An international collaborative research team, including scientists from UQ’s Queensland Brain Institute (QBI), has discovered a novel mechanism underlying memory involving rapid changes in a specific ...
New research predicts the location of DNA sequences that can form structures besides the canonical double helix — non-B DNA — in the recently released telomere-to-telomere genomes of the great apes, ...
Scientists from Delft, Vienna, and Lausanne discovered that the protein machines that shape our DNA can switch direction. Until now, researchers believed that these so-called SMC motors that make ...
It turns out that a gene called LTR5Hs activates a gene that affects the growth of an embryo and the proliferation of stem ...
The formation of DNA adducts due to flavouring substances, particularly those derived from botanicals, has emerged as a critical area of toxicological research. Many naturally occurring compounds ...
Our ancient past isn't always buried history. When it comes to our DNA, nearly 9% of the human genome is made up of leftover ...
KDM5 inhibition/disruption selectively induces R-loop-mediated DNA damage and innate immune activation in breast cancer cells, while sparing normal cells, unveiling a tumor-specific therapeutic ...
Certain DNA sequences can form structures other than the canonical double helix. These alternative DNA conformations—referred to as non-B DNA—have been implicated as regulators of cellular processes ...
Some results have been hidden because they may be inaccessible to you
Show inaccessible results
Feedback