High efficiency microfluidic device for large scale engineered cell therapy manufacturing
High efficiency microfluidic device for large scale engineered cell therapy manufacturing
批准号:
10693775
负责人:
Ryan Pawell
金额:
$29.59万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2023
资助国家:
美国
项目状态:
已结题
起止时间:
2023-09-06 至 2024-09-05
关键词:
3D PrintAllogenicAutologousAutomobile DrivingBenchmarkingBlood specimenCD3 AntigensCD8-Positive T-LymphocytesCell SeparationCell SurvivalCell TherapyCell physiologyCellsCellular immunotherapyClinicClinicalCollaborationsComplexConsumptionCryopreservationDevelopmentDevice DesignsDevicesDoseElectroporationEngineeringFlow CytometryGene DeliveryGene TransferGenesGenetic EngineeringGoalsHumanImmuneIndustry StandardInfusion proceduresInterventionLegal patentLettersMagnetic Bead TechnologyMethodsMicrofluidic MicrochipsMicrofluidicsMonoclonal Antibody HuM291Natural Killer CellsOpticsOutcomePatientsPerformancePeripheral Blood Mononuclear CellPhasePlant ResinsPolymersPopulationProcessProteinsQualifyingRecoveryRegulatory T-LymphocyteResearchSourceSystemT-LymphocyteT-Lymphocyte SubsetsTechnologyTestingTimeTransfectionVeinsViralWhole Bloodbiomaterial compatibilitychimeric antigen receptor T cellsclinical applicationcommercial applicationcostcost effective treatmentcytokinecytotoxicitydesignearly phase clinical trialengineered T cellsexperiencefabricationgene therapyimprovedindividual patientinstrumentmagnetic beadsmanufacturemanufacturing processmanufacturing technologymicrofluidic technologynovelnovel therapeuticsnucleic acid deliverypreclinical studypressureprototyperesearch and developmentresearch clinical testingscale upsuccess
中文摘要
本项目的目标是证明一种温和的、高产率的微流控装置的可行性
英文摘要
The goal of this project is to demonstrate the feasibility of a gentle and high-yield microfluidic device for the
enrichment and capture of CD3+ T cells, for use in manufacturing autologous and allogenic engineered cell
therapies. Despite impressive clinical results CAR-T and other engineered cell therapies, manufacturing these
products is time consuming and costly. The ideal solution is one that could process whole blood, including target
cell enrichment and genetic engineering, with minimal human intervention. Indee. Inc. previously developed
Hydropore™, a microfluidic technology that has been optimized for the delivery of genes and constructs to
immune cells (e.g., T-cells). Hydropore™ is a reliable and rapid alternative to current transfection approaches
that yields tens to hundreds of millions of high-quality engineered cells negligible impact on cell viability and
function. However, immune cells must be isolated and enriched from whole blood prior to transfection, a
cumbersome, multistep process that introduces variability in the final cell product. Therefore, the Phase I
objective is to develop a microfluidic device that is similarly optimized for T cell isolation and enrichment. Studies
will focus on (1) the design and qualification of prototype device that is compatible with the Hydropore instrument,
(2) device optimization to maximize the viability and yield of isolated cells, and (3) demonstrating the performance
of the optimized T cell capture device in improving the quality and yield of engineered T cells. The success of
this project will demonstrate the feasibility of a high-yield T cell enrichment device that will not only improve the
source material for cellular immunotherapies but also make the manufacturing process more robust and reliable,
and ultimately providing more potent and cost-effective therapies that will benefit more patients.
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Rapid, single-step precision engineering and pre-clinical evaluation of chimeric antigen receptor Regulatory T cells for Type 1 diabetes
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批准号:10477106
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项目类别:
-
资助金额:$30.96万
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财政年份:2022
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负责人:Ryan Pawell
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依托单位:
海外基金