grant

Recombinant Interleukin-33 Immunotherapy for Pancreatic Cancer

Organization SLOAN-KETTERING INST CAN RESEARCHLocation NEW YORK, UNITED STATESPosted 20 Sept 2022Deadline 31 Aug 2027
NIHUS FederalResearch GrantFY2025AccelerationAddressAdvanced CancerAdvanced Malignant NeoplasmAlbuminsAntitumor ResponseBiological MarkersBiologyBody TissuesCD8 CellCD8 T cellsCD8 lymphocyteCD8+ T cellCD8+ T-LymphocyteCD8-Positive LymphocytesCD8-Positive T-LymphocytesCancer PatientCancer TreatmentCancersCanine SpeciesCanis familiarisCell BodyCell Communication and SignalingCell DensityCell SignalingCell-Mediated Lympholytic CellsCellsChemotactic CytokinesClinicClinicalClinical TrialsCo-cultureCocultivationCocultureCoculture TechniquesCombined Modality TherapyCytolytic T-CellCytotoxic T CellCytotoxic T-LymphocytesDataDendritic CellsDogsDogs MammalsDrug DeliveryDrug Delivery SystemsDrug KineticsDrug TargetingDrugsGene TranscriptionGenetic TranscriptionHalf-LifeHomologous Chemotactic CytokinesHumanImmune mediated therapyImmunityImmunochemical ImmunologicImmunologicImmunologicalImmunologicallyImmunologically Directed TherapyImmunologicsImmunotherapyInfiltrationIntercrinesInterleukinsIntracellular Communication and SignalingKnowledgeLaboratory StudyLeadLife ExtensionLiverLungLung Respiratory SystemLymph Node Reticuloendothelial SystemLymph node properLymphatic cellLymphatic nodesLymphocyteLymphocyticLymphoid CellLytotoxicityMHC ReceptorMSKCCMajor Histocompatibility Complex ReceptorMalignant Neoplasm TherapyMalignant Neoplasm TreatmentMalignant NeoplasmsMalignant Pancreatic NeoplasmMalignant TumorMalignant neoplasm of pancreasMediatingMedicationMemorial Sloan-Kettering Cancer CenterMetastasisMetastasizeMetastatic AdenocarcinomaMetastatic LesionMetastatic MassMetastatic NeoplasmMetastatic TumorMiceMice MammalsModelingModern ManMolecularMoralsMultimodal TherapyMultimodal TreatmentMurineMusNatureNeoplasm MetastasisOrganoidsPD 1PD-1PD-1 antibodyPD-1 antibody therapyPD-1 blockadePD-1 therapyPD1PD1 antibodyPD1 antibody therapyPD1 based treatmentPD1 blockadePancreasPancreas CancerPancreas Ductal AdenocarcinomaPancreaticPancreatic CancerPancreatic Ductal AdenocarcinomaPathway interactionsPatientsPb elementPeritoneumPharmaceutical PreparationsPharmacokineticsPharmacologyPhenotypePre-Clinical ModelPreclinical ModelsPrimary NeoplasmPrimary TumorProteinsRNA ExpressionReceptor ProteinRecombinant InterleukinsRecombinantsReporterResearch SpecimenResistanceSIS cytokinesSafetySamplingSecondary NeoplasmSecondary TumorSignal TransductionSignal Transduction SystemsSignalingSiteSpecimenSurvivorsT-Cell ActivationT-Cell Antigen ReceptorsT-Cell ReceptorT-CellsT-LymphocyteT8 CellsT8 LymphocytesTestingTherapeuticTissuesToxicologyTranscriptionTranslatingTranslationsTumor CellTumor ExpansionTumor ImmunityVeiled CellsWorkaPD-1aPD-1 therapyaPD-1 treatmentaPD1aPD1 therapyaPD1 treatmentactivate T cellsanti programmed cell death 1anti-PD-1anti-PD-1 Abanti-PD-1 antibodiesanti-PD-1 blockadeanti-PD-1 monoclonal antibodiesanti-PD-1 therapyanti-PD-1 treatmentanti-PD1anti-PD1 Abanti-PD1 antibodiesanti-PD1 blockadeanti-PD1 monoclonal antibodiesanti-PD1 therapyanti-PD1 treatmentanti-cancer immunotherapyanti-cancer therapyanti-programmed cell death 1 therapyanti-programmed cell death protein 1anti-programmed cell death protein 1 antibodiesanti-programmed cell death protein 1 therapyanti-programmed death-1 antibodyanti-tumor immunityanti-tumor responseantiPD-1anticancer immunotherapyantitumor immunitybio-markersbiologic markerbiological signal transductionbiomarkerbiomarker drivenbiomarker identificationcancer immunitycancer immunotherapycancer metastasiscancer therapycancer-directed therapycancers that are rarecaninecheck point inhibitioncheckpoint inhibitionchemoattractant cytokinechemokineclinic readyclinical readycohortcombination therapycombined modality treatmentcombined treatmentcytokinecytotoxicitydesigndesigningdomestic dogdrug/agentexpression subtypesfirst in manfirst-in-humanheavy metal Pbheavy metal leadhepatic body systemhepatic organ systemidentification of biomarkersidentification of new biomarkersimmune check pointimmune check point inhibitionimmune checkpointimmune checkpoint inhibitionimmune microenvironmentimmune therapeutic approachimmune therapeutic interventionsimmune therapeutic regimensimmune therapeutic strategyimmune therapyimmune-based cancer therapiesimmune-based therapiesimmune-based treatmentsimmunecheckpointimmuno therapyimmunosuppressive microenvironmentimmunosuppressive tumor microenvironmentimmunotherapy for cancerimmunotherapy of cancerinhibiting antibodykiller T celllymph celllymph glandlymph nodeslymphnodesmalignancymarker identificationmolecular sub-typesmolecular subsetsmolecular subtypesmoralmouse modelmulti-modal therapymulti-modal treatmentmurine modelneoplasm/cancerneoplastic cellnew approachesnew drug treatmentsnew drugsnew pharmacological therapeuticnew therapeuticsnew therapynext generation therapeuticsnovelnovel approachesnovel drug treatmentsnovel drugsnovel pharmaco-therapeuticnovel pharmacological therapeuticnovel strategiesnovel strategynovel therapeuticsnovel therapypancreatic malignancypathwaypre-clinicalpreclinicalprogrammed cell death 1programmed cell death protein 1programmed cell death protein 1 therapyprogrammed death 1rare cancerrare malignancyrare tumorreceptorrecruitrefractory cancerresistantresistant cancerresponsesle2systemic lupus erythematosus susceptibility 2thymus derived lymphocytetranscriptomicstranslationtumortumor cell metastasistumor growthtumor immune microenvironmenttumor-immune system interactionsαPD-1αPD1
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Full Description

PROJECT SUMMARY – RP3
Immunotherapies can induce durable responses in advanced cancer patients and are the most exciting new

cancer treatments. However, as current immunotherapies directly reinvigorate preexisting anti-tumor T cells,

they are ineffective in T cell-poor (“cold”) cancers, such as pancreatic ductal adenocarcinoma (PDAC). New

immunotherapies that stimulate de novo immunity are therefore needed for PDAC. To identify such strategies,

we discovered that compared to the majority of PDACs that are T-cell poor and “cold,” T-cell rich “hot” tumors

from rare long-term PDAC survivors are infiltrated by higher densities of group 2 innate lymphoid cells (ILC2s),

a recently discovered lymphocyte with tissue-specific anti-tumor function. Higher densities of tumor ILC2s and

higher expression of the ILC2-activating cytokine interleukin-33 (IL33) correlated with higher CD8+ T cell density,

greater T cell cytolytic activity, and 2-fold longer survival in human PDAC. Using PDAC mouse models, we found

that systemic delivery of recombinant IL33 (rIL33) activated tumor ILC2s to produce the chemokine Ccl5, recruit

intratumoral dendritic cells, amplify intratumoral CD8+ T cells 10-fold, and restrict tumor growth. In addition, like

activated T cells, rIL33-activated ILC2s upregulated the inhibitory immune checkpoint PD-1, and combining rIL33

with PD-1 antibody blockade maximally restricted tumor growth and prolonged survival in PDAC mouse models.

Thus, our laboratory studies identify rIL33 as a novel therapeutic cytokine that stimulates de novo anti-tumor

immunity in PDAC both as a mono- and as a combination therapy with PD-1 blockade. However, as there are

currently no drugs that target the IL33-ILC2 axis, and as human PDAC tumors are immunologically

heterogeneous, the appropriate drug delivery strategy and target patient cohorts to rationally translate these

findings to PDAC patients are unknown. We will address these key knowledge gaps through three specific aims

to determine if rIL33 has anti-tumor efficacy (1) in immunologically heterogeneous PDAC molecular subtypes,

(2) in immunologically heterogeneous PDAC primary tumors and metastases, and (3) as half-life extended clinic-

compatible drugs. We will complete these aims and thereby establish the principles to translate rIL33 to patients

using mechanistic studies in orthotopic PDAC mice deficient in components of the IL33-ILC2 axis, patient-derived

organoid models of the tumor immune microenvironment, cellular and transcriptional analyses of matched multi-

site human PDAC primary tumors and metastases, and IND-enabling toxicology studies. Through these studies,

we will identify the target patient cohorts, the mechanisms of action, and the optimal drug to inform the design of

a first-in-human rIL33 clinical trial in PDAC patients by the end of the study period. This work will therefore

critically expand our knowledge of preclinical and translational biology of the novel IL33-ILC2 therapeutic axis,

accelerate its translation to patients, and address the unmet need for effective PDAC immunotherapy.

Grant Number: 5P50CA257881-04
NIH Institute/Center: NIH

Principal Investigator: Vinod Balachandran

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