It provides crucial information for improving and optimizing MSCs for future clinical application of bone regeneration.
The disadvantage of costly cofactors was bypassed by the application of cofactor regeneration systems and by electrochemical substitution of cofactors.
Therefore, the cells mentioned above are not practical in the clinical application of tooth regeneration in the old.
This kind of material was suggested to promote the effective application of bone regeneration through the combination of in situ self-setting, plasticity, angiogenesis, and osteoconductivity.
However, the wide application of the regeneration of the single-stranded thiolated probe layer after hybridization experiments by rinsing with hot water (> 60 °C) proves the stability of the probe layer [11, 17, 18].
Thus, CMC/BioC/BMP-2 hybrid materials may be useful in an injectable substrate for the clinical application of the regeneration of bone defects in the orthopedic field.
Synthetic tissue engineering scaffolds including bioceramic, polymer, or composite scaffolds have been extensively studied for the application of tissue regeneration due to their excellent biocompatibility [ 1, 2].
As such, their application to regeneration of miscellaneous impaired organs has attracted much attention.
Clinical applications of muscle regeneration strategies are very limited although the topic receives a substantial amount of interest in basic science and preclinical studies (Corona and Greising 2016; Kwee and Mooney 2017).
Also, in future studies, autologous cells from immunocompetent animals may be considered to be used to develop new periosteum/bone-like grafts for the applications of bone regeneration.
