A new set of artificial intelligence models could make protein sequencing even more powerful for better understanding cell biology and diseases.

developed by researchers at the Perelman School of Medicine at the University of Pennsylvania improved the process of turning ...

DNA repair proteins act like the body's editors, constantly finding and reversing damage to our genetic code. Researchers have long struggled to understand how cancer cells hijack one of these ...

A breakthrough in safely delivering therapeutic DNA to cells could transform treatment for millions suffering from common chronic diseases like heart disease, diabetes, and cancer.

Researchers harness the power of the world’s most advanced supercomputers to simulate the inner workings of cellular ...

Johns Hopkins Medicine laboratory scientists say they have developed a potential new way to treat a variety of rare genetic diseases marked by too low levels of specific cellular proteins. To boost ...

A team led by Professor Kazuhiro Maeshima of the National Institute of Genetics (ROIS) and SOKENDAI in Japan has developed a ...

In living organisms, every protein—a type of biological polymer consisting of hundreds of amino acids—carries out specific ...

Mouse cells tweaked to produce the tardigrade protein incurred less DNA damage than unaltered cells — hinting at a new tool for cancer patient care.

Johns Hopkins Medicine laboratory scientists say they have developed a potential new way to treat a variety of rare genetic diseases marked by too low levels of specific cellular proteins.

An innovative new technique uses a novel DNA barcode system to track hundreds of RNA and protein molecules in single cells within thick biological samples, providing researchers with a full ...

The Pol-theta enzyme (blue) joins two parts of a broken DNA strand (yellow). This process is mutagenic and can give rise to cancer. LA JOLLA, CA—DNA repair proteins act like the body’s editors ...