3D Printing/Additive Manufacturing

Dual-curing represents an innovative approach that enhances control over the final properties of parts through a multistage curing process.

Plastic technology not only broadens designers’ creative horizons but also brings innovative approaches to manufacturing, sustainability, and user experience. Designers with a grasp of plastic technology can transform industrial design, creating groundbreaking products that meet manufacturing demands and environmental standards.

More manufacturers are turning to additive manufacturing to ensure consistent outcomes. But many may not fully grasp how or why they should incorporate it into their processes. If you’re continuously hitting roadblocks, production is slow, or you’re stuck with outdated technologies, additive manufacturing offers solutions. Utilizing it can help your processes by producing complex parts, reducing material waste, customizing products, boosting supply chain efficiencies, and enabling low-volume production.

The need to lower the steep costs of traditional manufacturing, involving expensive tooling and molds, makes advancing composite manufacturing a key research focus.

The rapid proliferation of 3D printing technologies across various sectors has heralded a new era of manufacturing efficiency and innovation. However, plastic waste generation necessitates urgent and effective recycling strategies.

Researchers at Sandia National Laboratories have developed a much faster 3D printing process using dual-wavelength light that yields tougher, stronger nonmetallic parts.

Researchers at the KTH Royal Institute of Technology and Stockholm University in Sweden have unlocked a game-changing potential in 3D printing technology. By hacking into a 3D printer, they’ve transformed it into a versatile tool akin to a laser printer, capable of printing various polymers without the need for solvents, chemicals, or stringent clean room conditions.

With the growing demand for environmentally friendly activities and considering that 37% of global greenhouse gas emissions are currently generated by the construction sector, the implementation of sustainable construction has become a necessity.

In the extensive world of materials science and industrial processes, selecting the right rheometer for our specific applications often feels like navigating a complex puzzle. Each piece must fit precisely to unlock the full potential of material characterization,  R&D, and process optimization.

Have you considered the potential of transforming household fruit and vegetable waste into 3D printing filaments? The BARBARA project has successfully developed biopolymers, enhanced with bio-additives derived from food waste, for the additive manufacturing of components.

A pair of U.S. defense-related organizations –– America Makes and NCDMM –– have awarded funds to a project designed to optimize recycled PET (rPET) and rPET-based composites in filament-fed material extrusion 3D printing.

Melt Electrowriting (MEW) emerged in the biomedical and tissue engineering outlook over a decade ago as a method for printing structures on the low micrometer or nanometer scale. But how does it work, and what does the future hold for this technology?