Matthew J. Elrick - US grants
Affiliations: | Neuroscience | University of Michigan, Ann Arbor, Ann Arbor, MI |
Area:
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The funding information displayed below comes from the NIH Research Portfolio Online Reporting Tools and the NSF Award Database.The grant data on this page is limited to grants awarded in the United States and is thus partial. It can nonetheless be used to understand how funding patterns influence mentorship networks and vice-versa, which has deep implications on how research is done.
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High-probability grants
According to our matching algorithm, Matthew J. Elrick is the likely recipient of the following grants.Years | Recipients | Code | Title / Keywords | Matching score |
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2010 — 2011 | Elrick, Matthew J | F30Activity Code Description: Individual fellowships for predoctoral training which leads to the combined M.D./Ph.D. degrees. |
Disease Modifying Pathways in Niemann-Pick Type C Disease @ University of Michigan DESCRIPTION (provided by applicant): Niemann-Pick C disease is an autosomal recessive neurodegenerative disorder of childhood for which there is currently no effective treatment. This disorder results from deficiency of the intracellular cholesterol trafficking proteins NPC1 or NPC2, leading to the accumulation of cholesterol and glycolipids in late endosomes and lysosomes. How this cellular defect leads to neurodegeneration remains largely unknown. Processes compensating for pathologic lipid storage to promote neuronal survival represent promising therapeutic targets;however these are likewise not well understood. The objective of this application, therefore, is to identify cellular pathways that modulate the severity of neurodegeneration in Niemann-Pick C disease. This application is guided by preliminary data demonstrating that autophagy, a bulk degradation pathway for cytoplasmic proteins and organelles, is up-regulated in Niemann-Pick C disease. Additionally, our data demonstrate that deletion of the microtubule-associated protein tau markedly increases phenotypic severity of the Niemann-Pick C mouse model and impairs autophagy in NPC1-deficient cells. My central hypothesis is that the induction of autophagy and the presence of tau pathology are modifying factors in the pathogenesis of Niemann-Pick C disease. In my first Aim, I will establish the role of autophagy in modulating the severity of Niemann-Pick C disease, and evaluate autophagy as a therapeutic target. This will be accomplished by genetically inhibiting and pharmacologically enhancing autophagy in Niemann-Pick C mice, and assessing the effect of these manipulations on the disease phenotype. In my second Aim, I will define the contribution of tau to neurological dysfunction in Niemann-Pick C disease. I hypothesize that functional tau is required for increased autophagy in NPC1 deficient cells. I will use multiple assays to monitor the induction and flux of the autophagic pathway in NPCI/tau double-mutant primary neuronal cultures, and test the ability of wild type and mutant human tau to rescue autophagic defects in these cells. Further, I will determine the ability of human tau to rescue autophagic defects and the phenotype of Niemann-Pick C mice in vivo. The public health relevance of the proposed studies is that they will evaluate autophagy as a therapeutic target in Niemann-Pick C disease, and will elucidate the role of tau in neuropathology, thus improving our understanding of neurodegeneration in Niemann-Pick C and other tauopathies, including Alzheimer disease and the frontotemporal dementias. NOTE: The critiques of individual reviewers are provided in the following sections in an essentially unedited, verbatim form. They are provided to illustrate the range of opinions expressed. The application was discussed and assigned an overall score by all reviewers present. The critiques and the criterion scores were posted prior to the review meeting and may have not been updated or revised subsequent to the discussion at the meeting. Therefore, they may not represent the positions of the reviewers at the close of group discussion nor the final majority opinion of the group. The Resume and Summary of Discussion (above) represents the final outcome of the group discussion. |
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2021 | Elrick, Matthew J | R03Activity Code Description: To provide research support specifically limited in time and amount for studies in categorical program areas. Small grants provide flexibility for initiating studies which are generally for preliminary short-term projects and are non-renewable. |
Modeling Host Susceptibility Factors in Acute Flaccid Myelitis @ Johns Hopkins University Project Summary/Abstract Modeling host susceptibility factors in Acute Flaccid Myelitis Acute flaccid myelitis (AFM) is a poliomyelitis-like neuroinfectious illness of children whose prevalence has increased dramatically in recent years, occurring in biennial outbreaks in the Unites States since at least 2014. The consequences of AFM are often severe and debilitating lifelong paralysis that may also include respiratory failure. Despite its striking similarity to polio, little is known about disease pathogenesis and few effective treatment options exist. AFM has been connected to neurotropic non-polio enteroviruses, especially Enterovirus D68 (EV68). However, the vast majority of cases of EV68 infections cause mild non-specific viral symptoms or a respiratory syndrome, while only a small minority of patients become paralyzed as a result of spinal motor neuron infection. This observation suggests that the development of AFM requires the intersection of viral infection and host factors that are permissive to neuropathogenesis. We will therefore generate induced pluripotent stem cell (iPS) lines from tissues previously donated by AFM patients, and use these to model AFM resulting from EV68 infection in vitro. The initial experiments within the scope of this application will focus on spinal motor neurons, due to the fact that motor neuron death is the proximate cause of paralysis in AFM patients, and evidence for direct motor neuron infection by EV68. We will characterize the composition and reproducibility of AFM patient derived and control iPS lines differentiated into spinal motor neurons, and determine the baseline susceptibility of the neurons to a variety of cellular stressors. These studies will set the stage for future experiments of EV68 infection of patient-derived iPS motor neurons to better understand host factors that are permissive of viral infection and motor neuron death and dysfunction. The result of this work will be a model system for AFM that faithfully reproduces the affected cell type, in human cells, and on a genetic background with proven susceptibility to disease. The iPS lines will also be capable of modeling other disease-relevant cell types in the future. These cell lines will represent a unique and valuable resource to the AFM research community. |
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