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Oscillatory fluid flow induces the osteogenic lineage commitment of mesenchymal stem cells: The effect of shear stress magnitude, frequency, and duration
by
Stavenschi, Elena
, Labour, Marie-Noelle
, Hoey, David A.
in
Animal models
/ Animals
/ Ascorbic acid
/ Biomarkers - metabolism
/ Biomechanical Phenomena
/ Biomechanics
/ Bioreactor
/ Blood flow
/ Bone
/ Bone growth
/ Bone healing
/ Bone marrow
/ Bone matrix
/ Bone remodeling
/ Calcification
/ Calcium signalling
/ Cancellous bone
/ Cbfa-1 protein
/ Cell culture
/ Cell Differentiation - physiology
/ Cell growth
/ Cell Line
/ Cell Lineage
/ Cell proliferation
/ Fluid flow
/ Gene expression
/ Gene Expression Regulation
/ Hydrodynamics
/ Kinases
/ Lamellar bone
/ Life span
/ Mechanical loading
/ Mechanobiology
/ Mesenchymal stem cell
/ Mesenchymal stem cells
/ Mesenchymal Stromal Cells - cytology
/ Mice
/ Osteoblastogenesis
/ Osteogenesis
/ Physical Medicine and Rehabilitation
/ Predictive control
/ Pressure
/ Shear flow
/ Shear Strength
/ Shear stress
/ Stem cells
/ Stimulation
/ Stimuli
/ Stress, Mechanical
/ Time Factors
/ Tissue engineering
2017
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Oscillatory fluid flow induces the osteogenic lineage commitment of mesenchymal stem cells: The effect of shear stress magnitude, frequency, and duration
by
Stavenschi, Elena
, Labour, Marie-Noelle
, Hoey, David A.
in
Animal models
/ Animals
/ Ascorbic acid
/ Biomarkers - metabolism
/ Biomechanical Phenomena
/ Biomechanics
/ Bioreactor
/ Blood flow
/ Bone
/ Bone growth
/ Bone healing
/ Bone marrow
/ Bone matrix
/ Bone remodeling
/ Calcification
/ Calcium signalling
/ Cancellous bone
/ Cbfa-1 protein
/ Cell culture
/ Cell Differentiation - physiology
/ Cell growth
/ Cell Line
/ Cell Lineage
/ Cell proliferation
/ Fluid flow
/ Gene expression
/ Gene Expression Regulation
/ Hydrodynamics
/ Kinases
/ Lamellar bone
/ Life span
/ Mechanical loading
/ Mechanobiology
/ Mesenchymal stem cell
/ Mesenchymal stem cells
/ Mesenchymal Stromal Cells - cytology
/ Mice
/ Osteoblastogenesis
/ Osteogenesis
/ Physical Medicine and Rehabilitation
/ Predictive control
/ Pressure
/ Shear flow
/ Shear Strength
/ Shear stress
/ Stem cells
/ Stimulation
/ Stimuli
/ Stress, Mechanical
/ Time Factors
/ Tissue engineering
2017
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Oscillatory fluid flow induces the osteogenic lineage commitment of mesenchymal stem cells: The effect of shear stress magnitude, frequency, and duration
by
Stavenschi, Elena
, Labour, Marie-Noelle
, Hoey, David A.
in
Animal models
/ Animals
/ Ascorbic acid
/ Biomarkers - metabolism
/ Biomechanical Phenomena
/ Biomechanics
/ Bioreactor
/ Blood flow
/ Bone
/ Bone growth
/ Bone healing
/ Bone marrow
/ Bone matrix
/ Bone remodeling
/ Calcification
/ Calcium signalling
/ Cancellous bone
/ Cbfa-1 protein
/ Cell culture
/ Cell Differentiation - physiology
/ Cell growth
/ Cell Line
/ Cell Lineage
/ Cell proliferation
/ Fluid flow
/ Gene expression
/ Gene Expression Regulation
/ Hydrodynamics
/ Kinases
/ Lamellar bone
/ Life span
/ Mechanical loading
/ Mechanobiology
/ Mesenchymal stem cell
/ Mesenchymal stem cells
/ Mesenchymal Stromal Cells - cytology
/ Mice
/ Osteoblastogenesis
/ Osteogenesis
/ Physical Medicine and Rehabilitation
/ Predictive control
/ Pressure
/ Shear flow
/ Shear Strength
/ Shear stress
/ Stem cells
/ Stimulation
/ Stimuli
/ Stress, Mechanical
/ Time Factors
/ Tissue engineering
2017
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Oscillatory fluid flow induces the osteogenic lineage commitment of mesenchymal stem cells: The effect of shear stress magnitude, frequency, and duration
Journal Article
Oscillatory fluid flow induces the osteogenic lineage commitment of mesenchymal stem cells: The effect of shear stress magnitude, frequency, and duration
2017
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Overview
A potent regulator of bone anabolism is physical loading. However, it is currently unclear whether physical stimuli such as fluid shear within the marrow cavity is sufficient to directly drive the osteogenic lineage commitment of resident mesenchymal stem cells (MSC). Therefore, the objective of the study is to employ a systematic analysis of oscillatory fluid flow (OFF) parameters predicted to occur in vivo on early MSC osteogenic responses and late stage lineage commitment. MSCs were exposed to OFF of 1Pa, 2Pa and 5Pa magnitudes at frequencies of 0.5Hz, 1Hz and 2Hz for 1h, 2h and 4h of stimulation. Our findings demonstrate that OFF elicits a positive osteogenic response in MSCs in a shear stress magnitude, frequency, and duration dependent manner that is gene specific. Based on the mRNA expression of osteogenic markers Cox2, Runx2 and Opn after short-term fluid flow stimulation, we identified that a regime of 2Pa shear magnitude and 2Hz frequency induces the most robust and reliable upregulation in osteogenic gene expression. Furthermore, long-term mechanical stimulation utilising this regime, elicits a significant increase in collagen and mineral deposition when compared to static control demonstrating that mechanical stimuli predicted within the marrow is sufficient to directly drive osteogenesis.
Publisher
Elsevier Ltd,Elsevier Limited
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