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associative learning. Using mouse models, fiber photometry, circuit-specific viral approaches, in vivo recordings, and a variety of behavioral assays, we investigate how infant brains encode maternal and social
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application of unique mouse models for in vivo pathway discovery and validation. Experience or interest in flow cytometric analyses, and basic immunological techniques will be essential and interest in
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, leveraging state-of-the-art neuroimaging, biomarker development, and human experimental models to inform therapeutic development and evidence-based care. Principal Responsibilities: Researches and collects
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-based analysis of research data as a meta-domain and discovery of relevant datasets through both graph search and guided browsing through relationships. Along with Yale managed datasets, these will also
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ASDs in humans to determine how disruption of these genes alters brain development and the neural circuits underlying simple behaviors. Our long-term goal is to use this gene-based approach to identify
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-tracing mouse models, lung injury and tumor-initiation systems, single-nucleus multiome (RNA and ATAC) and spatial profiling, and validation in human early-stage lung adenocarcinoma specimens. The position
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experimental approaches such as non-coding CRISPR screens, the Massively Parallel Reporter Assay (MPRA), saturation mutagenesis, and synthetic sequence design, alongside machine-learning models of regulatory
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established internationally recognized experimental platforms for the study of intraerythrocytic parasites, parasite metabolism, chemical biology, and preclinical models for therapeutic discovery and
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, bioengineering, or a related field - Strong background in molecular biology, cell biology, immunology, animal models, neuroscience, or translational research - Demonstrated ability to conduct independent research
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Postdoctoral Associate | Mitochondrial Genomics | Lake Lab — Yale University, Department of Genetics
high-throughput screens, and building novel cellular models to reveal mechanisms of mitochondrial genome dysfunction. The lab is located in the Yale School of Medicine which offers an outstanding