Genes For Niemann-Pick Type C Disease
Prevention and Treatment of Multiple Sclerosis (MS) by Administering E-Selectin
SIRT2 Inhibitors as Novel Therapeutics for Myocardial Infarction and Ischemic Stroke and to Prevent Necrosis
Therapeutic, Bifunctional Janus Microparticles with Spatially Segregated Surface Proteins and Methods of Production
2,2'-Bipyridyl, a Ferrous Chelator, Prevents Vasospasm in a Primate Model of Subarachnoid Hemorrhage
Cell Expansion System For Use In Neural Transplantation
Method to Detect and Quantify In Vivo Mitophagy
This technology includes a transgenic reporter mouse that expresses a fluorescent protein called mt-Keima, to be used to detect and quantify in vivo mitophagy. This fluorescent protein was originally described by a group in Japan and shown to be able to measure both the general process of autophagy and mitophagy. We extended these results by creating a living animal so that we could get a measurement for in vivo mitophagy. Our results demonstrate that our mt-Keima mouse allows for a straightforward and practical way to quantify mitophagy in vivo.
Cell Lines of Dopaminergic Neurons Derived from Human Induced Pluripotent Stem Cell (iPSC) lines for Multiple Neurological Therapeutic and Diagnostic Uses
This technology includes three cell lines of dopaminergic neurons derived from human induced pluripotent stem cell (iPSC) line BC1, human iPSG line X1 and human embryonic stem cell (hESC) line H14 to be utilized in neurology research. These cell lines will be used for to study the biology of brain development and may also be used to test different characterization and differentiation assays. The dopaminergic neurons and/or their derivatives may also be used as controls in studies to screen for small molecules to change cell fate and/or to alleviate the phenotypes of various diseases.
Neuronal Differentiation of Neural Stem Cells with StemPro Embryonic Stem Cell Serum Free Medium for Research and Therapeutic Development
This technology involves an innovative method for differentiating neural stem cells (NSCs) into neurons, primarily for use in basic science research and in developing therapies for brain and spinal cord disorders. Existing methods for generating neurons from NSCs typically result in high efficiency but low survival rates, especially when neurons are dissociated and regrown. This new method utilizes Life Technologies StemPro embryonic stem cell serum-free medium, which significantly enhances differentiation efficiency into neurons with minimal cell death.