A novel T cell subset with increased potency and persistence for the treatment of solid tumors
A novel T cell subset with increased potency and persistence for the treatment of solid tumors
批准号:
10254566
负责人:
Brian Newsom
金额:
$36.99万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2021
资助国家:
美国
项目状态:
已结题
起止时间:
2021-05-01 至 2023-04-30
关键词:
AnimalsApoptoticAwardB lymphoid malignancyBenchmarkingBiological AssayBiological Response Modifier TherapyCAR T cell therapyCD4 Positive T LymphocytesCause of DeathCell SeparationCell TherapyCellsClinicClinicalClinical ResearchClinical TrialsCollectionCryopreservationDataDevelopmentDoseEffectivenessEvaluationFDA approvedFailureFreezingGenerationsGranzymeHarvestHeadHomingHumanImmunotherapyIn VitroIn complete remissionLegal patentMalignant NeoplasmsMalignant mesotheliomaMalignant neoplasm of pancreasMediatingMedicineMesotheliomaMethodsModelingModificationMusPancreasPatientsPhasePopulationPositioning AttributeProblem SolvingProcessProductionQuality of lifeRegulatory T-LymphocyteResearchRiskRouteRunningSolid NeoplasmSorting - Cell MovementSurvival RateT-LymphocyteT-Lymphocyte SubsetsTechnologyTherapeuticTimeToxic effectTranslatingTranslationsTumor BurdenTumor-infiltrating immune cellsWorkacademic programbasechimeric antigen receptorchimeric antigen receptor T cellsclinical efficacycostcytokinecytotoxiccytotoxicityexperiencefirst-in-humanimprovedin vitro Assayin vivoinnovationleukemia/lymphomamagnetic beadsmesothelinmigrationmouse modelneoplastic cellnovelnovel therapeuticsphase 1 studyphase 2 studypre-clinicalpreclinical studyprocess optimizationresponseself-renewalside effectsmall moleculestandard of caresuccesstargeted treatmenttherapy developmenttumorvector
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Project Summary
Cancer is the second leading cause of death in the US and despite efforts to develop small
molecule and biological therapies, several solid tumors still have 5-year survival rates of 10% or
less. CAR-T therapies have recently been approved for use in B-cell malignancies and have
provided a starting point for cell therapies to gain a foothold as standard of care. However,
translation of that success into solid tumors has been slow, almost non-existent. The major
underlying cause for this appears to be lack of persistence of the therapeutic cell whereby it
succumbs to the toxic milieu produced by the tumor. Ares Immunotherapy has isolated a unique
T cell subset that can overcome this issue by means of anti-apoptotic mechanisms and at a limited
ability to self-renew. These, in combination with an elevated homing and migration capacity, the
ability to secrete both Th1 and Th17 cytokines, and direct cytotoxicity via Granzyme B and
CD107A create a cell that has the potential to eradicate even large entrenched tumor masses. In
preclinical studies the Ares cells, when generated as a mesothelin specific CAR-T, have
been able to ablate tumors in a mesothelioma mouse model and greatly reduce tumor
burden in a pancreatic model.
Our proposed research plan will A) improve manufacturing robustness; B) determine the
optimal cell to be used based on a combination of clinical efficacy and a robust, scalable process;
and C) reduce the time and cost of manufacture. We will characterize this through a host of in
vitro assays and verify with an animal study. Following these studies, we will proceed to final
optimizations and conduct a toxicity study in route to an IND for a first-in-man study.
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