interface Made with 3D Printing Works

New plug-and-play optical interface developed with 3D printing enables high-efficiency connections between optical fibers and integrated photonic circuits, with losses of only 0.78 dB. Thanks to polymer structures created via two-photon polymerization, the system offers passive alignment, compatibility with standard MTP cables, and stable performance over broad bandwidth, paving the way for photonic systems

How a Custom 3D Surgical Guide Works for Tumor Localization

How a Custom 3D Surgical Guide Works for Tumor Localization

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 and the Architecture of the Future: A New Approach to Slicing for FFF/FDM

PreFlight and the Architecture of the Future: A New Approach to Slicing for FFF/FDM

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

Medical Bioprinting with Chitosan: Design and Implementation of Personalized Therapies for Chronic Ulcers

Medical Bioprinting with Chitosan: Design and Implementation of Personalized Therapies for Chronic Ulcers

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

How to Transform Lunar Regolith into Printable Electronic Components

How to Transform Lunar Regolith into Printable Electronic Components

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

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