Has your skin ever felt tight and dry after coming out of the ocean? You’re not just imagining it. Scientists from Binghamton University, State University of New York have confirmed what beachgoers have felt for years – saltwater dries out your skin – and why it happens. 

Dr. Congrui Grace Jin and her colleagues from the University of Nebraska-Lincoln have worked for years on bio-manufacturing engineered living materials and have developed a synthetic lichen system that can form building materials with no outside intervention. Their latest study, funded by the NASA Innovative Advanced Concepts program and recently published in the Journal of Manufacturing Science and Engineering, applies this research to the autonomous construction of structures on Mars, using the planet’s regolith, which includes dust, sand and rocks.

WASHINGTON, D.C. —  Each summer, students from across the country begin internships with the U.S. Naval Research Laboratory (NRL), gaining hands-on experience in science and technology. These internships take place at various NRL locations, including sites along the Potomac River in Washington, D.C., the Stennis Space Center in Mississippi, and Monterey Bay in California. Each hoping for career growth that will take them to new horizons.

University of Arizona Health Sciences researchers are harnessing artificial intelligence and wearable tech to forecast labor, detect stress and transform how we monitor our health – before symptoms appear.

In an elegant fusion of art and science, researchers at Rice University have achieved a major milestone in nanomaterials engineering by uncovering how boron nitride nanotubes (BNNTs) — touted for their strength, thermal stability and insulating properties — can be coaxed into forming ordered liquid crystalline phases in water. Their work, published in Langmuir, the premier American Chemical Society journal in colloid and surface chemistry, was so visually striking it graced the journal’s cover.

In the latest issue of Engineering, researchers from Donghua University and the University of British Columbia present a new design methodology for 3D rotary braiding machines. This innovative approach, based on an average cutting circle strategy, allows for the creation of complex geometric textile composites with enhanced flexibility and precision. The study details how varying the number of incisions on horn gears and combining different cut-circles can significantly expand the capabilities of 3D braiding technology. The findings offer a practical solution for producing intricate 3D braided structures, with potential applications in aerospace, automotive, medical, and emerging fields like nanogenerators and sensors.