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Affiliated Faculty

This list of affiliated investigators can help you identify potential research mentors at the University of Pittsburgh. PSTP students can, and do, work with mentors not on this list, but the investigators featured below have expressed interest in hosting PSTP students in their laboratories.

Borghesi
Lisa Borghesi , PhD
Research Summary:

Demand adapted hematopoiesis in infection and inflammation

Jishnu Das Photo
Jishnu Das, PhD
Research Summary:

Our research focuses on the development and use of novel systems approaches to analyze high-dimensional immunological datasets, and elucidate mechanisms of immune regulation and dysregulation. Our previous work has utilized systems approaches to analyze Mendelian mutations in the context of three-dimensional protein-protein interaction networks, to understand molecular mechanisms of corresponding disorders. We have also developed network analyses frameworks to characterize the evolutionary dynamics of these protein networks. Another dimension of our past work has been the use of statistical methods for the analyses of high-dimensional data and machine-learning approaches to elucidate correlates of natural and vaccine-mediated immunity in HIV, tuberculosis and malaria.

Rachel Gottschalk
Rachel Gottschalk, PhD
Research Summary:

My laboratory is working to understand mechanisms controlling healthy versus pathological innate immune function, with major projects including interrogating lung-specific macrophage signaling and dissecting molecular determinants of monocyte and macrophage inflammatory function during lung infection. 

Joglekar
Alok Joglekar, PhD
Research Summary:

Systems level analysis of T cell repertoires to understand and engineer the immune system.

Lakkis
Fadi Lakkis, MD
Research Summary:

Innate and adaptive immune response to transplanted organs and the mechanisms of transplantation tolerance

Marlies Meisel, PhD
Marlies Meisel, PhD
Research Summary:

The Meisel lab explores how the microbiota shapes systemic immunity that modulates the etiopathogenesis of complex diseases such as autoimmunity and cancer.

Morel
Penelope Morel, MD
Research Summary:

Autoimmunity & the control of T cell immune responses; Systems biology approaches to immune response to infectious organisms

Morelli
Adrian Morelli, MD, PhD
Research Summary:

The role of donor- and recipient-derived antigen-presenting cells (i.e. dendritic cells) and extracellular vesicles (i.e. exosomes, microvesicles) during allo-sensitization, graft rejection, and induction of donor-specific immunosuppression / tolerance, following transplantation

Michael J. Morowitz
Michael Morowitz, MD, FACS
Research Summary:

The Morowitz laboratory studies the effects of diet and antibiotics on interactions between the gut microbiome and the immune system.

Rothstein
David Rothstein, MD
Research Summary:

Immunoregulation: Focusing on regulatory and inflammatory B cells in transplant and autoimmune models, and their use as biomarkers in transplantation; as well as pathways by which regulatory T cells can be enhanced relative to Teffector cells

Daniella Schwartz
Daniella Schwartz, MD
Research Summary:

My research program is focused on studying mechanisms of immune dysregulation by focusing on two areas: I work on the biology of interleukin 9 (IL-9) regulation/signaling in rheumatic diseases, and I study patients with rare monogenic diseases as “real world” models of immune dysregulation.

Shlomchik
Mark Shlomchik, MD, PhD
Research Summary:

My lab is interested in the establishment of long term B cell immunity and in pathogenesis of systemic autoimmune diseases and graft vs host disease.

Thomson
Angus Thomson, PhD, CS.c.
Research Summary:

Regulation of the immune response; role of dendritic cells and T cells in tolerance induction; mechanism of action of novel immune suppressants

Daria Van Tyne Picture
Daria Van Tyne, PhD
Research Summary:

The Van Tyne Lab studies how bacteria evolve to become superbugs, using comparative genomics and functional analysis. Our research falls into two main areas. First, we work to understand how bacteria evolve during human infection to resist antibiotics and host immune defenses. We sequence bacterial strains from human infections and use functional genomics to identify and characterize novel resistance mechanisms. These include the ability of bacteria to resist the host immune system, or to persist in the face of antibiotic pressure. Second, we help develop new approaches to treat resistant bacterial infections more effectively. We help characterize new types of antibiotics, and establish how novel compounds kill bacteria. We are also exploring how bacteriophages could be developed into next-generation antibacterials.