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Jeremy Dodsworth

Jeremy Dodsworth

Principal Investigator, Associate Professor


Principal Investigator
UEC - Miscellaneous Projects & Grants
Office Phone(909) 537-7396
Office LocationBI-312
Associate Professor
Office Phone(909) 537-7396
Office LocationBI-312


B.S. in Bacteriology, Biochemistry and Statistics, University of Wisconsin-Madison
Ph.D. in Microbiology, University of Washington, Seattle
Postdoc in Geomicrobiology and cultivation-independent genomics, University of Nevada, Las Vegas


BIOL 220 - Principles of Microbiology

Research and Teaching Interests

Microbiology of geothermal springs.
Beautiful and fascinating in their own right, hot springs offer good opportunities to study several frontiers in microbiology. High temperature impacts both microbial community composition and ecosystem function. While microbes that inhabit geothermal environments are typically distinct from those present at lower temperatures, some hot springs, including many in the US Great Basin region, are dominated by microbes that represent entire class- and phylum-level lineages with no cultivated representatives (so-called 'microbial dark matter'). Also, some key biogeochemical processes, such as photosynthesis (carbon fixation), transformations in the nitrogen cycle, and lignocellulose degradation, appear to break down or be altered as temperature increases, but the reasons for these changes are not clear. Because thermal environments generally tend to host relatively few taxa in comparison to non-thermal systems, hot springs in the US Great Basin represent good natural laboratories (relatively simple yet tractable systems) to study 'microbial dark matter' groups and their possible roles in carbon, nitrogen, and other nutrient cycles. Potential research projects will focus on understanding ecology in geothermal springs and the physiology of novel thermophiles using a combination of field studies, single-cell and community genomics techniques, cultivation efforts, and heterologous expression approaches, involving collaborations with researchers elsewhere in the US and in China.
Genetics and molecular biology of Archaea.
The methanogenic archaeon Methanococcus maripaludis is a genetically tractable model system for understanding the biology of members of the Archaea, the least-well studied of the three domains of life. Potential projects include using genetics and biochemical techniques to understand the roles of the recA (recombinase) homologs radA and radB in recombination and DNA repair in M. maripaludis, as well as the development of novel genetic techniques for this and other methanogens.