NIDCR News 2018

First recipient of NIDCR diversity fellowship uses biochemistry to understand developmental disorders.

NIDCR-supported researchers explore the basic biology and therapeutic potential of dental stem cells.

An unhealthy population of microbes in the mouth triggers specialized immune cells that inflame and destroy tissues, leading to the type of bone loss associated with a severe form of gum disease, according to a new study in mice and humans. This NIDCR-supported research could have implications for new treatment approaches for the condition.

Researchers discovered a self-renewing human skeletal stem cell. The findings may one day lead to ways to restore bone, cartilage, and supportive tissues for organs.

NIDCR Director Dr. Martha J. Somerman and NIDCR coauthors outline recent scientific advances that open the door to development of new autotherapies, which represent a minimally invasive approach to enhance tissue healing.

Marian Young, PhD, a senior investigator and chief of the molecular biology of bones and teeth section in NIDCR’s Division of Intramural Research, has been appointed deputy scientific director of DIR.

Matthew P. Hoffman, BDS, PhD, has been named scientific director of NIDCR’s intramural research division after a national search.

NIDCR’s newest on-campus investigator, biochemist Achim Werner, has long been fascinated by the inner workings of cells. He recognized that examining the vast, largely unexplored molecular landscapes within cells could fill much-needed gaps in the field.

NIDCR Clinical Director Janice S. Lee, DDS, MD, MS, & NIDCR Director Martha J. Somerman, DDS, PhD, note that early detection of medical conditions through a comprehensive and concise exam of the oral cavity can lead to timely management of disease and improve quality of life for patients.

A collaborative team of researchers used NIDCR's FaceBase data to demonstrate a powerful new approach to understanding the genetics of face shape.

NIDCR researchers defined the neural pathways for itch and identified a signaling molecule that enhances itch and blunts pain in mice.

NIDCR-supported research helps to uncover the molecular underpinnings of “touch,” which can cause sensations of pain or pleasure and affect our experience of the foods we eat.

​​​​​​​NIDCR training award supports PhD student’s work revealing new brain circuit for facial pain.