Combined Macromolecule biomaterials together with fluid shear stress promote the osteogenic differentiation capacity of equine adipose -derived mesenchymal stem cells
Background: Combination of mesenchymal stem cells (MSCs) and biomaterials is a rapidly growing approach in regenerative medicine particularly for chronic degenerative disorders including osteoarthritis and osteoporosis. The present study examined the effect of biomaterial scaffolds on equine adipose derived MSCs morphology, viability, adherence, migration and osteogenic differentiation.
Methods: MSCs were cultivated in conjunction with collagen CultiSpher-S Microcarrier (MC), nanocomposite xerogels B30 and combined B30 with strontium (B30Str) biomaterials in osteogenic differentiation medium either under static or mechanical fluid shear stress (FSS) culture conditions. The data were generated by histological means, live cell imaging, cell viability, adherence and migration assays, semi-quantification of alkaline phosphatase (ALP) activity and quantification of the osteogenic markers runt related transcription factor 2 (Runx2) and alkaline phosphatase (ALP) expression.
Results: The data revealed that combined mechanical FSS with MC but not B30 enhanced MSCs viability and promoted their migration. Combined osteogenic medium with MC, B30 and B30Str increased ALP activity compared to cultivation in basal medium. Osteogenic induction with MC, B30 and B30Str resulted in diffused matrix mineralization. The combined osteogenic induction with biomaterials under mechanical FSS increased Runx2 protein expression either in comparison to those cells cultivated in BM or those cells induced under static culture. Runx2 and ALP expression was upregulated following combined osteogenic differentiation together with B30 and B30Str regardless of static or FSS culture.
Conclusions: Taken together, the data revealed that FSS in conjunction with biomaterials promoted osteogenic differentiation of MSCs. This combination may be considered as a marked improvement for clinical applications to cure bone defects.
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Posted 05 Jan, 2021
Received 30 Dec, 2020
Received 24 Dec, 2020
On 23 Dec, 2020
Received 23 Dec, 2020
On 22 Dec, 2020
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On 22 Dec, 2020
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On 20 Dec, 2020
On 20 Dec, 2020
On 13 Dec, 2020
Received 06 Dec, 2020
On 30 Nov, 2020
Received 29 Nov, 2020
On 28 Nov, 2020
Received 26 Nov, 2020
On 25 Nov, 2020
On 23 Nov, 2020
Invitations sent on 23 Nov, 2020
On 23 Nov, 2020
On 23 Nov, 2020
On 21 Aug, 2020
Received 17 Aug, 2020
On 13 Aug, 2020
Received 13 Aug, 2020
Received 13 Aug, 2020
On 08 Aug, 2020
On 07 Aug, 2020
Received 16 Jul, 2020
On 16 Jul, 2020
Received 06 Jul, 2020
On 02 Jul, 2020
On 02 Jul, 2020
Invitations sent on 01 Jul, 2020
On 30 Jun, 2020
On 29 Jun, 2020
On 29 Jun, 2020
On 25 Jun, 2020
Combined Macromolecule biomaterials together with fluid shear stress promote the osteogenic differentiation capacity of equine adipose -derived mesenchymal stem cells
Posted 05 Jan, 2021
Received 30 Dec, 2020
Received 24 Dec, 2020
On 23 Dec, 2020
Received 23 Dec, 2020
On 22 Dec, 2020
Invitations sent on 22 Dec, 2020
On 22 Dec, 2020
On 20 Dec, 2020
On 20 Dec, 2020
On 20 Dec, 2020
On 13 Dec, 2020
Received 06 Dec, 2020
On 30 Nov, 2020
Received 29 Nov, 2020
On 28 Nov, 2020
Received 26 Nov, 2020
On 25 Nov, 2020
On 23 Nov, 2020
Invitations sent on 23 Nov, 2020
On 23 Nov, 2020
On 23 Nov, 2020
On 21 Aug, 2020
Received 17 Aug, 2020
On 13 Aug, 2020
Received 13 Aug, 2020
Received 13 Aug, 2020
On 08 Aug, 2020
On 07 Aug, 2020
Received 16 Jul, 2020
On 16 Jul, 2020
Received 06 Jul, 2020
On 02 Jul, 2020
On 02 Jul, 2020
Invitations sent on 01 Jul, 2020
On 30 Jun, 2020
On 29 Jun, 2020
On 29 Jun, 2020
On 25 Jun, 2020
Background: Combination of mesenchymal stem cells (MSCs) and biomaterials is a rapidly growing approach in regenerative medicine particularly for chronic degenerative disorders including osteoarthritis and osteoporosis. The present study examined the effect of biomaterial scaffolds on equine adipose derived MSCs morphology, viability, adherence, migration and osteogenic differentiation.
Methods: MSCs were cultivated in conjunction with collagen CultiSpher-S Microcarrier (MC), nanocomposite xerogels B30 and combined B30 with strontium (B30Str) biomaterials in osteogenic differentiation medium either under static or mechanical fluid shear stress (FSS) culture conditions. The data were generated by histological means, live cell imaging, cell viability, adherence and migration assays, semi-quantification of alkaline phosphatase (ALP) activity and quantification of the osteogenic markers runt related transcription factor 2 (Runx2) and alkaline phosphatase (ALP) expression.
Results: The data revealed that combined mechanical FSS with MC but not B30 enhanced MSCs viability and promoted their migration. Combined osteogenic medium with MC, B30 and B30Str increased ALP activity compared to cultivation in basal medium. Osteogenic induction with MC, B30 and B30Str resulted in diffused matrix mineralization. The combined osteogenic induction with biomaterials under mechanical FSS increased Runx2 protein expression either in comparison to those cells cultivated in BM or those cells induced under static culture. Runx2 and ALP expression was upregulated following combined osteogenic differentiation together with B30 and B30Str regardless of static or FSS culture.
Conclusions: Taken together, the data revealed that FSS in conjunction with biomaterials promoted osteogenic differentiation of MSCs. This combination may be considered as a marked improvement for clinical applications to cure bone defects.
Figure 1
Figure 2
Figure 3
Figure 4