Undergrad publishes research on genetic information exchange

The study relates to information stored in DNA and how organisms pass that genetic information to progeny.

Around Cornell

Study offers new insights into immune mechanisms of inflammatory disease

The study suggests that a unique set of regulatory networks controlled by neurons in the gut may be viable targets for future drug therapies to combat chronic inflammatory diseases including asthma, allergy and inflammatory bowel disease.

Common dietary fiber promotes allergy-like immune responses

The study found that dietary inulin fiber alters the metabolism of certain gut bacteria, which in turn triggers what scientists call type 2 inflammation in the gut and lungs.

New computational method builds detailed maps of human tissues

The new approach promises to accelerate studies on organ-scale cellular interactions and could enable powerful new diagnostic strategies for a wide range of diseases.

Conference features insightful advice, stories from entrepreneurs

The Eclectic Convergence conference included talks from six entrepreneurs, business executives and venture capitalists, as well as a pitch competition.

Around Cornell

Ancient viral DNA in human genome guards against infections

Viral DNA in human genomes, embedded there from ancient infections, serve as antivirals that protect human cells against certain present-day viruses, according to new research.

New research reveals how genes turn on and off

Yeast – that simple organism essential to making beer and bread – has revealed for Cornell researchers a key mechanism in how genes are controlled.

Linked databases aid long-term device surveillance

By linking a national vascular registry with medical data records in Medicare claims for patients who underwent endovascular abdominal aortic aneurysm repair, a team of researchers from across the country was able to identify which devices posed the most risk for reintervention.

Microscopy reveals how psychedelics light up brain’s neuropathways

Associate professor Alex Kwan is using optical microscopy and other tools to map the brain’s neural response to psychedelic drugs, an approach that could lead to the development of fast-acting antidepressants.