grant

Beyond Lysis: Deciphering the Role of Perforin-Mediated Ferroptosis in Anti-Tumor Immunity

Organization UNIVERSITY OF MICHIGAN AT ANN ARBORLocation ANN ARBOR, UNITED STATESPosted 15 Jul 2025Deadline 30 Jun 2027
NIHUS FederalResearch GrantFY2025ApoptosisApoptosis PathwayAttentionBindingBioinformaticsC-K-RASCAR T cellsCAR modified T cellsCAR-TCAR-TsCancer PatientCancersCell BodyCell DeathCell-Mediated Lympholytic CellsCellsCessation of lifeChemicalsClinicalCytolysisCytolytic T-CellCytotoxic T CellCytotoxic T-LymphocytesDataDeathDietary AssessmentFDA approvedFe chelationFe elementFlow CytofluorometriesFlow CytofluorometryFlow CytometryFlow MicrofluorimetryFlow MicrofluorometryFoundationsGeneticGlycolysisGlycolysis InductionGlycolysis InhibitionGoalsGranzymeHumanICP-MSImmuneImmune mediated therapyImmune responseImmunesImmunologically Directed TherapyImmunologyImmunotherapyInduction of ApoptosisInductively Coupled Plasma Mass SpectrometryIntermediary MetabolismInvestigationInvestigatorsIronIron ChelatesIron Chelating AgentsIron ChelationIron chelatorK-RAS2AK-RAS2BK-RasK-Ras 2AK-Ras-2 OncogeneKRASKRAS2KRAS2 geneKi-RASLaboratoriesLipid PeroxidationLysisMalignant CellMalignant MelanomaMalignant NeoplasmsMalignant TumorManuscriptsMass Photometry/Spectrum AnalysisMass SpectrometryMass SpectroscopyMass SpectrumMass Spectrum AnalysesMass Spectrum AnalysisMediatingMelanomaMembraneMentorsMentorshipMetabolicMetabolic ProcessesMetabolismMetastasisMetastasizeMetastatic LesionMetastatic MassMetastatic NeoplasmMetastatic TumorMiceMice MammalsMichiganMicronutrientsMitochondriaModelingModern ManMolecularMolecular InteractionMurineMusMutateNeoplasm MetastasisNon-lyticNonlyticOncogene K-RasOsmosisOxidative PhosphorylationOxidative Phosphorylation PathwayPathologyPathway interactionsPatientsPositionPositioning AttributePostdocPostdoctoral FellowPreparationPrimary NeoplasmPrimary TumorProgrammed Cell DeathProteinsRASK2ResearchResearch AssociateResearch PersonnelResearchersResistanceRoleRouteSecondary NeoplasmSecondary TumorSiderophilinSourceT cells for CART-CellsT-LymphocyteTechnologyTeff cellTestingTrainingTransferrinTumor CellTumor ImmunityTumor-infiltrating immune cellsWorkanti-cancer immunotherapyanti-tumor immunityanticancer immunotherapyantitumor immunitycancer cellcancer cell metabolismcancer immunitycancer immunologycancer immunotherapycancer metabolismcancer metastasiscell killingcell typecheck point blockadecheckpoint blockadechimeric antigen T cell receptorchimeric antigen receptor (CAR) T cellschimeric antigen receptor Tchimeric antigen receptor T cellschimeric antigen receptor fusion protein T-cellschimeric antigen receptor modified T cellsdietary approacheffector T cellextracellularflow cytophotometryhost responseimmune cell infiltration of tumorsimmune cells infiltrating the tumorimmune cells that infiltrate the tumorimmune check point blockadeimmune checkpoint blockadeimmune system responseimmune therapeutic approachimmune therapeutic interventionsimmune therapeutic regimensimmune therapeutic strategyimmune therapyimmune-based cancer therapiesimmune-based therapiesimmune-based treatmentsimmuno therapyimmunogenicimmunogenic apoptosisimmunogenic cell deathimmunoresponseimmunotherapy for cancerimmunotherapy of cancerimprovedin vivoin vivo Modelinfiltration of tumors by immune cellsinnovateinnovationinnovativeintratumoral immune cellintratumoral immune infiltratekiller T celllymphocyte pore-forming proteinmalignancymembrane structuremetastasis preventionmitochondrialmouse modelmurine modelnecrocytosisneoplasm immunologyneoplasm/cancerneoplastic cellnovelpathwayperforinpharmacologicpost-docpost-doctoralpost-doctoral traineepreparationspreventpreventingresearch associatesresistantresponsesocial rolethymus derived lymphocytetranslation strategytranslational approachtranslational strategytranslational therapeuticstranslational therapytumortumor cell metabolismtumor cell metastasistumor immune celltumor immune infiltratetumor immunologytumor infiltration of immune cellstumor metabolismuptakev-Ki-RAS2 Kirsten Rat Sarcoma 2 Viral Oncogene Homolog
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Full Description

Perforin, a crucial T cell protein, mediates tumor cell death by a poorly understood mechanism. This
proposal is based on preliminary data suggesting that perforin can induces ferroptosis in tumor cells by

increasing intracellular iron. Ferroptosis is a programmed cell death pathway dependent on iron and lipid

peroxidation. The long-term goal is to develop translational therapies to enhance perforin-induced ferroptosis.

The overall objective is to determine the mechanism and metabolic regulators of perforin-induced ferroptosis.

The central hypothesis is that perforin increases intracellular iron, triggering ferroptosis and inhibiting

metastasis and immunotherapy resistance. The central hypothesis will be tested by three specific aims: 1)

Define the molecular mechanisms of perforin-mediated ferroptosis; 2) Characterize the contribution of perforin-

induced ferroptosis to anti-tumor immunity; and 3) Determine the role of tumor metabolism in perforin-induced

ferroptosis (R00). Aim 1 will use genetic, pharmacologic, and dietary approaches to mechanistically define

perforin-induced ferroptosis. Aim 2 will study the role of perforin-induced ferroptosis in metastatic, primary, and

immunotherapy in vivo models. Aim 2 will also bioinformatically explore how perforin expression contributes to

patient immunotherapy response. Aim 3 will metabolically manipulate tumor cells to optimize perforin killing and

leverage translational chimeric antigen receptor-T cell (CAR-T) technology.

Together, this proposed research will elucidate the ferroptosis-inducing function of perforin and its

contribution to immunotherapy response and metastasis control in different metabolic contexts. The research

proposed in this application is innovative because it explores a previously unknown mechanism of perforin

killing molecularly, translationally, and metabolically. This innovative perspective on CTL-mediated tumor killing

has the potential to explain the role of in vivo immune-induced ferroptosis in immunotherapy response and lay

a foundation to explore novel cancer immunotherapies based on perforin-induced ferroptosis. This work will be

accomplished under the mentorship of Dr. Weiping Zou (tumor immunology) and Dr. Arul Chinnaiyan

(translational pathology) alongside a team of Michigan-based experts in immunology, bioinformatics, and

metabolism. A comprehensive training plan will provide technical training in mass spectrometry, flow

cytometry, bioinformatics, and CAR-T approaches. Attention will be given to facilitating training in mentorship,

project management, manuscript preparation and grantsmanship. This comprehensive mentorship plan will

facilitate a smooth transition to a position as an independent investigator focused on microenvironmental

determinants of immune-mediated cell death.

Grant Number: 1K99CA299410-01
NIH Institute/Center: NIH

Principal Investigator: Hannah Bell

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