CGMP Compliant Closed Cell Culture System for culturing iPSC derived lung epithelial cells to COVID19 Therapy
CGMP Compliant Closed Cell Culture System for culturing iPSC derived lung epithelial cells to COVID19 Therapy
批准号:
10343488
负责人:
John Collins
金额:
$15.55万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2020
资助国家:
美国
项目状态:
已结题
起止时间:
2020-09-01 至 2022-08-31
关键词:
AddressAffectAirAlgorithmsAllelesAlveolarAlveolar CellAutomationAwardBiologicalBiomanufacturingBiotechnologyBronchopulmonary DysplasiaCOVID-19COVID-19 mortalityCOVID-19 treatmentCXCR4 geneCarbon DioxideCell Culture SystemCell Culture TechniquesCell MaintenanceCell TherapyCellsCessation of lifeClinical ResearchClinical TrialsCombined Modality TherapyComplexCryopreservationCyclic GMPDerivation procedureDevelopmentDiseaseEndodermEndothelial CellsEnvironmentEpithelialEpithelial CellsEquilibriumExhibitsFluorochromeFunctional disorderGenerationsGrowthHealthcare IndustryHumanImmune systemInfectionInhalationKineticsLeadLegal patentLiquid substanceLogisticsLungMesenchymal Stem CellsMethodsMicrobeModern 1601-historyMonitorNatural Killer CellsNatural regenerationParentsPatientsPhasePhysiologic pulsePopulationProcessProliferatingProtocols documentationPulmonary FibrosisPumpReagentReporterReportingReproducibilityResearchRiskSchemeSourceStressStructureStructure of parenchyma of lungSystemT-LymphocyteTechnologyTemperatureTherapeuticTimeTissue SampleTissuesTransition TemperatureTransportationUp-RegulationValidationVial deviceVirusactivin Aalveolar epitheliumanimal safetybasecombatcostdifferentiation protocolepithelial stem cellexosomeexpectationflasksgene therapygenome integrityimprovedinduced pluripotent stem celllung repairmanufacturing facilitymanufacturing scale-upmeetingsmeternovelnovel coronavirusoperationpandemic diseasepoint of carepressurepressure sensorpreventprogenitorregeneration potentialrepairedresponsesafety studyscale upsensorstem cellsstressorsuccesstranscriptomics
中文摘要
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英文摘要
CGMP Compliant Closed Cell Culture System for Manufacturing iPSC Derived Cells for COVID-19
Clinical Trials
Abstract
The novel Coronavirus represents one of the largest pandemics in modern history, reaching around 100
million cases and two million deaths reported worldwide. Alveolar cells, endothelial cells, and lung structure
are severely damaged during the infection stage. Insufficient alveolar repair may increase lung vulnerability
to inhaled microbes and substances or lead to lung fibrosis. So globally, the healthcare industry uses several
methods to suppress the threat caused by the virus, including the use of living therapies such as natural
killer cells, T-cells, stem cells combination therapies, and exosomes. Currently, mesenchymal stem cells are
already showing intriguing potential for the treatment of COVID-19 but have not been found to have
detectable potential to regenerate lung epithelium. Though generation of complex alveolar epithelial type 2
cells (AEC2s), the facultative progenitors of lung alveoli from induced pluripotent stem cells (iPSCs) have
been challenging, recently, using iPSCs and directed differentiation, lung epithelial progenitor cells and
AEC2s were generated for potential regenerative gene or cell therapies. The advancement of these iPSC-
based personalized cell therapies, capable of effectively repairing lung epithelium, is currently hindered by
biomanufacturing challenges. Despite approaches that have made the derivation, growth, and differentiation
of iPSCs more efficient, there remains significant variability in reprogramming efficacy, genomic integrity,
and developmental potential of iPSCs derived from patient tissue samples. These variabilities include lot-
dependent or technician-dependent differentiation efficiency, bacterial or fungal contamination risks, CO2 or
O2 concentration level stresses during cell maintenance, high costs or cross-contamination risks with
centralized biomanufacturing facility, and requirement of cGMP criteria or regulatory compliance. The further
advance of iPSC-based personalized COVID-19 therapy is currently limited by the difficulty to generate and
differentiate iPSCs for large populations at an affordable cost. Therefore Biopico Systems Inc will solve such
challenges by developing an automated cGMP Compliant Closed Cell Culture System for manufacturing
iPSC derived cells based clinical trials for regenerating lung epithelium damaged by COVID-19. To
commercialize Biopico's scaled up “CellsMX” system, optimization of closed media exchange system with
modified pumping algorithm and validation of GMP manufacturing protocols will be performed in this
research. Further, even if a large number of patients need iPSC-based personalized cell therapies, the
system can be deployed at the point of care avoiding risks associated with transportation, logistics, tracking,
and recording. Biopico will submit regulatory documents with FDA for the CellsMX system that will be
released to the customers for their pre-IND applications.
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