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, automated electrophysiology platforms, and neurotoxicology models. Lastly, you will have the opportunity to generate and properly analyze data that will be used to predict toxicities of compounds of interest
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use of in vivo and in vitro inhalation exposure models to develop medical countermeasures against chemical threat agents. In addition, you will participate in research projects characterizing the toxic
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therapeutic bacteriophage isolates, biomarker discovery and relative quantification for in vitro and in vivo models through proteomics (HPLC-QToF-MS) and volitilomics (GC-MS). Where will I be located? Location
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the guidance of a mentor, your research will include assessing the biomedical and biological mechanisms of blast injury using in vitro and in vivo models as well as biological samples collected from human
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and technology, environmental resiliency, environmental sensing, ecological modeling and forecasting, risk and decision science, environmentally sustainable material, systems biology, climate change
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. The PACE lab uses basic neuroscience approaches, preclinical models, and behavioral pharmacology to develop new drugs for the treatment of traumatic stress related disorders. The lab focuses on projects
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researchers engaged in a Defense Health Agency project on spatial orientation modeling and disorientation mitigation. The research fellow will participate in generating a report for the Spatial Orientation
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multi-drug resistant organisms and fungi. This fellowship appointment will provide you with an opportunity to significantly contribute to ongoing efforts involving in vivo animal models of wound infection
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modeling, while fostering independent research skills and innovation in the application of advanced analytical approaches. As the selected participant, you may engage in projects that explore both population
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casualty care. These projects include closed loop physiological controller development, creating in silico computer models for mimicking human physiology in trauma, and automating ultrasound image