University of Pittsburgh·Pittsburgh, Pennsylvania
Investigate molecular and cellular mechanisms of Alzheimer's disease progression using human-derived neurons, glial models, and murine models. Lead projects focusing on either neuroimmune signaling via GPR3 or the mechanisms of tau pathobiology using optogenetic models.
The Thathiah Lab in the Department of Neurobiology at the University of Pittsburgh School of Medicine is recruiting two highly motivated postdoctoral associates to investigate the molecular and cellular mechanisms involved in Alzheimer's disease (AD) progression.
Our lab studies AD mechanisms across molecular, cellular, and systems levels using human-derived induced neurons (iNs), glial models, and pre-clinical murine models.
We integrate novel technologies to address hypothesis-driven questions in AD pathophysiology and advance the discovery of new therapeutic approaches.
We seek individuals passionate about neuroscience and translational disease research who want to work in a collaborative, innovative environment and contribute to cutting-edge research with direct implications for AD therapies.
Description of the Positions Neuroimmune Communication in Alzheimer's Disease.
The first postdoctoral associate will lead an exciting, NIH-funded project investigating the role of neuroimmune signaling in AD.
Specifically, the focus will be on our recent discovery of the G protein-coupled receptor (GPCR), GPR3, which is highly expressed in glial cells and may activate neuroprotective responses to AD pathology.
This position offers the opportunity to study how neuroimmune interactions modulate disease progression in AD.
Mechanisms of Tau Pathobiology in Alzheimer's Disease and Other Tauopathies.
The second postdoctoral associate will spearhead an ongoing project to investigate the molecular mechanisms underlying pathological tau phosphorylation and aggregation.
The lab has recently developed an optogenetic model of tau aggregation (optoTAU) that provides a unique platform for exploring tau aggregation across multiple cell types, including neurons, astrocytes, and oligodendrocytes.
This project will focus on the cellular and molecular modifiers and the consequences of tau aggregation to better understand its role in AD pathogenesis.
Qualifications and Expectations The ideal candidates will have: A recent Ph.D. in neuroscience, biology, biochemistry, or a related field with a strong publication record Expertise in sterile tissue culture techniques (required) Experience with IPSC reprogramming and disease modeling (preferred) Proficiency with molecular biology techniques (e.g., RNA isolation and cloning) Experience with biochemical approaches (e.g., protein isolation and Western blot analysis) Experience with confocal microscopy (required) Experience with immunocytochemistry and immunohistochemistry (preferred) Experience with single-cell, whole-genome, and proteomic analysis (preferred) Experience with mouse handling, including injection, dissection, and behavioral approaches (preferred) Excellent verbal and written communication skills, technical expertise, and scientific creativity are essential.
Why Join Us?
Collaborative Research Environment: Work in a highly interactive lab, leveraging interdisciplinary approaches to answer complex questions.
Innovative Models and Techniques: Utilize state-of-the-art technologies, including human-derived iN and glial models, optogenetic systems, and pre-clinical mouse models.
Career Development: Receive mentorship and strong support for applying for individual fellowships (e.g., NIH T32/F32, K awards), as well as opportunities for impactful manuscript writing, presenting at conferences, and advancing your career.
Cutting-Edge Discovery: Contribute to research that aims to identify new disease mechanisms and therapeutic targets for AD.
Candidates must hold a PhD in neuroscience, biology, or a related field with expertise in sterile tissue culture and confocal microscopy. Experience with iPSC reprogramming, molecular biology techniques, and mouse handling is highly preferred.
Market context
Postdoctoral associate roles in neuroscience and related biology fields are typically competitive because labs look for strong technical depth in cell culture, confocal microscopy, and translational research experience. In Pennsylvania, candidates with iPSC reprogramming, molecular biology, and mouse handling skills may stand out, especially when paired with mentorship and fellowship support. Review the AI-summarized requirements and benefits here to quickly compare fit against the original posting and tailor your application materials to the lab’s methods.
Molecular Biology Laboratory Technician
Clinical Research Nurse
Research (Professional)