RNA

Matthew Disney’s idea of small molecules that target RNA once seemed fanciful. Now, even the pharma industry is pursuing it

Scientists developed a standardized multiplex immunohistochemistry and RNA in situ hybridization protocol using ChipCytometry^TM.

Researchers discovered monkeypox virus in primate testicular tissues.

This year’s stories highlight the expanding versatility of genetic techniques and the increasing utility of such research in all life science fields.

This year’s crop of winning products features many with a clinical focus and others that represent significant advances in sequencing, single-cell analysis, and more.

The eRNA detection method could one day be used to catch early warning signs of distress in wild ecosystems. 

Although epigenetic changes were long thought to largely act on the genome, rather than as part of it, research is now showing that these patterns can, directly or indirectly, change the genetic code.

Evidence is mounting that epigenetic marks on DNA can influence future generations in a variety of ways. But how such phenomena might affect large-scale evolutionary processes is hotly debated.

The MIT biologist studies how RNA molecules self-assemble and the role these accumulations may play in diseases such as ALS and Huntington’s.

Noncoding RNAs are proving to be critical players in the evolution of brain anatomy and cognitive complexity.

Neurologically important noncoding RNAs come in many shapes and sizes.

Guthrie established foundational concepts in the field of pre-mRNA splicing during her career at the University of California, San Francisco.

An in situ map of copy number variations in prostate tissue reveals that purportedly cancerous genomic changes frequently occur in the healthy tissue surrounding tumors.