A 2D Intestinal Crypt Platform for Compound Screens
A 2D Intestinal Crypt Platform for Compound Screens
批准号:
10322319
负责人:
ELIZABETH BOAZAK
金额:
$25.65万
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:
2021-07-01 至 2022-04-30
关键词:
AgeAnimal ModelAnimal TestingAnimalsBenchmarkingBiologicalBiological AssayBiological TestingBiomedical EngineeringBiotechnologyCell Culture TechniquesCell Differentiation processCellsCharacteristicsChildClinical ResearchClinical TrialsCollaborationsDevelopmentDevicesDiabetes MellitusEnterocytesEnteroendocrine CellEthicsEvaluationGenderGenetic VariationGoalsGoblet CellsHealthHeartHumanHuman BiologyImage CytometryIn VitroIndividualInflammationIntestinesLiverLungMalignant NeoplasmsMedicalMetabolismMethodsMicrobeMinorityMissionModelingModernizationNatureOralOrganOutcomePatternPerformancePharmaceutical PreparationsPharmacologic SubstancePhasePhysiologyPlayPopulationPreclinical TestingProliferatingPublishingRadiologic HealthReproducibilityResearch PersonnelRiskRoleScientistSmall Business Innovation Research GrantSpeedSystemTechnologyTestingTissue ModelTissuesToxic Environmental SubstancesToxic effectToxicologyUnited States National Institutes of HealthUniversitiesWashingtonWomanWorkadult stem cellbasebiobankbody systemcell typecognitive functioncommercializationcostdrug developmentefficacy studyepithelial stem cellgastrointestinalgastrointestinal epitheliumgut microbiomehigh throughput screeninghormone regulationhuman diseasehuman tissueimprovedin vitro testinginsightinterestintestinal cryptintestinal epitheliummicrobialmicrobiomemicrophysiology systemmonolayernovelnovel therapeuticsorgan on a chippatient populationprebioticsprecision medicinepredictive testsafety studyscreeningstemstem cell differentiationstem cell nichestem cell proliferationstem cellstwo-dimensional
中文摘要
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英文摘要
Project Summary
Intestinal epithelium is the fastest dividing tissue in the body, and the health of the cells can
be easily impacted by environmental toxins and drugs. This organ system is therefore a prime
target for biological testing of medicinal compounds, prebiotics and microbial products. An in
vitro gut model that can precisely predict these impacts will reduce the burden of testing by
diminishing reliance on animal models, minimizing the number of overlapping assessments and
helping to eliminate unnecessary testing. To meet this need, Altis Biosystems Inc., an early stage
biotechnology company, will collaborate with scientists at University of Washington to develop
a novel 2-dimensional (2D) crypt platform that emulates the gut epithelium. Human primary
intestinal epithelial stem cells will be patterned on the platform to mimic a gut epithelium
possessing a stem-cell niche, and migratory proliferating and differentiating cells. This planar 2D
platform will enable high-content/high-throughput assays in a rugged and reproducible manner.
In this Phase I SBIR, this collaboration will generate 2D crypts with intervening regions of a
differentiated cell monolayer, optimize the platform with a focus on quantitative strategies to
benchmark performance, and perform small scale screens to demonstrate feasibility to advance
to a Phase 2 project. The goal is to develop and benchmark a quantitative in vitro method that will
enable investigators to efficiently evaluate the impact of compounds on intestinal stem cell
proliferation and differentiation.
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