Research Area: Microbiota and Microbiomes

The Crickard lab studies chromosome maintenance pathways with a focus on homologous recombination. We use genetic approaches in combination with single molecule imaging to dissect molecular mechanisms. An example of a student project is expressing and purifying proteins to understand the role of signaling kinases[...]

Scott’s research investigates how endocrine signaling networks regulate animals’ physiological responses to pathogenic microbes. He uses the fruit fly Drosophila melanogaster as a genetically tractable model to investigate the mechanisms by which several key insect hormones and their cognate nuclear receptors both directly and indirectly[...]

The Kim Lab focuses on the general fields of population genetics and evolutionary biology. Dr. Kim is interested in computational problems relevant to understanding evolutionary processes and population dynamics, and in development and application of statistical methods for inference from genetic data. In addition to[...]

We study the transmission and impacts of infectious disease in a changing ocean and mechanisms of immune function in marine invertebrates. We work to identify the value of intact ocean biodiversity and develop strategies towards a healthier ocean.

The Schmidt lab focuses on microbial community diversity, metabolic activity, and genome evolution in aquatic environments. Students will gain experience with microbial ecology and computational tools. As an example project, students can characterize the microbial communities in marine sediments associated with oyster beds to understand[...]

Research in my lab probes the environmental, structural and physiological basis of bacterial survival. The majority of earth’s microbes exist in a non-growing, surival state, making it important to better understand the mechanisms underpinning this physiological state. We primarily use the environmental zoonotic pathogen, Coxiella burnetii (causative agent[...]

The Feaga Lab uses structural, biochemical, and omics approaches to study bacterial ribosomes. Our research aims to identify new protein factors that interact with ribosomes and that keep protein synthesis running smoothly. Students will use transposon mutagenesis coupled to deep sequencing (Tn-Seq) to identify genes[...]

Janelle’s research project aims to understand how diet affects the microbiome, and how these diet-dependent microbiome changes affect the immune system- particularly CD8+ T cells. Her work also uses flow cytometry and sequencing to look at how diet and microbiome changes in early life affects[...]

The Huberman lab uses genetic and genomic techniques to study the genetic mechanisms used by fungi to sense and respond to the nutrients in their environment. Student projects will include performing genetic screens to identify genes important in nutrient sensing and using genetic and genomic[...]

Macrophages are susceptible to HIV-1 infection and are resistant to virally-induced cell death. Alveolar macrophages (AM) in particular are known to be extremely long-lived and self-renewing, and have been shown to be both permissive to HIV-1 infection and persist in the face of Anti-Retroviral Therapy[...]