Novel nano-mechanical platform to investigate therapeutic sub-cellular mechanical
Novel nano-mechanical platform to investigate therapeutic sub-cellular mechanical
批准号:
8518099
负责人:
Rupak M Rajachar
金额:
$6.99万
依托单位国家:
美国
项目类别:
财政年份:
2012
资助国家:
美国
项目状态:
已结题
起止时间:
2012-08-01 至 2014-07-31
关键词:
AddressAdhesionsAffectAreaBehaviorBiocompatible MaterialsBiologicalCell AdhesionCellsChemicalsCoupledDeteriorationDevelopmentDevicesEnvironmentExploratory/Developmental GrantFibroblastsFilmFrequenciesGene ExpressionGoalsImmune responseImplantIn SituIn VitroInvestigationLeadMechanicsModelingMonitorMorphologyMyofibroblastPlayPropertyReal-Time SystemsResearch Project GrantsRoleSiteStimulusSurfaceSurface PropertiesSystemSystems DevelopmentTechnologyTestingTherapeuticTherapeutic EffectTimeTissuesUltrasonographyUnited States National Institutes of Healthbasecell behaviorcell typeclinical applicationimplantable deviceimplantationimprovedin vivointerestmacrophagenanoneutrophilnovelnovel strategiesresearch studyresponsesealsubmicronsurface coatingtoolvibration
中文摘要
描述(由申请人提供):本项目寻求支持开发一种新型机械反应材料系统,以研究局部细胞水平的机械扰动与细胞对化学物理生物材料表面特性的反应之间的关系。该涂层基于磁弹性材料,可以远程设置为以预定的振幅和轮廓振动。我们假设局部亚细胞机械刺激可用于优化基质-细胞相互作用,以提高长期稳定性
英文摘要
DESCRIPTION (provided by applicant): This project seeks support for the development of a novel mechanically responsive material system to study the relationship between local cell-level mechanical perturbation and cell response to chemical-physical biomaterial surface properties. The coating is based on a magnetoelastic material that can be remotely set to vibrate at a predetermined amplitude and profile. We hypothesize that local sub-cellular mechanical stimulus can be used to optimize substrate-cellular interactions to improve the long-term stability
at the tissue-implant interface. Ultimately we hope to use these coatings as a real-time system for modulation and monitoring the surface of implantable biomaterials. Preliminary experiments have indicated that submicron localized vibrations, such as those generated by the proposed vibration coating, could potentially be coupled with tailored biomaterial surface properties to selectively control cellular adhesion and gene expression to promote and maintain proper integration at the implant-tissue interface. The specific goal of this proposal is to characterize the relationship between small local vibrations, substrate material surface character, and concomitant cellular response to applied vibrations.
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Adhesive PEG-fibrinogen nitric oxide releasing hydrogels for use as a wound heali
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批准号:8772506
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项目类别:
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资助金额:$32.63万
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财政年份:2015
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负责人:Rupak M Rajachar
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依托单位:
Novel nano-mechanical platform to investigate therapeutic sub-cellular mechanical
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批准号:8386103
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项目类别:
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资助金额:$7.47万
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财政年份:2012
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负责人:Rupak M Rajachar
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依托单位:
海外基金