As a little girl growing up in Nabatieh, Lebanon, I was passionate about painting and wanted to be an artist. My mother did everything in her power to push me into science. I grew up under the impression that art or even literature were not for smart people. I was also very interested in nature, plants, and animals, especially the exquisite cell life visible through a microscope. So I decided to be a biologist.
David Odde may be the first scientist whose lab meetings include a dance company. Four years ago Odde, professor of biomedical engineering at the University of Minnesota and ASCB member, started collaborating with Black Label Movement (BLM); a Twin Cities-based dance theater. Together they use dance to simulate molecular processes.
Our bodies and our cells need specialized fats. Our cells eat through a process called endocytosis, which is critical for cells to take up nutrients from their environment. Embedded in the cell membrane, phosphoinositides are specialized lipids crucial during endocytosis and subsequent steps. They can be modified by protein kinases and phosphatases that alter their phosphorylation pattern in one of five places, indicated by the number(s) in the name. Thus was born the PIP family. PIP2, for example, is PtdIns(4,5)P2 phosphorylated in positions 4 and 5.
The NIH is building its portfolio in the emerging field of extracellular RNAs, known as exRNAs, with the announcement of $17 million in awards to support basic research aimed at understanding this newly discovered type of cell-to-cell interaction. NIH believes that exRNAs could play a role in numerous conditions, including cancer, heart disease, and Alzheimer's disease. The Extracellular RNA Collaborative is a trans-NIH initiative, linking the efforts of five NIH institutes in pushing basic research into exRNAs.