Surprising find reveals asymmetry in identical-looking fruit fly organs

A new study provides an example of asymmetry, a pattern found throughout biology where a pair of organs or appendages that mirror each other have different proportions and may have different functions.

Nozomi Ando named to Schmidt Polymaths cohort

Nozomi Ando, professor of chemistry and chemical biology in the College of Arts and Sciences, has been named a Schmidt Polymath, part of a global cohort of eight scientists and engineers who will each receive up to $2.5 million over five years.

CCE summer interns celebrate community connections, collaborations

Summer projects spanned urban gardens in New York City, youth development in Buffalo and using artificial intelligence in health decision making. 

Inaugural “Freedom Party” in Ithaca centers on community connection

A Sept. 27 event taking inspiration from the foundations of the Harlem Renaissance will highlight collaboration, resource sharing and storytelling. 

Around Cornell

Research at risk: Cultural fluency and critical language expertise

The federal government ended a program that has funded Cornell's Southeast Asia Program and South Asia Program for decades.

Moral appeals trump hate in tamping down online vitriol

In two recent papers, Cornell researchers identified seven distinct strategies commenters employ when objecting to content online, noting that reputational attacks are most common but that moral appeals are viewed more favorably.

Holocaust testimony is AI litmus test, and it fails

A Cornell historian argues in a new paper that human historians are vital to capture the emotional and moral complexity behind world events.

Wildlife conservation gets down to business

A new decision model derived from business operations detects emerging wildlife disease months earlier, or with lower costs, than the current traditional strategies, according to a collaborative study from the College of Veterinary Medicine.

Ultrafast infrared light pulses cause thin film to ‘breathe’

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.