A new method for analyzing protein crystals – developed by Cornell researchers and given a funky two-part name – could open up applications for new drug discovery and other areas of biotechnology and biochemistry.
Students and lifelong learners are invited to explore a new interest, enhance their resume or strengthen their professional skills through Cornell’s Fall Part-Time Study Program, which runs Aug. 22 – Dec. 17, 2022. Registration for most students begins August 1.
An interdisciplinary Cornell team has identified a new mechanism regulating tumor growth in the skeleton, the primary site of breast cancer metastasis: mineralization of the bone matrix.
In a first-of-its-kind analysis, Cornell researchers and partners at the Clinton Health Access Initiative found that pharmaceutical producers could reduce their environmental impact by roughly half by optimizing manufacturing processes and supply chain networks and by switching to renewable energy sources.
Physicist Kin Fai Mak has received a $1.25 million grant from the Moore Foundation Experimental Physics Investigators Initiative to further his research into electron behaviors by studying two-dimensional crystals.
Cornell researchers used magnetic imaging to obtain the first direct visualization of how electrons flow in quantum anomalous Hall insulators, and by doing so they discovered the transport current moves through the interior of the material.
Johannes Lehmann, Colin Parrish, Bik-Kwoon Tye and Michelle Wang are Cornell’s 2023 electees to the National Academy of Sciences (NAS), the academy announced May 2 at the close of its 160th annual meeting.
Current instrumentation being sent to Mars to collect and analyze evidence of ancient life on the red planet might not be sensitive enough to make accurate assessments, according to an international research team co-led by a Cornell astronomer.
Cornell researchers have for the first time characterized a key property of the superconducting state of a class of atomically thin materials that are too difficult to measure due to their minuscule size.