Tacrolimus- and Nerve Growth Factor-Treated Allografts for Neural Tissue Regeneration

Treatment of injured peripheral nerves, especially long-distance nerve defects, remains a significant challenge in regenerative medicine due to complex biological conditions and a lack of biomaterials for effective nerve reconstruction. Without proper treatment, nerve injury leads to motor and senso...

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Veröffentlicht in:ACS chemical neuroscience 2019-03, Vol.10 (3), p.1411-1419
Hauptverfasser: Yin, Yixia, Xiao, Gao, Zhang, Kaiming, Ying, Guoliang, Xu, Haixing, De Melo, Bruna A. G, Li, Shipu, Liu, Fang, Yetisen, Ali K, Jiang, Nan
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container_end_page 1419
container_issue 3
container_start_page 1411
container_title ACS chemical neuroscience
container_volume 10
creator Yin, Yixia
Xiao, Gao
Zhang, Kaiming
Ying, Guoliang
Xu, Haixing
De Melo, Bruna A. G
Li, Shipu
Liu, Fang
Yetisen, Ali K
Jiang, Nan
description Treatment of injured peripheral nerves, especially long-distance nerve defects, remains a significant challenge in regenerative medicine due to complex biological conditions and a lack of biomaterials for effective nerve reconstruction. Without proper treatment, nerve injury leads to motor and sensory dysfunction. Here, we have developed an efficacious nerve allograft treated with a dual drug containing acrolimus and nerve growth factor to bridge the nerve gap and achieve rapid neural tissue recovery without immunological rejection. The recovery of the structure, activity, and function of rats treated with the dual drug-treated allograft was investigated by walking track analysis and electrophysiological measurement. The sciatic functional index was measured to be −3.0 after a 12-week treatment. The nerve conduction velocity, peak latency, and peak amplitude of the nerve action potentials demonstrate the functional recovery of the nerve. To study the synergistic effect of the dual drug on the growth of neurites, a neural cell hypoxia model was created. The dual drug exhibited a high efficiency in promoting the growth of nerve cells under the nerve injury-induced hypoxic condition. The dual drug could protect the cells against antioxidative damage from hypoxia by the expression of heat shock protein, hypoxia-inducible factor, β-tubulin, and vimentin.
doi_str_mv 10.1021/acschemneuro.8b00452
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subjects Allografts - drug effects
Allografts - physiology
Animals
Immunosuppressive Agents - pharmacology
Immunosuppressive Agents - therapeutic use
Nerve Growth Factor - pharmacology
Nerve Growth Factor - therapeutic use
Nerve Regeneration - drug effects
Nerve Regeneration - physiology
PC12 Cells
Rats
Rats, Wistar
Sciatic Neuropathy - drug therapy
Sciatic Neuropathy - metabolism
Tacrolimus - pharmacology
Tacrolimus - therapeutic use
title Tacrolimus- and Nerve Growth Factor-Treated Allografts for Neural Tissue Regeneration
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