Researchers devised a new method to image intact bacterial cells and large organelle up to 500-800 nanometers thick – a roughly fivefold improvement over current methods.
Cornell researchers have uncovered the surprising role played by a “three-tailed” fat molecule in cellular survival during heart attack and stroke: protecting the cells against damage when oxygen runs out.
Cornell researchers have demonstrated that, by zapping a thin film with ultrafast pulses of low-frequency infrared light, they can cause its lattice to atomically expand and contract billions of times per second, potentially switching its electronic, magnetic or optical properties on and off.
TRAPPIST-1 e, an Earth-sized exoplanet 40 light years away, may have an atmosphere that could support having liquid water on the planet’s surface in the form of a global ocean or icy surface.
Cornell University hosted the 2025 SUPREME annual review, bringing together academia, industry, and government to advance next-generation semiconductor innovation and workforce development.
A Cornell-led collaboration developed microscale magnetic particles that can mimic the ability of biomolecules to self-assemble into complex structures, while also reducing the parasitic waste that would otherwise clog up production.
The Center for Teaching Innovation will host “What Works,” on Oct. 1, featuring presentations, the Canvas Course Spotlight awardees, and a poster showcase that will demonstrate engaged learning approaches from Cornell faculty teaching in a diverse range of courses and fields.