biology

RNA Biology Comes into Focus

mRNA

There are many ways to categorize the research performed at the NIH Intramural Research Program: biomedical or behavioral; computational, basic, translational, or clinical; excellent or outstanding; wow or double-wow; and so on. When we launched the irp.nih.gov website, we utilized the concept of scientific focus areas, or SFAs, and identified 21 such SFAs at the IRP, from biomedical engineering & biophysics to virology.

We thought the 21 SFAs did a rather nice job of summing up all the diverse science in the IRP. Then along comes RNA biology. It's not as if the field is new; some 30 Nobel Prizes have been won involving RNA over the decades. But the field has had a renaissance in recent years with discoveries such as that of noncoding RNA (ncRNA) functioning in genome defense and chromosome inactivation. Newly revealed classes of RNAs and their remarkable functions are poised to revolutionize molecular biology, with profound implications for clinical sciences.

Medallions and Medicine

Mantova front

Medallions and coins are both beautiful artwork and symbols of what achievements and people we value. These are some of the beautiful medallions and coins in the NIH History Office collection—and the stories that go with them.

Six Paths Forward in Biomedical Research

NIH Clinical Center

Last month I moderated our annual retreat with the NIH Scientific Directors, those individuals tasked with leading their Institute or Center (IC)-based intramural research program. We were joined by many of the IC Clinical Directors. And this year we decided to do something a little different: listen to a series of talks about exciting, new IRP research.

Cool Videos: Looking Inside Living Cells

Reblogged via the NIH Director's Blog.

ASCB Celldance 2016 — “Discovery Inside Living Cells in Multicellular Organisms” Roberto Weigert

Roberto Weigert is a cell biologist who specializes in intravital microscopy (IVM), an extremely high-resolution imaging tool that traces its origins to the 19th century. What’s unique about IVM is its phenomenal resolution can be used in living animals, allowing researchers to watch biological processes unfold in organs under real physiological conditions and in real time.