grant

Targeting the liver for immunotherapy in pancreatic cancer

Organization UNIVERSITY OF PENNSYLVANIALocation PHILADELPHIA, UNITED STATESPosted 1 Jul 2016Deadline 30 Nov 2026
NIHUS FederalResearch GrantFY2026Acute-Phase ProteinsAcute-Phase ReactantsAddressAmyloidAmyloid SubstanceAntigensApplications GrantsAutoregulationB cell differentiation factorB cell stimulating factor 2B-Cell Differentiation FactorB-Cell Differentiation Factor-2B-Cell Stimulatory Factor-2BCDFBSF-2BSF2BiologyBlood SerumCD8CD8BCD8B1CD8B1 geneCancer InductionCancersCell FunctionCell PhysiologyCell ProcessCellular FunctionCellular PhysiologyCellular ProcessCellular biologyClinicalDataDendritic CellsDepositDepositionDevelopmentEnvironmentExposure toExtracellular Matrix ProteinsFundingGI cancersGI malignanciesGI tract cancersGastrointestinal CancerGastrointestinal Tract CancerGeneticGrantGrant ProposalsHPGFHepatic CellsHepatic Neoplasm SecondaryHepatic Parenchymal CellHepatic Stellate CellHepatic metastasisHepatocyteHepatocyte-Stimulating FactorHomeostasisHybridoma Growth FactorIFN-beta 2IFNB2IL-6IL6 ProteinImmune EvasionImmune SurveillanceImmune mediated therapyImmune reactionImmunobiologyImmunochemical ImmunologicImmunologicImmunologic SurveillanceImmunologicalImmunologicallyImmunologically Directed TherapyImmunologicsImmunomodulationImmunophysiologyImmunosuppressionImmunosuppression EffectImmunosuppressive EffectImmunosurveillanceImmunotherapyImpairmentInfiltrationInterleukin-6Ito CellKPC genetically-engineered mouseKPC modelKPC mouseKPC murineKRAS(G12D)KRASG12DKnowledgeKupffer CellsLSL-KrasG12D/+;LSL-Trp53R172H/+;Pdx-1-CreLSL-KrasG12D/+;LSL-p53R172H/+;Pdx-1-CreLYT3LiverLiver CellsLiver secondariesLiver secondary cancerMGI-2MacrophageMalignant CellMalignant Gastrointestinal NeoplasmMalignant MelanomaMalignant NeoplasmsMalignant Pancreatic NeoplasmMalignant TumorMalignant Tumor of the LungMalignant neoplasm of gastrointestinal tractMalignant neoplasm of lungMalignant neoplasm of pancreasMelanomaMetastatic Neoplasm to the LiverMetastatic Tumor to the LiverMetastatic malignant neoplasm to liverMiceMice MammalsModelingMolecularMurineMusMyeloid CellsMyeloid Differentiation-Inducing ProteinNeutrophil InfiltrationNeutrophil RecruitmentNeutrophilic InfiltrateNon-MalignantOrganOutcomePDA modelPDAC ModelPancreasPancreas CancerPancreas Ductal AdenocarcinomaPancreaticPancreatic CancerPancreatic Ductal AdenocarcinomaPatientsPhysiological HomeostasisPlasmacytoma Growth FactorPlayPortal VeinPortal vein structurePrimary NeoplasmPrimary TumorProcessProductivityProteinsPulmonary CancerPulmonary malignant NeoplasmReproducibilityResistanceRetrospective StudiesRoleSTAT3STAT3 geneSerumShapesSignal PathwaySoilStellate Sinusoidal MacrophageStromal CellsSubcellular ProcessT cell based immune therapyT cell based therapeuticsT cell based therapyT cell directed therapiesT cell immune therapyT cell immunotherapyT cell infiltrationT cell targeted therapeuticsT cell therapyT cell treatmentT cell-based immunotherapyT cell-based treatmentT cellular immunotherapyT cellular therapyT lymphocyte based immunotherapyT lymphocyte based therapyT lymphocyte therapeuticT lymphocyte treatmentT-CellsT-LymphocyteT-cell therapeuticsT-cell transfer therapyTeff cellTherapeuticTumor EscapeTumor Immune EscapeVariantVariationVeiled Cellsadoptive T cell transferadoptive T lymphocyte transferadoptive T-cell therapyanti-cancer immunotherapyanticancer immunotherapycancer cellcancer evasioncancer immune escapecancer immune evasioncancer immunotherapycancer microenvironmentcarcinogenesiscell biologycheck point blockadecheckpoint blockadeclinical relevanceclinically relevantdesigndesigningdevelopmentaleffector T cellgastrointestinal malignancieshepatic body systemhepatic inflammationhepatic organ systemhuman cancer mouse modelhuman diseasehuman tissueimmune check point blockadeimmune checkpoint blockadeimmune evasiveimmune microenvironmentimmune modulationimmune regulationimmune suppressionimmune suppressive activityimmune suppressive functionimmune therapeutic approachimmune therapeutic interventionsimmune therapeutic regimensimmune therapeutic strategyimmune therapyimmune-based cancer therapiesimmune-based therapiesimmune-based treatmentsimmuno therapyimmunogenimmunogenicityimmunologic reactivity controlimmunomodulatoryimmunoreactionimmunoregulationimmunoregulatoryimmunosuppressive activityimmunosuppressive functionimmunosuppressive microenvironmentimmunosuppressive responseimmunosuppressive tumor microenvironmentimmunotherapy for cancerimmunotherapy of cancerimproved outcomeinflamed liverinterferon beta 2liver inflammationliver macrophageliver metastaseslung cancermalignancymalignant liver neoplasm, specified as secondarymetastasis in the livermetastasis to the livermetastasize to the livermetastatic cancer to livermetastatic livermetastatic liver neoplasmmouse modelmurine modelneoplasm/cancernew approachesnonmalignantnovelnovel approachesnovel strategiesnovel strategypancreatic cancer patientspancreatic ductal adenocarcinoma modelpancreatic malignancypatients with pancreatic cancerperipheral toleranceresistantretrospective research studyretrospective surveysecondary liver malignancysecondary malignant liver neoplasmsocial rolesystemic inflammationsystemic inflammatory responsetherapeutic T-cell platformthymus derived lymphocytetooltraffickingtumortumor evasiontumor immune evasiontumor immune microenvironmenttumor microenvironmenttumor-immune system interactions
Sign up free to applyApply link · pipeline · email alerts
— or —

Get email alerts for similar roles

Weekly digest · no password needed · unsubscribe any time

Full Description

Project Summary
Immunotherapy has shown the capacity to improve outcomes for some patients across a wide-range of

malignancies. However, many patients still do not achieve clinical benefit and in particular, patients with liver

metastases demonstrate poor responsiveness to immunotherapy. Emerging evidence suggest a role for the liver

in determining outcomes with cancer immunotherapy. To this end, the liver is a critical determinant of immune

regulation and plays a central role in T cell peripheral tolerance. Yet, how the liver may regulate immunotherapy

efficacy is unclear. This represents a significant gap in our knowledge that has strong translational implications.

In gastrointestinal malignancies, the liver may be continuously exposed to malignant cells as well as soluble

factors and antigens released by primary tumors. We hypothesize that this connection between the gut and liver

may have significant implications on T cell immunosurveillance in cancer. In support of this hypothesis, we have

found that primary tumors release soluble factors that activate hepatocytes in the liver. This process can begin

during the earliest stages of cancer development. Activated hepatocytes respond by releasing acute phase

reactants which act to orchestrate an immunological niche environment in the liver that is underpinned by the

recruitment of neutrophils and myeloid cells and the deposition of extracellular matrix proteins. In the setting of

hepatocyte activation, primary tumor development, occurring in the pancreas, demonstrates poor T cell

infiltration. However, genetic blockade of hepatocyte activation converts a T cell “cold” tumor into a “hot” tumor.

This finding underscores the importance of the liver in regulating T cell immunosurveillance in cancer. Our priority

is to decipher mechanisms by which the liver regulates T cell immunosurveillance in cancer and to understand

its implications in regulating the efficacy of cancer immunotherapy. Therefore, in Aim 1, we will define

mechanisms by which hepatocytes direct tumor immune evasion with a focus on signaling pathways regulated

by hepatocytes and their impact on T cell priming and trafficking. In Aim 2, we will investigate the impact of

hepatocyte activation on the immunobiology of PDAC and the efficacy of cancer immunotherapy. Together, these

complementary aims will inform the development of novel treatment paradigms designed to curtail the

immunosuppressive effects of liver inflammation as a strategy to broaden the efficacy of cancer immunotherapy.

Grant Number: 5R01CA197916-10
NIH Institute/Center: NIH

Principal Investigator: Gregory Beatty

Sign up free to get the apply link, save to pipeline, and set email alerts.

Sign up free →

Agency Plan

7-day free trial

Unlock procurement & grants

Upgrade to access active tenders from World Bank, UNDP, ADB and more — with email alerts and pipeline tracking.

$29.99 / month

  • 🔔Email alerts for new matching tenders
  • 🗂️Track tenders in your pipeline
  • 💰Filter by contract value
  • 📥Export results to CSV
  • 📌Save searches with one click
Start 7-day free trial →