grant

Regulation of mucosal immunity by neuronal pathways

Organization WEILL MEDICAL COLL OF CORNELL UNIVLocation NEW YORK, UNITED STATESPosted 25 Jul 2011Deadline 30 Jun 2026
NIHUS FederalResearch GrantFY2025ACh ReceptorsAcetylcholineAcetylcholine ReceptorsAddressAgonistAlimentary CanalAllergic DiseaseAllergic inflammationAllergic to foodAllergyAllergy to foodAsthmaB Cell Differentiation Factor IB cell growth factor 2B-Cell Growth Factor-IIBCGF-IIBCGF2BindingBody TissuesBronchial AsthmaCell BodyCell Communication and SignalingCell FunctionCell PhysiologyCell ProcessCell SignalingCellsCellular FunctionCellular PhysiologyCellular ProcessCellular biologyCholine AcetylaseCholine AcetyltransferaseCholine O-AcetyltransferaseCholinergic ReceptorsCholinoceptive SitesCholinoceptorsChronicCommunicable DiseasesCritical PathsCritical PathwaysDataDigestive TractDiseaseDisorderEo-CSFEosinophil Differentiation FactorEpithelial CellsFamilyFood AllergyFood HypersensitivityGI TractGastrointestinal TractGastrointestinal tract structureHP40HelminthsHomolog of Mouse T Cell and Mast Cell Growth Factor 40HumanIL-13IL-5IL-9IL13IL9 ProteinIgA enhancing factorImmuneImmune responseImmune systemImmunesImmunityImmunologyImpairmentIndividualInfectionInfectious DiseasesInfectious DisorderInflammationInflammatoryInterleukin 5 PrecursorInterleukin 9 PrecursorInterleukin-13Interleukin-5Interleukin-9IntestinalIntestinesIntracellular Communication and SignalingInvadedKnock-outKnockoutKnowledgeLymphatic cellLymphocyteLymphocyticLymphoid CellMediatingMiceMice MammalsModern ManMolecularMolecular InteractionMucosaMucosal Immune SystemMucosal ImmunityMucosal InflammationMucosal TissueMucositisMucous MembraneMurineMusNerve CellsNerve Impulse TransmissionNerve TransmissionNerve Transmitter SubstancesNerve UnitNervous SystemNeural CellNeurocyteNeurologic Body SystemNeurologic Organ SystemNeuronal TransmissionNeuronsNeurotransmittersNippostrongylusPTK ReceptorsParasitesParasitic WormsPathway interactionsProductionPublic HealthReceptor Protein-Tyrosine KinasesReceptor Tyrosine Kinase GeneRegulationRoleSamplingSignal TransductionSignal Transduction SystemsSignalingSubcellular ProcessT cell replacing factorT-Cell Growth Factor P40T-Cell Replacing FactorT-Cell/Mast Cell Growth Factor p40TSLPTSLP geneTestingTherapeuticThymic Stromal LymphopoietinTissuesTranslatingTransmembrane Receptor Protein Tyrosine KinaseTyrosine Kinase Linked ReceptorsTyrosine Kinase Receptorsalimentary tractaxon signalingaxon-glial signalingaxonal signalingbiological signal transductionbowelcell biologycell typecellular targetingcurative interventioncurative therapeuticcurative therapycurative treatmentscytokinedigestive canalgenetic approachgenetic strategyglia signalingglial signalinghelminth infectionhelminthic infectionhost responseimmune system responseimmunoresponsein vivoinfected with helminthinhibitorinnovateinnovationinnovativelymph cellmucosal sitenerve signalingneural signalingneuronalneuronal signalingneurotransmissionneurotrophic factorneurotrophinneutrophinnew therapeutic approachnew therapeutic interventionnew therapeutic strategiesnew therapy approachesnew treatment approachnew treatment strategynext generationnovelnovel therapeutic approachnovel therapeutic interventionnovel therapeutic strategiesnovel therapy approachp40 Cytokinep40 Proteinpathogenpathwaypreventpreventingresponsesmall moleculesocial rolesocio-economicsocio-economicallysocioeconomicallysocioeconomicstherapeutic targettooltreatment strategy
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Full Description

PROJECT ABSTRACT
The immune system at mucosal sites must be tightly regulated to mediate rapid immunity to invading

pathogens, while limiting over-reactive responses that drive chronic inflammation. In particular, type 2 immune

responses in the airway or gastrointestinal tract are essential to protect from helminth parasites, but if

dysregulated, drive asthma and allergic inflammation. Despite this knowledge, we do not yet fully appreciate

the complexity of cellular and molecular signals that control these responses, which will be critical for

developing the next generation of preventative, therapeutic or curative treatments. The fundamental focus of

this renewal application for the Mucosal Immunology Studies Team is to define novel pathways by which the

type 2 immune response harnesses signals associated with the nervous system to regulate rapid mucosal

immunity and inflammation. In this context, we will define: (i) the pathways that induce and regulate these

neuronal signals, (ii) the functional significance of these pathways in type 2 mucosal immunity and

inflammation, and (iii) whether it is possible to therapeutically target these signals to boost immunity to

helminth infection or reduced chronic allergic inflammation. We will employ innovative approaches and develop

new tools to address these fundamental gaps in knowledge, and where possible, translate our findings from

mice into human samples. Results from these studies will significantly advance our understanding of the

pathways that are essential to mediate rapid type 2 immunity and inflammation at mucosal sites and

could provoke the next generation of preventative, therapeutic and curative treatment strategies.

Grant Number: 5U01AI095608-16
NIH Institute/Center: NIH

Principal Investigator: David Artis

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