Faculty and Research Interests
J. David Farrar, Ph.D., Associate Professor
The Farrar Lab is generally interested in understanding how external signals regulate T cell function and development. We study both the regulatory components that impact allergic diseases and external signals that control inflammation and immune homeostasis.
Dustin Hancks, Ph.D., Assistant Professor
The genome sequence of an organism can be thought of as a type of “encyclopedia.” Filled with vast amounts of information including the blueprint of an organism, genomes also contain a historical record of past battles with pathogens. Using these molecular scars of battle along with evolutionary analysis, genomics, and molecular biology, the Hancks Lab aims to better understand host defenses against pathogens including the identification of new battlefronts critical in determining the outcome of infection. Furthermore, another major goal is to increase our understanding of cell biology by exploiting insights from the adaptive mechanisms used by viruses.
Lora Hooper, Ph.D., Professor and Chair
The Hooper lab studies how the resident intestinal microbiota interacts with the immune system of humans and other mammalian hosts. Group members use a broad mix of experimental approaches, ranging from studies in animal models to the use of structural methods to understand protein function.
Chandrashekhar Pasare, Ph.D., Associate Professor
The major research interests of the Pasare lab involve studying Toll-like receptor signaling pathway and role of TLRs in innate immunity and inflammation. Our laboratory is also interested in understanding how activation of pattern recognition receptors on dendritic cells regulates induction of adaptive immune responses.
Tiffany Reese, Ph.D., Assistant Professor
The Reese lab studies how chronic viruses and other pathogens change the immune system and how the immune system controls these pathogens. Our goal is to use mouse pathogens to model how chronic infections change responses to coinfections and vaccinations.
Nicolai van Oers, Ph.D., Associate Professor
The goals of the lab are to understand how noncoding RNAs regulate the immune system during normal and stress responses. The studies include a characterization of patients with 22q11.2 deletion syndrome, an analysis of the thymus during various stress conditions, and defining the pathogenic mechanisms of Mycobacterium tuberculosis.
Ellen Vitetta, Ph.D., Professor
The Vitetta lab has developed and patented a highly stable, safe, and effective recombinant ricin vaccine that protects mice and primates against aerosolized ricin; it is safe and immunogenic in humans. Prior to carrying out the pivotal clinical trial, we are profiling epitope-specific antibodies from archived sera to develop an assay that predicts protection. This assay will be used in the final dose-finding clinical trial. We are also exploring a novel vaccine platform based on synthetic "peptoid" (B cell) epitopes that are protease-resistant and highly immunogenic when attached to carrier proteins. The lab will screen large, diverse libraries of peptoids with broadly protective monoclonal antibodies against pathogens, toxins, and prions and use our "hits" to generate protective vaccines.
Edward K. Wakeland, Ph.D., Professor
The Wakeland Lab utilizes state-of-the-art genomic strategies to investigate the diversity of the human and mouse immune systems. Our primary focus in human genetics is to delineate the genetic basis for autoimmune diseases such as Lupus and to identify the molecular pathways that contribute to disease pathology. We are also investigating the genetic diversity of innate immune responses in the human myeloid cell lineage.
Nan Yan, Ph.D., Associate Professor
The Yan lab is primarily interested in the molecular mechanisms of innate immunity and how they impact infectious and autoimmune diseases. We all know that innate immune signaling pathways are essential for detecting pathogens, and mutations in key molecules of these pathways can also cause autoimmune diseases. We study both ends of the spectrum, with a strong focus on monogenic immune diseases that affect genes that also play important roles in infection.