Human Disease-Specific Induced Pluripotent Stem Cells For Preclinical Drug Testing and Drug Discovery
Human Disease-Specific Induced Pluripotent Stem Cells For Preclinical Drug Testing and Drug Discovery
批准号:
10384967
负责人:
Lynne A Bui
金额:
$172.84万
依托单位国家:
美国
项目类别:
财政年份:
2022
资助国家:
美国
项目状态:
已结题
起止时间:
2022-03-04 至 2023-02-28
关键词:
AddressAfrican American populationAreaArrhythmiaAsian populationBiological AssayBiological SciencesCalciumCalcium ChannelCardiacCardiotoxicityCardiovascular AgentsCardiovascular DiseasesCardiovascular systemCaucasiansCell LineCell NucleusCell SurvivalCellsChemicalsCisaprideClarithromycinClinicClinical TrialsCollaborationsCollectionCommunitiesDataDevelopmentDexrazoxaneDilated CardiomyopathyDiseaseDoseDoxorubicinDrug ExposureDrug IndustryDrug ScreeningDrug toxicityDyesEthnic OriginEthnic groupExposure toFailureFamilial Hypertrophic CardiomyopathyFemaleFiberGenderGeneticGenetic Predisposition to DiseaseHeart AbnormalitiesHeart DiseasesHispanic PopulationsHourHypertrophic CardiomyopathyHypertrophyIndividualIndustrializationInheritedInstitutesLabelLaboratoriesLibrariesLong QT SyndromeMedicalMetabolicMetoprololMexiletineMorbidity - disease rateMuscle CellsNifedipinePathologicPatientsPersonsPharmaceutical PreparationsPharmacologic SubstancePharmacologyPhenotypePopulationPopulation HeterogeneityPredispositionProcessProtocols documentationResearch Project GrantsRightsRiskRisk FactorsSafetyServicesSmall Business Innovation Research GrantSotalolStressStructural defectTamoxifenTechnologyTestingTimeToxicity TestsTranslatingUniversitiesVerapamilWithdrawalWomanWorkbasecardioprotectionchronotropiccohortcostdofetilidedrug candidatedrug developmentdrug discoverydrug marketdrug testingelectric impedanceethnic diversitygender diversityhigh riskhuman diseasein vitro Modelinduced pluripotent stem cellinnovationmalemembermenmortalitynovel therapeuticspatient populationpre-clinicalpredictive modelingprotective effectracial diversityranolazineresazurinresponsescreeningsextool
中文摘要
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英文摘要
ABSTRACT
Drug-induced adverse cardiac effects are a leading cause of drug attrition during pharmaceutical
development. In recent years, the withdrawal of several cardiac and non-cardiac drugs from the market due to
unpredicted cardiotoxicity has imposed a multibillion-dollar burden on the pharmaceutical industry. As a result,
FDA now mandates that all new drugs be tested for cardiotoxicity before entering clinical trials. However, there
is still a lack of appropriate safety screening platforms that can accurately predict the proarrhythmic liability of
new chemical entities; in particular there are no validated commercial platforms that address the diverse
patient population with regard to sex, ethnicity or genetic susceptibility to drug-induced cardiotoxicity.
The company is developing a select subset of fifty cell lines from healthy subjects as well as from patients
with common hereditary cardiac disorders such as familial hypertrophic cardiomyopathy (HCM), dilated
cardiomyopathy (DCM), and long QT syndrome (LQTS), to predict individual and group differences in drug
susceptibility to cardiotoxicity. As female sex is an independent risk factor for drug-induced cardiac arrhythmias
and women comprise more than 50% of the population, a major focus of this research project will be to quantify
the extent gender factors in drug-induced proarrhythmia. Each cell line will be validated functional and
pharmacologically. This panel of cell lines will be unique in terms of its breadth and detailed (anonymized)
patient and genetic data for each line. While some competing companies cell one or two lines, they do not
perform services and do not include the detailed patient and genetic data available to Khloris.
Khloris Biosciences is a start-up company based in the Bay Area. Khloris was co-founded by Dr. Joseph
Wu (Stanford University) and has worldwide exclusive rights to the world’s largest collection of patient-derived
iPSC-CMs developed in his laboratory as well as the anonymized genetic and pathological characterization of
each line.
The purpose of the current SBIR application is to greatly expand the current offering of Khloris to include a
large and diverse collection of validated cell lines comprising male AND female derived disease-specific iPSC-
CMs from patients with common hereditary cardiac disorders and genetic backgrounds. We aim to develop and
validate this tool as a surrogate in vitro model for prediction of cardiac drug toxicity in patient groups at high risk
for drug-induced arrhythmia. Khloris believes this platform will revolutionize drug discovery and development by
reassigning the thresholds for cardiotoxicity, thereby reducing the possibility of mistakenly eliminating promising
candidates, expediting the advancement of worthy drugs to clinic and discovering new cardiovascular drugs.
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