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Dr. Jeanette Davis, also known as Dr. Ocean, is a marine microbiologist, ocean policy expert and 2X bestselling children’s science book author. Dr. Davis earned her PhD at the University of Maryland, UMCES where her research training focused on assessing bacteria associated with marine sea slugs and their algal diets for medicines. This work ultimately led to the discovery of an marine bacterium that produces an anticancer compound. She served as a NOAA researcher and ocean policy advisor using eDNA tools for fisheries stock assessments and invasive species management. Her current research uses eDNA and bioinformatics to assess bacterial communities associated with marine invertebrates and the local Hampton watershed to uncover potential symbiotic relationships. Dr. Davis is specifically interested in the role of bacteria in the Hampton River to remove pollutants through bioremediation and supporting communities in making informed decisions about their environment through climate justice. At Hampton University (HU), Dr. Davis serves as PI of NSF – Collaborative Research: Building Racial Equity in Marine Science ($3M), co-PI of ED – Establishing an Interdisciplinary Climate Science Degree Program at Hampton University ($4.9M), and Co-director of the NSF- Association of Limnology and Oceanography Multicultural Program. Dr. Davis is a proud graduate of the Marine and Environmental Science Department at HU and you can find more about her journey and selected publications on her website (www.drjeanettedavis.com).
Jeanette Davis1
1. Department of Marine and Environmental Science, Hampton University, Hampton VA, USA
The emerging science of eDNA can provide a continuous flow of data which is a promising approach for biological investigation. Within the last decade, species detection from eDNA has shown exciting potential for routine species surveys. This work highlights several research topics using eDNA to better understand marine ecosystems from biotechnology to species monitoring. One research study highlights eDNA coupled with other genetic tools to uncover a marine bacterium that lives in association with a Hawaiian sea slug and its algal diet that produces a promising anticancer compound. Another research study showcases strategic considerations for invasive species managers in the use of eDNA as a surveillance tool. Lastly research findings reveal the value of eDNA as a "new net" for sampling fish and provide insights into abundance and distribution that are important for management. Collectively these research examples highlight that eDNA serves as a less invasive and inexpensive monitoring tool that offers a more comprehensive view and understanding of marine ecosystems