Equipment

Carbon Fiber Reinforced Plastic (CFRP) is replacing metal in many aerospace applications, and controlling internal stresses is necessary for performance.

A novel waterfall cooling channel reduces pressure drop by 56% and boosts cooling efficiency in injection molding compared to conventional designs.

Recycled polypropylene enters pipe systems under rising mandates, yet impurity control ultimately governs crack kinetics and service life.

Understanding the complex relationships between fibers, melt flow, and microstructure characteristics can help leverage the benefits of this high-performance material.

Polymer science enables modular, durable, and precise Battery-as-a-Service systems, advancing efficiency and scalability in energy solutions.

Advances in high-performance polymers are enabling subway systems to meet demands for fire safety, structural efficiency, and lifecycle durability.

E-beam technology enhances polymers with wear resistance, fatigue strength, and integrated sterilization, redefining medical implants and devices.

Whether it’s being used in a university laboratory or a brand owner technical center, the right equipment makes all the difference in executing effective research on materials and processing. And, in the case of academia, the equipment materials engineering students master can have a significant impact on their immediate career prospects.

A new generation of conductive plastics allows engineers to print sensors directly onto flexible, skin-like materials, paving the way for a new era of personalized health.

Additive manufacturing, or 3D printing, pushes conventional limits for manufacturing sensors used for monitoring environmental changes and conditions.

Plastics emit 3% of global CO₂. Aligning the value chain—via recycling, clean tech, and circularity—can cut emissions up to 90% by 2050.

Seventy percent of FDM energy goes to the heated bed, but adjusting processing parameters can cut this waste in half while maintaining part strength and surface quality.