Investigating the Critical Role of Glia In Peripheral Organ Development and Physiology
Investigating the Critical Role of Glia In Peripheral Organ Development and Physiology
批准号:
10676501
负责人:
Sarah Elisabeth Williams Light
金额:
$6.95万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2023
资助国家:
美国
项目状态:
未结题
起止时间:
2023-05-08 至 2026-05-07
关键词:
AblationAgonistAnimal ModelAnimalsArrhythmiaAstrocytesAttentionBehaviorBiological SciencesBlood flowBrainCardiacCardiac MyocytesCellsCellular MorphologyCentral Nervous SystemCharacteristicsCommunicationComplexDevelopmentEducational process of instructingEnteric Nervous SystemEnvironmentFertilizationFunctional disorderFutureGap JunctionsGoalsGrowthHealthHeartHeart DiseasesHeart RateHomeostasisHuman bodyImageImmunohistochemistryInstitutionKidneyKnock-outKnowledgeLaboratoriesLightLungMentorsMicroscopyModelingMolecular ProfilingMonitorMorphologyNervous System PhysiologyNervous System controlNeurogliaNeuronsOpticsOrganOrganogenesisPancreasPathologyPatternPeripheralPeripheral Nervous SystemPhysiologicalPhysiologyPlayPopulationPopulation DynamicsProcessReflex actionRegulationResearchResolutionRoleRunningSignal PathwaySignal TransductionSkinSpleenStimulusStructureSystemTechnical ExpertiseTimeTransgenic AnimalsUniversitiesVentricular FibrillationWorkZebrafishcalcium indicatorcardiogenesiscell typecongenital heart disorderexperimental studyheart functionheart rhythmimaging facilitiesin vivoinsightmigrationneuralneural modelneuronal circuitryneuroregulationnovelorgan growthresponseskillssuccesstissue fixingundergraduate student
中文摘要
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英文摘要
Project Summary
Organs of the human body rely on complex integration of multiple neuronal circuits in order to maintain
homeostasis. For example, the heart must respond to internal and external stimuli and produce sufficient blood
flow to meet environmental demands. Glia play critical roles to support nervous system function but are also
indispensable for establishment of appropriate circuit structure and physiology. Our lab recently identified a cell
type in the heart with many similarities to astroglia populations found elsewhere in the body. This cell type, which
we termed cardiac nexus glia, is present as the heart is being formed and is critical for establishment of heart
rhythm. Ablation of these glia causes cardiac arrhythmia and ventricular fibrillation, both serious physiological
conditions. This project uses the zebrafish animal model to investigate the developmental ontogeny and
morphological characteristics of cardiac nexus glia in the developing hearts of living animals (Aim 1). Additionally,
it probes the functional relationship between these glia and cardiomyocytes and their roles in modulating heart
rate and rhythm (Aim 2). The results of these experiments will contribute crucial detail to our understanding of
the multi-faceted roles of glia in the peripheral nervous system and provide important and specific insight about
cardiac nexus glia function in heart development and disease.
This research will be undertaken in a supportive and collaborative laboratory environment within the
Biological Sciences Department at Notre Dame University. It will rely on expertise from staff of the Center for
Zebrafish Research and the Integrated Imaging Facility. In addition to the development of bench skills and
technical expertise inherent to this project, the applicant will also hone teaching, mentoring, and management
skills that will be critical for her future success as a PI running her own research group at a primarily
undergraduate institution.
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国内基金
海外基金
Agonist-GPR119-Gs复合物的结构生物学研究
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批准号:32000851
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项目类别:青年科学基金项目
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资助金额:24.0万元
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批准年份:2020
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负责人:乔安娜
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依托单位: