There is a near-infinite number of material candidates out there—and simply not enough time to hunker down in the lab and ...
Most solid materials we rely on, from steel, to plastics and ceramics, are designed to have specific properties. Whether a ...
Composite materials are engineered by fusing different materials, typically consisting of a matrix (a polymer, metal, or ceramic) and a reinforcement (such as fibers, particles, or flakes) that ...
Polymer matrix composites (PMCs) are made by reinforcing a polymer-based matrix with glass, carbon, or aramid fibers. PMCs are classified into thermosetting and thermoplastic resins based on the type ...
Decarbonization goals call for advancing high-impact energy technologies. The U.S. has pledged to achieve net-zero emissions by 2050, a goal that presents both challenges and opportunities in the ...
This Collection supports and amplifies research related to SDG 9 - Industry, Innovation & Infrastructure. Discovering new materials with customizable and optimized properties, driven either by ...
Refractory materials, recognised for their exceptional resistance to heat and corrosive environments, are critical to many high‐temperature industrial processes. Their ability to withstand extreme ...
History has shown that materials science has long prized symmetry and stability, celebrating crystals whose atoms lock into place like repeating tiles on an infinite floor. It is this type of order ...
A close-up image of a dark crystal held between two metal rods on a yellow background Researchers created a lead-free piezoelectric material (shown under a microscope), which could provide a ...
Materials engineers are at the forefront of nanotechnology, biomaterials and microelectronics, as well as traditional technical fields. A degree in this discipline equips you to analyze the structure ...