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1.
J Mol Histol ; 53(6): 915-923, 2022 Dec.
Article in English | MEDLINE | ID: mdl-36036305

ABSTRACT

Functionalizing biomaterial substrates with biological signals shows promise in regulating cell behaviors through mimicking cellular microenvironment. Calcium phosphate (CaP) coating is an excellent carrier for immobilizing biological molecules due to its non-toxicity, good biocompatibility, biodegradability, and favorable affinity to plenty of molecules. In this study, we reported the adhesion, the viability and proliferation behaviors after oxidative stress injury of Schwann cells RSC96 on CaP immobilized with the Velvet Antler Peptide (VAP) isolated from velvet antler through coprecipitation process in modified Dulbecco's phosphate-buffered saline (DPBS) containing VAP. This approach provided well retention of functional molecules up to 28 days, and supported the adhesion and proliferation of RSC96 after oxidative stress injury without cytotoxicity. The simple and reproducible method of coprecipitation suggests that CaP is an ideal carrier to functionalize materials with biological molecules for peripheral nerve repair-related applications.


Subject(s)
Antlers , Animals , Oxidative Stress , Peptides , Calcium Phosphates/pharmacology , Calcium Phosphates/analysis , Peripheral Nerves
2.
Comput Math Methods Med ; 2021: 8294267, 2021.
Article in English | MEDLINE | ID: mdl-34858520

ABSTRACT

In order to improve the repair effect after peripheral nerve injury, this paper analyzes the related influencing factors. The regeneration of peripheral nerve includes two continuous and overlapping processes: the acute wound healing period and the axon seeking target tissue period. The complete and effective process of peripheral nerve regeneration includes the sprouting, growth and extension of regenerated axons, and the reconstruction of synaptic connections (neuromuscular junctions) with target organs to realize the reinnervation of nerves and restore function. This process includes three indicators of success in regeneration: structural reconstruction, metabolic regeneration, and functional recovery. In order to improve the repair effect of peripheral nerve injury, relevant influencing factors can be analyzed, and effective improvement of these influencing factors can improve the recovery effect of peripheral nerve injury. Finally, this paper analyzes multiple factors to provide theoretical references for follow-up clinical diagnosis and treatment.


Subject(s)
Nerve Regeneration/physiology , Peripheral Nerve Injuries/physiopathology , Peripheral Nerve Injuries/therapy , Animals , Axons/physiology , Computational Biology , Disease Models, Animal , Female , Humans , Male , Models, Neurological , Nerve Growth Factors/physiology , Recovery of Function/physiology , Schwann Cells/physiology
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