This Report shows how tools like artificial intelligence, digital twins, and on-demand manufacturing are no longer emerging concepts, but are already delivering measurable impact across the product lifecycle.
Metal 3D printing enables the creation of complex and precise components directly from digital designs. To achieve desired aesthetic and functional qualities, the printed parts sometimes require finishing processes.
What if the secret to transforming manufacturing lies in how we print? The answer may lie in a single layer, as the ability to precisely jet valuable materials layer by layer offers a new level of manufacturing freedom.
This article explores the role of biocompatible inks in bioelectronics, particularly within Direct Ink Writing (DIW) systems and forecasts future trends and challenges in on-body and in-body bioelectronic technologies over the next decade.
EPFL researchers have developed a way to use holograms to guide laser light for ultra-efficient, fast, and precise volumetric 3D printing. The innovation enables cell-compatible, high-resolution 3D printing at scales suitable for biomedical applications.
Princeton researchers have combined brain cells and advanced electronics into a 3D device that can be programmed to recognize patterns using computational techniques.
Discover how iAM Marketplace simplifies industrial additive manufacturing by unifying materials, validation services, and multi-brand technologies into one open ecosystem for efficient AM sourcing.
This article discusses what attendees can expect from TCT Asia 2026, including its conference format, focus areas, and the experts contributing to industry-specific discussions.
This article discusses the exhibitors, products, and industrial trends defining additive manufacturing across the Asia-Pacific region at TCT Asia 2026.
This article discusses how the Asia-Pacific region is advancing additive manufacturing and the role of TCT Asia as the leading 3D printing and additive manufacturing event in the Asia-Pacific.
Metal 3D printing enables the creation of complex and precise components directly from digital designs. To achieve desired aesthetic and functional qualities, the printed parts sometimes require finishing processes.
What if the secret to transforming manufacturing lies in how we print? The answer may lie in a single layer, as the ability to precisely jet valuable materials layer by layer offers a new level of manufacturing freedom.
This article explores the role of biocompatible inks in bioelectronics, particularly within Direct Ink Writing (DIW) systems and forecasts future trends and challenges in on-body and in-body bioelectronic technologies over the next decade.
As technology continues to advance, the educational sector is evolving to ensure that students are equipped with the skills and knowledge necessary for the future.
Automated solutions in post-processing address the challenges of 3D printing workflows, allowing for more precise sorting, efficient handling of diverse parts, and rapid iteration without manual bottlenecks.
In the world of precision machining, efficiency and reliability are paramount. This case study explores the challenge, solution, and benefits of integrating a metal 3D-printed coolant ring into the machining process.
Leaning into the flexibility aspect previously covered, we want to be clear that 3D printing can be integrated in all types of automated packaging systems such as filling, sealing, labeling and wrapping machines, palletizing systems and many others.
Injection molding vs. 3D printing doesn’t have to be an either/or proposition. Some projects use both processes during a product’s lifecycle. Traditionally, 3D printing has been used for prototyping and injection molding has been used for production.
3D printing applications continued to flourish in more technical industries, and the technology has become an intrinsic part of manufacturing and producing products from hearing aids, dentistry parts or surgical instruments and inhalers.
Explore Voltera's innovative project to create a seven-layer magnesium-zinc battery using printable technology. Developed with Saral Designs and employing the NOVA system, the project focuses on building lightweight, flexible, and environmentally friendly batteries on PET substrates.
Metal 3D printing requires precise control over a variety of parameters to achieve high-quality parts. Whether you're printing aerospace components, medical devices, or complex machinery, understanding the core settings that influence the outcome is crucial. Lets talk about the most important ones.
This article compares HP Multi Jet Fusion (MJF) and Selective Laser Sintering (SLS) 3D printing technologies and provides insights on how to choose the optimal process for your specific parts.