A chemical biology approach to studying the role of SARM1 in a novel degradative pathway
A chemical biology approach to studying the role of SARM1 in a novel degradative pathway
批准号:
9924674
负责人:
Heather Starr Loring
金额:
$1.86万
依托单位国家:
美国
项目类别:
财政年份:
2018
资助国家:
美国
项目状态:
已结题
起止时间:
2018-06-25 至 2021-01-09
关键词:
Active SitesAxonBiological AssayBiologyCatalysisCell DeathCellsCharacteristicsChemicalsCryoelectron MicroscopyCrystallizationCrystallographyCytoprotectionDegradation PathwayDevelopmentDiseaseDisease ProgressionDrug TargetingElectron Microscopy FacilityEnzyme Inhibitor DrugsEnzymesFeedbackFutureGlutamic AcidHumanHydrolaseIn VitroInterleukin ReceptorKineticsKnock-outKnowledgeLabelLaboratoriesLengthMediatingModelingNAD+ NucleosidaseNerve DegenerationNeurodegenerative DisordersNeuronsNeuropathyNiacinamideOnset of illnessPathway interactionsPatternPlayProcessPropertyProteinsReactionResearchRoleSeriesSterilityStructureSynapsesToxic effectTraumatic Brain InjuryTreatment EfficacyWallerian DegenerationX-Ray Crystallographyactivity-based protein profilingaxonal degenerationbasedesigndrug developmentexperimental studyin vivoinhibitor/antagonistinsightknock-downmutantneuron lossnew therapeutic targetnovelpreventsuccesstherapeutic target
中文摘要
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英文摘要
Project Summary
The novel NAD glycohydrolase, SARM1, is an active executioner in progressive axonal and neuronal
degeneration1. This type of degeneration, termed Wallerian degeneration, defines a number of diseases,
including neuropathies, traumatic brain injury and neurodegenerative diseases, yet no therapies exist. In fact,
prior to the discovery of SARM1’s role in triggering Wallerian degeneration, the process was believed to occur
passively.
SARM1’s causal role in Wallerian degeneration demonstrates that it is an attractive therapeutic target that could
prevent disease progression. However, the design of therapeutics targeting SARM1 is limited by the dearth of
knowledge surrounding its inherent NADase activity. In order to evaluate SARM1’s therapeutic efficacy and
design potential SARM1 inhibitors, the proposed research will study its structure, enzymatic mechanism and
cellular activity. Solving the structure by leveraging the benefits of crystallography and cryoEM, determining the
enzymatic mechanism via a series of assays and analyzing the in vivo activity with activity-based probes will fill
in important gaps. Revealing these properties would enable the design of SARM1 inhibitors that could ultimately
treat Wallerian-type diseases. Moreover, demystifying the role SARM1 plays in neurodegeneration would also
allow for a better understanding of these disease types, the enzymatic capabilities of toll/interleukin receptor
(TIR) domains and the involvement of NADases in numerous disease states.
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