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3D printing has emerged as a game-changer in the medical field, particularly in the development of prosthetics and orthotics. While the technology allows for highly customizable solutions, challenges persist, especially concerning the limited availability of these prosthetics. However, a recent breakthrough in 3D printing research by Loughborough University could potentially revolutionize the creation of prosthetic sockets.

Stratasys and Siemens Healthineers partnered to develop a technology that translates information from scanned patient images (CT) into 3D-printed phantom models with specific material characteristics that emulate the radiopacity of human anatomy.

In an era dominated by Industry 4.0, where optimization and sustainability are paramount, companies are turning to cutting-edge technologies to enhance their product offerings. Among these technologies, 3D printing has emerged as a transformative force, addressing the needs of rapid prototyping and end-use part production.

Imagine a future where organs or tissues can be 3D printed directly inside the human body. This once far-fetched idea is now on the horizon, thanks to a pioneering 3D printing process developed by researchers at Duke University and Harvard Medical School.

The marriage of nano- and microscale 3D printing has ushered in a new era of design freedom and efficiency, propelling groundbreaking innovations in micro-optics and micromechanics. These advancements not only drive new developments but also set the stage for technological progress, leading to the increased commercialization of 3D printing techniques tailored for micro- and nano-objects. At the forefront of this transformative wave is the crucial process of two-photon polymerization (2PP).

AI has become an important tool for the development of new materials, enabling R&D scientists to develop new materials with improved properties and functionalities. Data analysis and prediction A significant form of AI’s contribution is data analysis. By sorting through…

In the realm of plastics engineering, additive manufacturing stands as a game-changer, slashing lead times and enabling the creation of intricate, custom parts through techniques like fused filament fabrication (FFF). While hailed for its prowess, challenges persist in achieving consistent isotropic bulk properties and ensuring reliability in the printed components.

Jay Dinsmore, the new Chairman and an industry veteran, shares insights on the group’s mission and his perspectives, shedding light on the dynamic future of additive manufacturing and 3D printing within the plastics engineering community.

Plastics play a pivotal role in additive manufacturing, catering to diverse needs in various sectors. This article delves into the world of two polymer forms—filaments and pellets—exploring their characteristics, applications, and compatibility with 3D printing processes.

Working with U.S. startup Inkbit, researchers in Switzerland have, for the first time, say they have found a way to 3D print slow-curing polymers.