Medical

Alice Fergerson, along with Emily Davidson’s team at Princeton University, has developed a breakthrough material: a 3D-printable thermoplastic elastomer (TPE) that combines localized flexibility with controlled rigidity.

Thermal conductivity plays a key role in mold manufacturing, especially for industries requiring quick and efficient production cycles. High thermal conductivity allows faster cooling, which shortens production cycles and enhances efficiency.

Researchers recently optimized fiber diameter for nonwoven fabrics using advanced statistical tools, enhancing production efficiency and fabric performance for diverse applications.

Polish researchers have evaluated hydrogel microspheres made from chitosan and carrageenan as effective vitamin carriers for skin care.

Selecting the right alloy for mold manufacturing is essential for meeting industry demands for durability, thermal conductivity, and manufacturability.

The temperature that the polymer experiences upon entering the mold and during solidification directly affects several part properties, ranging from surface appearance to mechanical performance.

The successful use of 3D-printed polyether ether ketone (PEEK) spinal implants highlights the powerful role of additive manufacturing in complex medical treatments.

A UK-based startup is revolutionizing the orthotics industry by streamlining the ordering and production processes for custom orthotics.

Researchers from New Zealand developed a method to transform commercial-grade silicone into a repairable vitrimer by incorporating elemental sulfur.

Reverse engineering (RE) in plastics processing has become an essential method for product reproduction, improvement, and optimization. It involves a thorough understanding of the design, manufacturing, assembly, and maintenance stages.