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Highly Porous Microcarriers for Minimally Invasive In Situ Skeletal Muscle Cell Delivery.


ABSTRACT: Microscale cell carriers have recently garnered enormous interest in repairing tissue defects by avoiding substantial open surgeries using implants for tissue regeneration. In this study, the highly open porous microspheres (HOPMs) are fabricated using a microfluidic technique for harboring proliferating skeletal myoblasts and evaluating their feasibility toward cell delivery application in situ. These biocompatible HOPMs with particle sizes of 280-370 µm possess open pores of 10-80 µm and interconnected paths. Such structure of the HOPMs conveniently provide a favorable microenvironment, where the cells are closely arranged in elongated shapes with the deposited extracellular matrix, facilitating cell adhesion and proliferation, as well as augmented myogenic differentiation. Furthermore, in vivo results in mice confirm improved cell retention and vascularization, as well as partial myoblast differentiation. These modular cell-laden microcarriers potentially allow for in situ tissue construction after minimally invasive delivery providing a convenient means for regeneration medicine.

SUBMITTER: Kankala RK 

PROVIDER: S-EPMC6750270 | biostudies-literature | 2019 Jun

REPOSITORIES: biostudies-literature

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Highly Porous Microcarriers for Minimally Invasive In Situ Skeletal Muscle Cell Delivery.

Kankala Ranjith Kumar RK   Zhao Jia J   Liu Chen-Guang CG   Song Xiao-Jie XJ   Yang Da-Yun DY   Zhu Kai K   Wang Shi-Bin SB   Zhang Yu Shrike YS   Chen Ai-Zheng AZ  

Small (Weinheim an der Bergstrasse, Germany) 20190508 25


Microscale cell carriers have recently garnered enormous interest in repairing tissue defects by avoiding substantial open surgeries using implants for tissue regeneration. In this study, the highly open porous microspheres (HOPMs) are fabricated using a microfluidic technique for harboring proliferating skeletal myoblasts and evaluating their feasibility toward cell delivery application in situ. These biocompatible HOPMs with particle sizes of 280-370 µm possess open pores of 10-80 µm and inter  ...[more]

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