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Accelerated Bone Healing in Calvarial and Femoral Defects with Injectable Microcarriers that Mimic the Osteogenic Niche

Candice Haase, Sravani Jaligama, Eli Mondragon, Simin Pan, Eoin P. McNeill, Cynthia Co, Daniel Tahan, Bret H. Clough, Nick Sears, Abhishai Dominic, Jun Kameoka, Carl A. Gregory, View ORCID ProfileRoland Kaunas
doi: https://doi.org/10.1101/2021.11.05.467478
Candice Haase
1Texas A&M University
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Sravani Jaligama
1Texas A&M University
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Eli Mondragon
1Texas A&M University
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Simin Pan
1Texas A&M University
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Eoin P. McNeill
1Texas A&M University
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Cynthia Co
1Texas A&M University
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Daniel Tahan
1Texas A&M University
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Bret H. Clough
1Texas A&M University
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Nick Sears
1Texas A&M University
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Abhishai Dominic
1Texas A&M University
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Jun Kameoka
1Texas A&M University
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Carl A. Gregory
1Texas A&M University
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Roland Kaunas
1Texas A&M University
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  • ORCID record for Roland Kaunas
  • For correspondence: rkaunas@tamu.edu
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Abstract

Osteo-enhanced human mesenchymal stem cells (OEhMSCs) secrete an osteogenic cell matrix (OCM) that mimics the composition of anabolic bone tissue and strongly enhances OEhMSC retention and subsequent bone repair in vivo. Here we demonstrate a system for rapid production of gelatin methacrylate microcarriers coated with decellularized OCM (OCM-GelMA) to serve as an injectable bone graft material with high osteogenic potential comparable to a clinically utilized gold standard, bone morphogenic protein 2 (BMP-2). OEhMSCs seeded onto OCM-GelMA secreted high levels of osteogenic and angiogenic cytokines and expressed higher levels of BMP-2 relative to OEhMSCs on bare GelMA microcarriers. OEhMSCs co-administered with OCM-GelMA microcarriers resulted in enhanced healing of murine critical-sized calvarial defects, which was comparable to that achieved with a BMP-2-laden gelatin sponge control. When tested in a murine femoral defect model, OCM-GelMA co-administered with OEhMSCs also induced profound bone growth within the defect. We submit that OCM-GelMA promotes OEhMSC paracrine release to accelerate bone repair, indicating their potential as a bone graft for use in minimally invasive surgery.

Competing Interest Statement

The authors have declared no competing interest.

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The copyright holder for this preprint is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. All rights reserved. No reuse allowed without permission.
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Posted November 06, 2021.
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Accelerated Bone Healing in Calvarial and Femoral Defects with Injectable Microcarriers that Mimic the Osteogenic Niche
Candice Haase, Sravani Jaligama, Eli Mondragon, Simin Pan, Eoin P. McNeill, Cynthia Co, Daniel Tahan, Bret H. Clough, Nick Sears, Abhishai Dominic, Jun Kameoka, Carl A. Gregory, Roland Kaunas
bioRxiv 2021.11.05.467478; doi: https://doi.org/10.1101/2021.11.05.467478
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Accelerated Bone Healing in Calvarial and Femoral Defects with Injectable Microcarriers that Mimic the Osteogenic Niche
Candice Haase, Sravani Jaligama, Eli Mondragon, Simin Pan, Eoin P. McNeill, Cynthia Co, Daniel Tahan, Bret H. Clough, Nick Sears, Abhishai Dominic, Jun Kameoka, Carl A. Gregory, Roland Kaunas
bioRxiv 2021.11.05.467478; doi: https://doi.org/10.1101/2021.11.05.467478

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