23 molecular-modeling-or-molecular-dynamic-simulation Postdoctoral research jobs at The University of Arizona
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units across the University. Utilize molecular biology, biochemical techniques and high-resolution imaging, perform in vitro functional analyses including patch-clamp and calcium measurements. Perform
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supported by multiple NIH R01 grants and focuses on molecular immunology and inflammatory mechanisms. Cutting-edge research models (eg. primary cell/organoid cultures, mouse models and human clinical samples
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for several tick species to carry and transmit alpha-gal syndrome (red meat allergy). This project has a multidisciplinary approach, integrating approaches with cutting-edge molecular techniques, such as
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proteins on brain circuits controlling puberty and fertility are a key focus. Research is conducted in mouse models, addressing the interaction of hormones and neuropeptides in coordinating the brain’s
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of Emmanuel Katsanis, MD to pursue studies in transplant and tumor immunology. Research involves murine bone marrow and peripheral blood stem cell transplantation and tumor models. Studies may also include use
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performance of tailings materials and storage facilities. Implement and refine the hydro-mechanical models to evaluate behavior under static and dynamic conditions. Conduct Laboratory and Field Investigations
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and working experience in molecular biology and cell biology techniques are highly desirable. A background in the field of neuroscience is desirable. Applicants should demonstrate proficiency in spoken
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Shaowen Bao. The purpose of this position is to conduct investigation of the mechanisms underlying noise trauma-induced neuronal death using advanced molecular, cellular and electrophysiological techniques
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models, human tissue and blood samples. Use biochemical, cellular, molecular, and pharmacological approaches to for mechanistic studies. Use cutting-edge technologies for transcriptomic, proteomic, and
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patient-specific human induced pluripotent stem cells (iPSCs), primary human cells/tissues, along with animal models, to develop a platform for the evaluation of cardiovascular toxicity associated with