Researchers at UT Southwestern Medical Center have found that alternative splicing – a process that allows a single gene to code for multiple proteins – appears to be a new potential target for anti-telomerase cancer ...
Apr 19, 2013
0
0
A major new study in the journal Nature reveals a 'traffic light' mechanism controlling genetic activity within cells—a system which could potentially be targeted by cancer drugs already in development.
Mar 1, 2023
0
49
A research team led by a biochemist at the University of California, Riverside has solved the crystal structure for an enzyme that plays a key role in DNA methylation, the process by which methyl groups are added to the DNA ...
Feb 7, 2018
0
351
The well-being of living cells requires specialized squads of proteins that maintain order. Degraders chew up worn-out proteins, recyclers wrap up damaged organelles, and-most importantly-DNA repair crews restitch anything ...
Mar 12, 2012
0
0
Hidden in the tangled, repetitious folds of DNA structures called centromeres, researchers from Harvard Medical School and the Broad Institute have discovered the hiding place of 20 million base pairs of genetic sequence, ...
Aug 8, 2013
0
0
Decoding how the human egg matures and how this process can go wrong could lead to ways of preventing genetic errors leading to infertility, birth defects or pregnancy loss.
Oct 15, 2019
0
61
In a pioneering study, scientists at A*STAR's Genome Institute of Singapore (GIS) have developed new machine learning computer models, a type of artificial intelligence (AI), to accurately pinpoint cancer mutations. They ...
Apr 19, 2018
1
109
Researchers at the University of Louisville's James Graham Brown Cancer Center have identified for the first time mutations that destabilize a DNA structure that turns a gene off. These mutations occur at four specific sites ...
Dec 22, 2014
0
0
Fresh insights into key hormones found in commonly prescribed medicines have been discovered, providing further understanding of the medicines' side effects.
Dec 13, 2017
2
99
New research from The University of Manchester and the Brabraham Institute has revealed how gaps between genes interact to influence the risk of acquiring diseases such as arthritis and type 1 diabetes.
Nov 30, 2015
0
82
