Cultured human fetal dermal extracellular matrix for scarless wound healing
Cultured human fetal dermal extracellular matrix for scarless wound healing
批准号:
10527429
负责人:
Blanche C IP
金额:
$17.16万
依托单位:
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:
2022-09-01 至 2024-07-31
关键词:
3-DimensionalAdultAffectAgeAnimalsArchitectureAtomic Force MicroscopyBiochemicalBiochemistryBiocompatible MaterialsBioinformaticsBiomechanicsBiomedical EngineeringBiomimeticsBostonCardiacCell Culture TechniquesCellsChondroitin SulfatesCicatrixCollagenDataData SetDepositionDermalDipeptidyl-Peptidase IVElastinEngineeringEnvironmentExhibitsExtracellular MatrixFetal TissuesFibrillar CollagenFibroblastsFibronectinsFundingGlycoproteinsGoalsHealthcare SystemsHistologyHumanImmune responseIn VitroMechanicsMedicineMethodsMicroscopyMolecular BiologyMorbidity - disease rateMusNational Institute of General Medical SciencesNormal tissue morphologyOperative Surgical ProceduresPainPathologicPathway interactionsPatientsPediatric HospitalsPerformancePhenotypePopulationProteinsProteomicsRattusReproducibilityResearchResourcesSkinSkin wound healingSourceSplint DeviceSurfaceTherapeutic EffectTimeTissue EngineeringTissuesTranslatingTreatment EfficacyWorkageddata integrationexperiencefetalhealinghuman fetus tissuehuman tissueimprovedin vivoinnovationinsightmouse modelnovel therapeuticsphenomephysical propertypostnatalprenatalpreservationpsychological outcomesregenerativeregenerative therapyresearch and developmentrestorationskin woundtissue regenerationtissue repairtranscriptometranscriptome sequencingtranscriptomicstwo-dimensionalwound healing
中文摘要
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英文摘要
Dysfunctional skin wound healing, including underhealing, overhealing and scarring
causes significant long-term morbidity including pain, functional restriction, and severe
psychological outcomes, all of which translates to a tremendous burden on the US
healthcare system. Fetal scarless wound repair is capable of healing with restoration of
normal skin architecture and preservation of both tissue strength and function. Extracellular
matrices (ECM) deposited by fetal dermal fibroblasts and extracted from fetal tissues have
shown to be superior in supporting functional wound healing than ECM from aged tissues,
but the availability of healthy fetal human tissues is extremely limited.
Here, we propose a solution of large 3D human tissues grown in the lab with human cells that
can be an unlimited and reliable source for the extraction of human ECM. The objectives of this
project are to 1) biofabricate microtissues with commercially available fetal or adult human
dermal fibroblasts to generate cultured ECM, 2) integrate with bioinformatics of the phenome
(proteomics, biochemistry, mechanics, etc) of the secreted ECM with microtissue
transcriptome to elucidate the key ECM-associated pathways involved in controlling the fetal
ECM niche, and 3) evaluate the in vivo therapeutic efficacy of adult and fetal cultured ECMs
against scarring of skin wounds.
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