Sort by
Refine Your Search
-
Listed
-
Category
-
Field
-
researcher will be responsible for the design, analysis, interpretation, and presentation of experiments regarding the study of the disease mechanisms of various brain disorders using murine models and iPSC
-
centrifuges, electrophoresis, and confocal microscopes. Compiles and analyzes data with appropriate statistical analysis, conclusions, and future directions in support of further CHI research. Adhere
-
necessary. Techniques that will be used include DNA/RNA extraction, qPCR, Gel electrophoresis, cell culture, Fluorescence and Confocal microscopy and associated imaging analysis and Western blotting. Basic
-
microscopes. Compile and analyze data with appropriate statistical analysis, conclusions, and future directions in support of further CNM research. Adhere to established performance standards and coordination
-
of the Principal Investigator, the Postdoctoral Associate will be responsible for the design, analysis, interpretation, and presentation of experiments regarding the study of molecular mechanisms of the regulation
-
and the wider Rutgers community. Teaching requirements are one course per semester, with one on geological data analysis at upper undergraduate to graduate level (400/500_ and one introductory geology
-
exploratory analysis to support research, predictive modeling, and departmental analytics needs. Contribute to machine‑learning prototype development, including running model experiments, evaluating performance
-
researcher will be responsible for the design, analysis, interpretation, and presentation of experiments regarding the study of the pathophysiology of epilepsy or seizure disorders using murine models and
-
of the Principal Investigator, the Visiting Researcher will be responsible for molecular cloning, cell culture, confocal imaging, and data analysis. The Visiting Researcher will perform molecular, cellular, and
-
, the Postdoctoral Associate will investigate hippocampal and cortical circuits during navigation and goal-directed behaviors using large-scale electrophysiology, in vivo imaging, optogenetics, and computational