Shaun Nichols, professor of philosophy and director of the cognitive science major in the College of Arts and Sciences, compares high-minded philosophical systems to the ways people approach everyday problems. Like picking wild blueberries.
Thin-film solar cells made from solution-processed crystalline materials are promising alternatives to silicon wafers, the core component that converts light into electricity in most solar panels today.
Potential applications of this research include high-performance topological quantum computers, quantum information processing, high-sensitivity sensors, and perfect spin filters.
Did racism and a fractured political landscape make the United States more vulnerable to COVID-19? Undergraduate researcher and McNair Scholar Ezinwa Osuoha '22 compares disease outbreaks in different nations.
With an award from the National Institutes of Health, a team of Arts & Sciences researchers is investigating neurological links between smell and context—like location.
With an award from the National Institutes of Health, Hojoong Kwak, molecular biology and genetics, will research mechanisms that regulate gene expression.
With a CAREER award, Phillip J. Milner, Chemistry and Chemical Biology, is developing sponge-like crystalline materials known as metal-organic frameworks (MOF).
The Shen lab leverages unique experimental capabilities to detect and investigate systems in which superconductivity may be fragile or exist only at surfaces or interfaces.
Rational functions are a mainstay of computational mathematics. As a result of recent breakthroughs, however, rational functions are now poised to become a central computational mathematics tool
Brianna Johnson ’21, who has had her own battles with diseases caused by microscopic organisms, found a passion for trying to understand their impacts and intricacies through biological sciences research.
Professor Tao Leigh Goffe works at the intersection of environmental humanities, science, and technology. As a researcher, writer, and DJ, she is especially interested in histories of imperialism, migration, and globalization.
Nilay Yapici, Nancy and Peter Meinig Family Investigator in the Life Sciences and assistant professor of neurobiology and behavior, investigates the mysterious brain-body connections that regulate eating behavior.
With support from the National Institutes of Health, Phillip J. Milner, Chemistry and Chemical Biology, is developing metal-organic frameworks—a class of porous, crystalline nanomaterials—that can stabilize volatile fluorine-containing reagents.
Rich social and cultural transformations came to the classical world in Late Antiquity, roughly 250 CE to 750 CE. Moving away from the paradigm of decline and fall, historians have taken a new look at the period, including the rise to prominence of Christianity.
The electrons in quantum materials strongly interact and influence one another’s behavior. In addition, some materials have significant spin-orbit coupling, in which electrons’ spins are coupled with their own orbital momenta. Researchers predict that spin-orbit coupling will generate exotic forms of cooperative electron ordering that should alter the material’s crystal structure.
Astrid Van Oyen, a classical archaeologist and assistant professor in the department of classics, explores Rome’s tumultuous transition from republic to empire through everyday objects—namely storage systems— in her recent book.
In his poetry, fiction and essays, and Mukoma Wa Ngugi, associate professor of English, asks why tensions endure between Africans and African Americans despite a history of common political struggle. In this Cornell Research article, he talks about his first encounters with what it meant to be Black in the United States——in his father’s library in Kenya, reading James Baldwin and Richard Wright and issues of Ebony and Jet.
Noliwe M. Rooks, the W.E.B. Du Bois Professor of Literature in Africana Studies and the American Studies Program, knows that the lived experience can be the spark that leads to scientific insight and award-winning scholarly writing.
Tackling challenges in understanding biological processes require sophisticated dimension-reduction techniques that are biologically meaningful, computationally efficient, and allow uncertainty quantification, says a
