
Journal of Shanghai Jiao Tong University (Medical Science) ›› 2023, Vol. 43 ›› Issue (11): 1450-1456.doi: 10.3969/j.issn.1674-8115.2023.11.014
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CHEN Huidong(
), ZHANG Yunlong, ZHANG Zhijian, HUA Qingquan(
)
Received:2023-04-06
Accepted:2023-07-17
Online:2023-11-28
Published:2023-11-28
Contact:
HUA Qingquan
E-mail:2012302180163@whu.edu.cn;hqqrm@sina.com
Supported by:CLC Number:
CHEN Huidong, ZHANG Yunlong, ZHANG Zhijian, HUA Qingquan. Advances in stem cell therapy for sensory nerve injury[J]. Journal of Shanghai Jiao Tong University (Medical Science), 2023, 43(11): 1450-1456.
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URL: https://xuebao.shsmu.edu.cn/EN/10.3969/j.issn.1674-8115.2023.11.014
| Model | Type | Route | Effect | Mechanism | Reference |
|---|---|---|---|---|---|
| Clamp injury in Lister hooded rats | UC-MSCs | Vitreous injection | The survival rate of RGC and the number of new axons and synapses were significantly increased | Factors that promote the survival or growth of target cells directly secreted or delivered through exocrine bodies | [ |
| Crushing injury in SD rats | DPSCs/BMSCs | Vitreous injection | Both could promote the survival of RGC and the formation of neurite, with better effects on dental pulp stem cells | Neurotrophic effect of factors secreted by stem cells represented by NGF/BDNF/NT3 | [ |
| Unilateral olfactory nerve transection in SD rats | ADSCs | Caudal vein injection | The expression of OMP and the number of PCNA positive cells increased significantly | Secretion of neurotrophin and differentiation into olfactory neurons and olfactory epithelial cells affect the regeneration of olfactory epithelium | [ |
| Olfactory epithelium injury induced by methimazole in mice | BMSCs/G-CSF | Caudal vein injection/hypodermic injection | There was a significant difference in survival rate of bone marrow cells implanted with G-CSF at different time | G-CSF mobilizes BMSCs from bone marrow to circulation and protects nerves by inhibiting neuronal apoptosis | [ |
| Ten-mm defect of sciatic nerve in Wistar rats | ADSCs | Nerve conduit transplantation | Electrophysiological examination showed a significant recovery of sensory and motor function, and histological analysis showed that myelin reformation and axon growth were better than the control side | ADSCs secrete neurotrophin, which can promote the synthesis and correct localization of ECM in regenerated nerve tissue, and increase the chemotactic attraction of growth cone | [ |
| Five-mm defect of left sciatic nerve in C57BL6 mice | iPSCs | Nerve conduit transplantation | The recovery of sensory and motor function in the iPSC group was significantly better than the control group, and histology suggested that myelin sheath and axon regeneration were significantly enhanced | iPSCs-derived neurospheres differentiate into Schwann cells, form myelin sheath or release nerve growth factor to promote axonal growth | [ |
Tab 1 Application of stem cell therapy in variety kinds of sensory nerve injury
| Model | Type | Route | Effect | Mechanism | Reference |
|---|---|---|---|---|---|
| Clamp injury in Lister hooded rats | UC-MSCs | Vitreous injection | The survival rate of RGC and the number of new axons and synapses were significantly increased | Factors that promote the survival or growth of target cells directly secreted or delivered through exocrine bodies | [ |
| Crushing injury in SD rats | DPSCs/BMSCs | Vitreous injection | Both could promote the survival of RGC and the formation of neurite, with better effects on dental pulp stem cells | Neurotrophic effect of factors secreted by stem cells represented by NGF/BDNF/NT3 | [ |
| Unilateral olfactory nerve transection in SD rats | ADSCs | Caudal vein injection | The expression of OMP and the number of PCNA positive cells increased significantly | Secretion of neurotrophin and differentiation into olfactory neurons and olfactory epithelial cells affect the regeneration of olfactory epithelium | [ |
| Olfactory epithelium injury induced by methimazole in mice | BMSCs/G-CSF | Caudal vein injection/hypodermic injection | There was a significant difference in survival rate of bone marrow cells implanted with G-CSF at different time | G-CSF mobilizes BMSCs from bone marrow to circulation and protects nerves by inhibiting neuronal apoptosis | [ |
| Ten-mm defect of sciatic nerve in Wistar rats | ADSCs | Nerve conduit transplantation | Electrophysiological examination showed a significant recovery of sensory and motor function, and histological analysis showed that myelin reformation and axon growth were better than the control side | ADSCs secrete neurotrophin, which can promote the synthesis and correct localization of ECM in regenerated nerve tissue, and increase the chemotactic attraction of growth cone | [ |
| Five-mm defect of left sciatic nerve in C57BL6 mice | iPSCs | Nerve conduit transplantation | The recovery of sensory and motor function in the iPSC group was significantly better than the control group, and histology suggested that myelin sheath and axon regeneration were significantly enhanced | iPSCs-derived neurospheres differentiate into Schwann cells, form myelin sheath or release nerve growth factor to promote axonal growth | [ |
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