Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the Human Apical Papilla via the Processes of Mechanosensing and Mechanotransduction

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Last updated 26 maio 2024
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Cell Proliferation, Cell Biology Journal
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
From mesenchymal niches to engineered in vitro model systems: Exploring and exploiting biomechanical regulation of vertebrate hedgehog signalling - ScienceDirect
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Molecular investigations of hBMSC gene expression after 1 and 7 d
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Cell Proliferation, Cell Biology Journal
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Frontiers Transforming Growth Factor-β Signaling Regulates Tooth Root Dentinogenesis by Cooperation With Wnt Signaling
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Assessing the combined effect of surface topography and substrate rigidity in human bone marrow stem cell cultures - Ribeiro - 2022 - Engineering in Life Sciences - Wiley Online Library
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Histone Modification of Osteogenesis Related Genes Triggered by Substrate Topography Promotes Human Mesenchymal Stem Cell Differentiation
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Cell Proliferation, Cell Biology Journal
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Substrate mechanics dictate cell-cell communication by gap junctions in stem cells from human apical papilla - ScienceDirect
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Microenvironmental stiffness mediates cytoskeleton re-organization in chondrocytes through laminin-FAK mechanotransduction
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the Human Apical Papilla via the Processes of Mechanosensing and Mechanotransduction
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Stiffened fibre-like microenvironment based on patterned equidistant micropillars directs chondrocyte hypertrophy - ScienceDirect
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Integrating physicomechanical and biological strategies for BTE: biomaterials-induced osteogenic differentiation of MSCs
Substrate Compliance Directs the Osteogenic Lineages of Stem Cells from the  Human Apical Papilla via the Processes of Mechanosensing and  Mechanotransduction
Substrate Stiffness and Composition Specifically Direct Differentiation of Induced Pluripotent Stem Cells

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