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: Cellular and Molecular Medicine Description: Interested in Neural Stem Cells (NSCs) physiology and function? Want to monitor NSCs activation and division using in vivo live imaging approaches in behaving
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-density electrophysiological recording systems, two-photon imaging, optogenetics, transgenic mouse lines for targeting specific neuronal subtypes, and behavioral rigs. We strongly encourage candidates
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the Quantitative Radiomolecular Imaging & Therapy lab (Qurit.ca) under the guidance of Drs. Arman Rahmim and Carlos Uribe. The fellow will work in collaboration with researchers, clinicians and imaging experts from
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McGill University | Winnipeg Sargent Park Daniel McIntyre Inkster SE, Manitoba | Canada | 11 days ago
imaging system based on the random access parallel imaging (RAP) system platform (https://doi.org/10.7554/eLife.56426 ). The RAP platform quickly collects high-contrast images in multi-well plates using
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at MUN features state-of-the-art medical laboratories equipped with high-resolution confocal imaging, a Seahorse analyzer for metabolic profiling, flow sorters and cytometers, an electron microscopy suite
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McGill University | Winnipeg Sargent Park Daniel McIntyre Inkster SE, Manitoba | Canada | 9 days ago
work under the supervision of Dr Maria Vera Ugalde. They will apply high-resolution imaging combined to study the spatiotemporal regulation of mRNAs. Responsibilities You will, Conduct independent
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dynamics in models of brain injury and neurodegeneration (amyotrophic lateral sclerosis / ALS and Alzheimer’s disease / AD). Projects will involve in vivo multiphoton imaging of glia, vascular, perivascular
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combining chronic in vivo imaging (two-photon microscopy, fiber photometry, GRIN lens imaging) with genetic and molecular approaches to dissect how cell type- and projection-specific plasticity orchestrate
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linking sensory thalamus to motor cortex in the context of dexterous forelimb movements using viral tools, in vivo electrophysiology, chemogenetics, calcium imaging and movement analysis using deep learning
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therapeutic targets for stroke. We use a host of techniques including but not limited to large-scale mesoscopic calcium imaging, optogenetics, gene targeting with viral vectors or transgenics, transcriptomics