UCF and CREOL partner to better understand nerve cells through photonics

Oct. 6, 2013
Orlando and Union Park, FL--A biophotonics research partnership between the University of Central Florida (UCF) College of Medicine and CREOL, the College of Optics and Photonics, is helping scientists use light to learn how cells move during normal development and in disease.

Orlando and Union Park, FL--A biophotonics research partnership between the University of Central Florida (UCF) College of Medicine and CREOL, the College of Optics and Photonics, is helping scientists use light to learn how cells move during normal development and in disease. It is UCF’s latest step in fostering collaborative research projects that will have improved chances for federal funding.

The joint UCF project is called the Research Initiative In Biophotonics (RIBOP) and was initiated after both colleges and the UCF Office of Research and Commercialization each contributed $15,000 to identify biological applications for photonics and lasers. The first team of researchers to receive RIBOP funding consists of Cristina Fernandez-Valle, a professor in the College of Medicine’s Burnett School of Biomedical Sciences, and Aristide Dogariu, a professor at CREOL. So far they have published one paper and are now applying for a National Institutes of Health (NIH) grant to continue their work.

Fernandez-Valle’s research focus is on neurofibromatosis type 2 (NF2), a disease that can leave children and young adults deaf, partially paralyzed, or brain damaged. NF2 affects one in every 20,000 people, causing multiple tumors that, while benign, cause serious neurological problems. The disease attacks the body’s Schwann cells, which are cells in nerves in the body that form myelin sheaths around axons. Fernandez-Valle’s research is dedicated to understanding the cellular changes that make NF2 occur and targeting therapies that can prevent or slow tumor growth.

The team is developing photonic imaging techniques that allow them to observe how Schwann cells move on cylindrical axons. Imaging cells that move along curved surfaces is very difficult and therefore is poorly understood. All cells move during development, but if movement goes haywire, birth defects can occur and abnormal movement of cancer cells is part of the metastatic process by which cancers spread. By understanding Schwann cell movement, scientists hope to understand both how the Schwann cells form myelin and what happens when they acquire mutations and form tumors.

New discoveries are expected at the boundaries between traditional disciplines, a fact also realized by federal research agencies which are now increasingly looking to support more collaborative research projects. As Dogariu says, multidisciplinary projects like RIBOP “expand the range of what we can do through partnerships.”

See http://today.ucf.edu/partnering-to-understand-cells-through-light/


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