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From soft robots crawling through crops to bio-based fertilizers that protect waterways, the future of farming lies at the intersection of scientific disciplines, according to a new study describing how agriculture’s toughest challenges require coordinated breakthroughs in biology, chemistry, engineering and data science.
A team at Cornell has for the first time identified exactly what happens when a microbe receives an electron from a quantum dot: The charge can either follow a direct pathway or be transferred indirectly via the microbe’s shuttle molecules.
An advanced imaging technique developed at Cornell has revealed the first two-dimensional, mechanically interlocked polymer – confirming a breakthrough in both material design and electron microscopy.
On Monday, January 29th from 1:15 – 2:30pm in Philips Hall 101, Nobel Laureate Hiroshi Amano (Nagoya University) will present How a poor university lab sparked the blue LED revolution and will have a lasting impact on the net-zero-carbon emission and smart society of the future. This is an Electrical and Computer Engineering Colloquium and a part of KIC’s Kavli Distinguished Lecturer Series. Please join for a lunch reception at noon in 116 Upson Hall, which will precede the talk.
"For pioneering a new generation of electron detectors and phase-sensitive reconstruction algorithms leading to significant advances in the resolution and capabilities of electron microscopes."
Debanjan Chowdhury (KIC Exec Committee member and assistant professor, Physics and LASSP) find that "even a tiny amount of imperfection, inherent in any real-life material, plays a key role" to understanding the switch between a metal and an insulator within a single material.
A $2.5 million grant will fund 13 research projects across the sciences, social sciences and humanities for novel investigations ranging from quantum computing to foreign policy development and from heritage forensics to effects of climate change.
A Cornell-led collaboration led by Nicholas Abbott, Itai Cohen, Paul McEuen, and David Muller, 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.