Mechanisms and optimization of endosomal escape for delivery applications
Mechanisms and optimization of endosomal escape for delivery applications
批准号:
10158494
负责人:
Jean-Philippe Pellois
金额:
$28.9万
依托单位国家:
美国
项目类别:
财政年份:
2015
资助国家:
美国
项目状态:
已结题
起止时间:
2015-06-01 至 2023-05-31
关键词:
BiologicalCRISPR/Cas technologyCapsidCationsCell Culture TechniquesCell Membrane PermeabilityCell NucleusCellsCellular MembraneChemicalsComplexCytosolDataDevelopmentEnzymesExtravasationFundingGenesGoalsHumanImmuneImmune systemLearningLipidsLiposomesMacromolecular ComplexesMediatingMembraneMembrane BiologyMethodsModelingMolecularMolecular ProbesNatureNucleic AcidsPathway interactionsPenetrationPeptidesPolymersProblem SolvingProcessProteinsReagentResearchResistanceRibonucleoproteinsSurfaceSystemTechniquesTherapeuticTherapeutic InterventionToxic effectViralVirus-like particleWorkbis(monoacylglyceryl)phosphatecell typedensitydesignhuman diseaseimprovedin vivolate endosomemacromoleculenanoparticlenucleic acid-based therapeuticsprogramsresponsesmall moleculestemsynergismtherapeutic developmenttraffickingtranscription factoruptake
中文摘要
项目总结/文摘
英文摘要
PROJECT SUMMARY/ABSTRACT
Title: Mechanisms and optimization of endosomal escape for cell delivery applications
Controlled manipulation of cells through the precise intracellular delivery of biologically
active materials has been a long-term goal for probing of cellular mechanisms and therapeutic
interventions. Cellular delivery is however a problem that has not yet been solved. Most
techniques remain inefficient, are disruptive to cells and can be toxic. Furthermore, no single
approach works for all macromolecular cargo, across cell types, or in every context (e.g. cell
cultures vs in vivo). This problem is exacerbated by emerging biological applications
continually pushing the boundaries of required delivery efficiencies and versatility (e.g.
CRISPR-Cas9 technologies). This project aims to reveal fundamental mechanisms of how to
permeate cellular membranes, enabling precise control of the molecules that achieve this cell
permeation, and to develop new platforms for cellular delivery. Thus, the proposed studies will
significantly advance both understanding and solutions to the cell delivery problem.
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Mechanisms and optimization of endosomal escape for delivery applications
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批准号:10408003
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项目类别:
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资助金额:$28.81万
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财政年份:2015
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负责人:Jean-Philippe Pellois
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依托单位:
Mechanisms and optimization of endosomal escape for delivery applications
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批准号:10388856
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项目类别:
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资助金额:$3.27万
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财政年份:2015
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负责人:Jean-Philippe Pellois
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依托单位:
Mechanisms and optimization of endosomal escape for cell delivery applications
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批准号:9069937
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项目类别:
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资助金额:$27.58万
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财政年份:2015
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负责人:Jean-Philippe Pellois
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依托单位:
Mechanisms and optimization of endosomal escape for cell delivery applications
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批准号:9276732
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项目类别:
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资助金额:$27.76万
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财政年份:2015
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负责人:Jean-Philippe Pellois
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依托单位:
Mechanisms and optimization of endosomal escape for cell delivery applications
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批准号:9924775
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项目类别:
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资助金额:$4.39万
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财政年份:2015
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负责人:Jean-Philippe Pellois
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依托单位:
Delivery of protein biosensors across the plasma membrane of live cells
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批准号:7816946
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项目类别:
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资助金额:$26.77万
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财政年份:2009
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负责人:Jean-Philippe Pellois
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依托单位:
Delivery of protein biosensors across the plasma membrane of live cells
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批准号:8464740
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项目类别:
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资助金额:$25.57万
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财政年份:2009
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负责人:Jean-Philippe Pellois
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依托单位:
Delivery of protein biosensors across the plasma membrane of live cells
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批准号:8070364
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项目类别:
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资助金额:$26.5万
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财政年份:2009
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负责人:Jean-Philippe Pellois
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依托单位:
Delivery of protein biosensors across the plasma membrane of live cells
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批准号:8269889
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项目类别:
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资助金额:$26.5万
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财政年份:2009
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负责人:Jean-Philippe Pellois
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依托单位:
海外基金