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Researchers developed a more controlled way of making nickelates, a material that could potentially help pinpoint the key qualities that enable high-temperature superconductivity.
The Cornell Center for Materials Research (CCMR), in partnership with NYSTAR, is providing technical assistance and funding to help three NYS startups advance their technology.
Researchers went searching for a quantum spin in the popular semiconductor gallium nitride and found it, surprisingly, in two distinct species of defect.
For the first time in Cornell Engineering’s history, every school and department currently has, or will soon have, a woman faculty member on the college’s executive leadership team. The milestone comes as the college celebrates the 140th anniversary of its first woman engineer.
David Muller, professor of applied and engineering physics, has been honored with the 2023 John M. Cowley Medal from the International Federation of Societies for Microscopy and the 2024 Joseph F. Keithley Award for Advances in Measurement Science from the American Physical Society.
Cornell is spearheading the New York Consortium for Space Technology Innovation and Development – a new initiative aimed at bolstering U.S. space technology research and manufacturing by uniting industry, academic and government partners.
From exploring the mechanics of early-stage bone metastasis to analyzing price formation policies in wholesale electricity markets, Cornell Engineering’s Sprout Awards are funding unique research projects with the potential to grow partnerships across Cornell.
Lena F. Kourkoutis, M.S. ’06, Ph.D. ’09, an associate professor in the School of Applied and Engineering Physics, who was internationally recognized for her advances in cryo-electron microscopy, died on June 24 at the age of 44 after living with colon cancer for two years.
Using a precisely tuned, ultrafast laser, a Cornell researcher showed that the atomic structure of yttrium titanate could be changed to stabilize its magnetism at temperatures three times higher than was previously possible.
A Cornell-led collaboration harnessed chemical reactions to make microscale origami machines self-fold – freeing them from the liquids in which they usually function, so they can operate in dry environments and at room temperature.
