Alyssa G. Kent

Alyssa G. Kent
Cornell University | CU · Department of Biomedical Engineering

Doctor of Philosophy in Biology

About

10
Publications
967
Reads
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284
Citations
Citations since 2017
7 Research Items
244 Citations
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Introduction
I am currently a postdoctoral associate with Dr. Ilana Brito at Cornell University. My background emphasizes an interdisciplinary approach to addressing biological problems from modeling to bioinformatics. I am generally interested in the ecology and evolution of mobile elements in the human microbiome, especially their role in the spread of antibiotic resistance. I received my PhD with Dr. Adam Martiny investigating biogeography and the adaptive variation of marine bacteria in response to environmental change. At UC-Irvine I investigated the genome content of Prochlorococcus, the diversity of Prochlorococcus and Synechococcus across latitudinal gradients, and adaptation of a marine Roseobacter to high temperature.
Additional affiliations
August 2017 - present
Cornell University
Position
  • PostDoc Position
Description
  • I am currently investigating the dynamics of the mobile gene pool within the human gut microbiome.
January 2012 - July 2017
University of California, Irvine
Position
  • PhD Student
Education
September 2012 - December 2016
University of California, Irvine
Field of study
  • Ecology & Evolutionary Biology
September 2011 - June 2012
University of California, Irvine
Field of study
  • Mathematical & Computational Systems Biology
August 2007 - May 2011
Lewis & Clark College
Field of study
  • Mathematics

Publications

Publications (10)
Article
The globally abundant marine Cyanobacteria Prochlorococcus and Synechococcus share many physiological traits but presumably have different evolutionary histories and associated phylogeography. In Prochlorococcus, there is a clear phylogenetic hierarchy of ecotypes, whereas multiple Synechococcus clades have overlapping physiologies and environmenta...
Article
Full-text available
Ocean temperatures will increase significantly over the next 100 years due to global climate change1. As temperatures increase beyond current ranges, it is unclear how adaptation will impact the distribution and ecological role of marine microorganisms2. To address this major unknown, we imposed a stressful high-temperature regime for 500 generatio...
Article
Full-text available
Microorganisms exhibit shifts in elemental stoichiometry in response to short-term temperature increases due to varying growth rate, biochemical reactions, and protein degradation. Yet, it is unknown how an organism's elemental stoichiometry will respond to temperature change on evolutionary timescales. Here we ask how cellular elemental stoichiome...
Article
Prochlorococcus, the smallest known photosynthetic bacterium, is abundant in the ocean's surface layer despite large variation in environmental conditions. There are several genetically divergent lineages within Prochlorococcus and superimposed on this phylogenetic diversity is extensive gene gain and loss. The environmental role in shaping the glo...
Article
Full-text available
Prochlorococcus is the numerically dominant phototroph in the oligotrophic subtropical ocean and carries out a significant fraction of marine primary productivity. Although field studies have provided evidence for nitrate uptake by Prochlorococcus, little is known about this trait because axenic cultures capable of growth on nitrate have not been a...
Article
Full-text available
Bacteria produce extracellular enzymes to obtain resources from complex chemical substrates, but this strategy is vulnerable to cheating by cells that take up reaction products without paying the cost of enzyme production. We hypothesized that cheating would suppress enzyme production in co-cultures of cheater and producer bacteria, particularly un...

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