grant

Non-genotoxic HSCT for ATM

Organization EMORY UNIVERSITYLocation ATLANTA, UNITED STATESPosted 1 Sept 2024Deadline 31 Aug 2026
NIHUS FederalResearch GrantFY20250-11 years oldA-T PatientsAblationAccelerationAddressAffinotoxinsAlkylating Agents ChemotherapyAlkylating Antineoplastic AgentsAlkylating Antineoplastic DrugsAlkylating AntineoplasticsAllelesAllelomorphsAllogenicAntibodiesAtaxiaAtaxia TelangiectasiaAtaxia Telangiectasia PatientsAtaxia Telangiectasia SyndromeAtaxyAttenuatedB220Body TissuesBrainBrain Nervous SystemC-KIT GeneCD117CD117 AntigensCD45Cellular Immune FunctionCerebellar degenerationCessation of lifeChemotactic CytokinesChemotherapy AlkylatorsChildChild YouthChildren (0-21)ChimerismChronicCoordination ImpairmentCytotoxin-Antibody ConjugatesDNA DamageDNA Damage RepairDNA InjuryDNA MaintenanceDNA RepairDNA StabilityDNA mutationDeathDeath RateDevelopmentDyssynergiaEncephalonEnvironmentGP180GaitGenetic ChangeGenetic DiseasesGenetic defectGenetic mutationGenomicsGenotoxic StressGerminoblastic SarcomaGerminoblastomaHigh-Risk CancerHomologous Chemotactic CytokinesImmuneImmunesImmunityImmunocompetentImmunotoxinsInflammationInflammatoryInflammatory ResponseIntercrinesIonizing Electromagnetic RadiationIonizing radiationLCM VirusesLCMVLY5LinkLouis-Bar SyndromeLymphocytic choriomeningitis virusLymphomaMalignant LymphomaMast Cell Growth Factor ReceptorMethodsMiceMice MammalsModelingMonoclonal Antibody-Toxin ConjugatesMorbidityMorbidity - disease rateMurineMusMutationNerve DegenerationNeurologicNeurologic outcomeNeurologicalNeurological outcomeNeuron DegenerationOutcomePTPRCPTPRC genePathologicPatientsPeripheralPhenotypePoly I-CPolyinosinic-Polycytidylic AcidProteinsProto-Oncogene Protein c-kitPublishingQualitative EvaluationsQuantitative EvaluationsRadiation-Ionizing TotalRecombinantsRegimenReportingResearchReticulolymphosarcomaRiskRoleSCF ReceptorSCF Receptor GeneSCFRSIS cytokinesSpleenSpleen Reticuloendothelial SystemStem Cell Factor ReceptorStem Cell Factor Receptor GeneSterilityStressT200TelangiectasiaTelangiectasisTherapeuticThymusThymus GlandThymus ProperThymus Reticuloendothelial SystemTissuesToxinToxin-Antibody ConjugatesToxin-Antibody HybridsTransplantationUnscheduled DNA Synthesisantibody conjugateattenuateattenuatesc kitc-kit Proteinc-kit Receptorcancer riskcerebellum degenerationchemoattractant cytokinechemokinechemotherapyconditioningcytokinedesigndesigningdevelopmentalexperiencegenetic conditiongenetic disordergenome integritygenome mutationgenomic integritygenotoxicityhypoimmunityimmune competentimmune deficiencyimmune functionimmune reconstitutionimmune response to vaccinationimmune response to vaccinesimmunodeficiencyimprovedinfection riskinnovateinnovationinnovativeinsightionizing outputkidskit Proto-Oncogene Proteinmortality ratemortality ratiomouse modelmurine modelmutantnerve damageneural degenerationneurodegenerationneurodegenerativeneurological degenerationneuronal degenerationp145(c-kit)p145c-kitpatients diagnosed with Ataxia-Telangiectasiapatients with Ataxia-Telangiectasiaperipheral bloodpoly I:Cpoly ICpoly(I:C)social rolesterilestressortransplantvaccine associated immune responsevaccine immune responsevaccine immunogenicityvaccine induced immune responseyoungster
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Full Description

Project Summary
Ataxia telangiectasia (A-T) is a genetic disorder resulting from mutations in the ATM protein, essential for DNA

repair and maintaining genomic integrity. Patients with A-T experience neurodegeneration, immune deficiencies,

an elevated risk of lymphoma, and pathological inflammation due to DNA damage. The increased likelihood of

lymphomas, immune deficiency, and neurological decline contribute significantly to the high rates of mortality

and morbidity in A-T. While allogeneic HSCT has been explored using reduced-intensity genotoxic conditioning,

outcomes have varied. In this proposal, we aim to investigate the role of allogeneic HSCT with non-genotoxic

conditioning using immunotoxin in A-T murine models, focusing on correcting underlying immune deficiency,

reducing lymphoma risk, and attenuating the chronic inflammatory phenotype. We hypothesize that this strategy

will correct immune deficiencies, diminish lymphoma risk, and lessen DNA damage-induced inflammation. The

specific aims of the proposal are: 1) To examine the effect of HSCT with non-genotoxic conditioning on the

likelihood of lymphoma in an A-T murine model. 2) To assess the impact of HSCT with non-genotoxic

conditioning on infection risk and inflammatory response in the A-T murine model. We will employ recombinant

saporin-based immunotoxins, including CD117 and CD45- antibody saporin conjugates, combined with non-

genotoxic immune ablation strategies. Completing this research could open avenues for innovative treatments

for A-T and similar genetic disorders by addressing the elevated risk of infection, inflammatory stress, and

associated lymphoma risk through a non-genotoxic HSCT approach.

Grant Number: 5R03HL174883-02
NIH Institute/Center: NIH

Principal Investigator: Shanmuganathan Chandrakasan

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