grant

Role of Lung Repair and Regeneration Pathways in Tuberculosis

Organization UNIVERSITY OF CHICAGOLocation CHICAGO, UNITED STATESPosted 18 Jul 2024Deadline 30 Jun 2026
NIHUS FederalResearch GrantFY202521+ years oldAddressAdultAdult HumanAnimal ModelAnimal Models and Related StudiesAutoregulationBMP receptorBloodBlood Reticuloendothelial SystemBone Morphogenetic Protein GeneBone Morphogenetic ProteinsClinicalClinical TrialsDataDevelopmentDiseaseDisease ProgressionDisorderEpithelial CellsEvaluationExhibitsHistologic TechnicsHistologic TechniquesHistological TechnicsHistological TechniquesHomeostasisHumanImmuneImmunesImmunityIndividualInflammatory ResponseInjuryInterventionKnowledgeLungLung Alveolar EpitheliaLung ParenchymaLung Respiratory SystemLung TissueLung tissue regenerationM tbM tuberculosisM tuberculosis infectionM. tbM. tb infectionM. tuberculosisM. tuberculosis infectionM.tb infectionM.tuberculosis infectionMTB infectionMacacaMacaqueMediatingMiceMice MammalsModelingModern ManMurineMusMycobacterium tuberculosisMycobacterium tuberculosis (MTB) infectionMycobacterium tuberculosis infectionNHP modelsNatural regenerationPathologicPathway interactionsPhysiological HomeostasisPlayPopulationPositive Regulation of Protein Activity PathwayProtein Activation PathwayRNA SeqRNA sequencingRNAseqRegenerationRegenerative pathwayRegulationRegulatory ElementReporterReportingRiskRoleSignal PathwaySignaling Factor Proto-OncogeneSignaling Pathway GeneSignaling ProteinSingle cell seqStructure of parenchyma of lungTB infectionTechnologyTherapeutic InterventionTimeTuberculosisVaccinesWorkadulthoodalveolar epitheliumbone morphogenetic protein receptorsbone morphogenic proteinbronchial epitheliumcell typedevelopmentaldisseminated TBdisseminated tuberculosisinfection due to Mycobacterium tuberculosisinjuriesinjury to tissueinsightintervention therapyloss of functionlung developmentlung regenerationlung repairlung tissue repairmodel of animalmouse modelmtbmurine modelnew drug treatmentsnew drugsnew pharmacological therapeuticnew therapeuticsnew therapynext generation therapeuticsnonhuman primate modelsnovelnovel drug treatmentsnovel drugsnovel pharmaco-therapeuticnovel pharmacological therapeuticnovel therapeuticsnovel therapypathogenpathwaypredictive biological markerpredictive biomarkerspredictive markerpredictive molecular biomarkerprotection pathwayprotective pathwayprotein expressionpulmonary regenerationpulmonary repairrational designregenerateregenerate new tissueregenerate tissueregenerating damaged tissueregenerating tissueregeneration pathwayrepairrepairedsingle cell next generation sequencingsingle cell sequencingsmall molecular inhibitorsmall molecule inhibitorsocial roletherapeutic agent developmenttherapeutic developmenttissue injurytissue regenerationtissue regrowthtissue renewaltissue repairtissue specific regenerationtranscriptome sequencingtranscriptomic sequencingtranscriptomicstuberculosis infectiontuberculous spondyloarthropathy
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Full Description

PROJECT SUMMARY
Tuberculosis (TB), caused by the intracellular pathogen Mycobacterium tuberculosis (Mtb), infects one-fourth

of the world’s population. Majority of the infected individuals are latently infected (LTBI), of which 5-10% stand

a risk of progressing to active TB disease (ATB) during their lifetime. There is limited knowledge about the

precise mechanisms and pathways that mediate protective versus pathologic immunity during TB. Using RNA-

sequencing analysis, we recently identified novel immune pathways upregulated during TB latency across

species, namely Bone Morphogenetic Protein (BMP) signaling pathway. The BMP signaling pathway plays a

prominent role in the regulation of lung development and adult lung homeostasis, and tissue repair following

injury. However, the role of lung tissue repair and regeneration during TB latency is unexplored, and the

specific role of the protective BMP-pathway in latent Mtb infection remains unknown. Moreover, our data

suggests that lung tissue damage is being actively repaired in controllers during TB latency, without triggering

a substantial inflammatory response. Therefore, we hypothesize that during TB latency, BMP signaling is

upregulated mediating lung tissue repair, regeneration and Mtb control. This hypothesis will be

addressed in the following two Specific Aims. In Specific Aim 1, we will determine the functional role of the

BMP- pathway in Mtb control and TB reactivation. In Specific Aim 2, we will characterize the cellular

mechanisms of BMP-pathway activation during TB latency. These studies can then pave the way for new

strategies that will aid in the development of therapeutic interventions which can deter the progression from TB

latency to TB disease.

Grant Number: 5R21AI174034-02
NIH Institute/Center: NIH

Principal Investigator: Mushtaq Ahmed

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