A computer model study reveals – for the first time – details of an energy-creating process vital and unique to cancer cells. The research holds promise for new interventions and for personalizing cancer treatments based on individual needs.

New York is on the front lines of detecting foodborne pathogen outbreaks, thanks to a partnership between public health scientists and Cornell researchers.

The 2.5-foot brain is the centerpiece of a new exhibit at Philadelphia's Franklin Institute.

For the ever-shrinking transistor, there may be a new game in town. Cornell University researchers have demonstrated promising electronic performance from a semiconducting compound with properties that could prove a worthy companion to silicon

From such courses as Pesticides, Insecticides and the Environment to Philosophy of Science, Cornell University’s newest chemistry majors have a wide range of electives they can now choose from to fill out the 60-credit major.

Coffee drinkers, rejoice! Aside from java’s energy jolt, food scientists say you may reap another health benefit from a daily cup of joe: prevention of deteriorating eyesight and possible blindness from retinal degeneration due to glaucoma, aging and diabetes.

Arduous, year-plus-long scrutiny by the National Science Foundation (NSF) has found the Cornell High Energy Synchrotron Source (CHESS) rich in scientific discovery and exemplary in its use of government funds. CHESS has received its requested grant renewal of up to $100 million over five years, securing the national X-ray facility’s near-term future

A five-year, $10 million Specialized Research Center grant from the National Institutes of Health (NIH) will help scientists from across Cornell University's campus tackle the roots of reproductive issues and train the next generation of reproduction scientists.

Cornell University researchers report they have discovered direct genetic evidence that a family of genes, called MicroRNA-34 (miR-34), are bona fide tumor suppressors.

For close to two decades, Cornell University scientists have developed processes for using polymers to self-assemble inorganic nanoparticles into porous structures that could revolutionize electronics, energy and more.