Materials scientists at Cornell have developed a method for better understanding the complex electrochemical reactions that occur at the interface of water and metal surfaces – an approach that will ultimately lead to better fuel cells and other electrochemical technologies.
A new all-dry polymerization technique uses reactive vapors to create thin films with enhanced properties that could lead to improved polymer coatings for microelectronics, advanced batteries and therapeutics.
Christopher K. Ober, professor of materials science and engineering, has been elected to the National Academy of Engineering, among the highest professional distinctions for an engineer.
The project, dubbed AUGER (Accelerating Use of Geologically-driven Engineering & Reclamation), was awarded $739K of funding from NSF’s Convergence Accelerator to support translational research combining x-ray and hyperspectral imaging capabilities at CHESS with remote sensing techniques to link macroscale data with microscale mineral properties to create predictive mining insights.
Cornell scientists have unearthed precise, microscopic clues to where magma is stored in Earth’s mantle, offering scientists – and government officials – a way to gauge volcanic eruption risk.
A synthetic biosensor that mimics properties found in cell membranes and provides an electronic readout of activity could lead to development of new drugs and the creation of sensory organs on a chip.
From new approaches for tendon injury treatment to biomass-based construction materials, Cornell Engineering’s inaugural Sprout Awards are funding unique research projects with the potential to grow partnerships across Cornell.
A new study by a group of universities including Cornell has for the first time revealed the global extent of a layer of melted rock encircling the Earth below its tectonic plates.
New York Lt. Gov. Antonio Delgado engaged with students and faculty on topics ranging from biological engineering to nutrition to 4-H programs during his first tour of the Ithaca campus on Feb. 2.
