Acidic Fibroblast Growth Factor in Spinal Cord Injury

Spinal cord injury (SCI), with an incidence rate of 246 per million person-years among adults in Taiwan, remains a devastating disease in the modern day. Elderly men with lower socioeconomic status have an even higher risk for SCI. Despite advances made in medicine and technology to date, there are...

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Main Authors: Chin-Chu Ko, Tsung-Hsi Tu, Jau-Ching Wu, Wen-Cheng Huang, Henrich Cheng
Format: Article
Language:English
Published: Korean Spinal Neurosurgery Society 2019-12-01
Series:Neurospine
Subjects:
Online Access:http://www.e-neurospine.org/upload/pdf/ns-1836216-108.pdf
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author Chin-Chu Ko
Tsung-Hsi Tu
Jau-Ching Wu
Wen-Cheng Huang
Henrich Cheng
author_facet Chin-Chu Ko
Tsung-Hsi Tu
Jau-Ching Wu
Wen-Cheng Huang
Henrich Cheng
author_sort Chin-Chu Ko
collection DOAJ
description Spinal cord injury (SCI), with an incidence rate of 246 per million person-years among adults in Taiwan, remains a devastating disease in the modern day. Elderly men with lower socioeconomic status have an even higher risk for SCI. Despite advances made in medicine and technology to date, there are few effective treatments for SCI due to limitations in the regenerative capacity of the adult central nervous system. Experiments and clinical trials have explored neuro-regeneration in human SCI, encompassing cell- and molecule-based therapies. Furthermore, strategies have aimed at restoring connections, including autologous peripheral nerve grafts and biomaterial scaffolds that theoretically promote axonal growth. Most molecule-based therapies target the modulation of inhibitory molecules to promote axonal growth, degrade glial scarring obstacles, and stimulate intrinsic regenerative capacity. Among them, acidic fibroblast growth factor (aFGF) has been investigated for nerve repair; it is mitogenic and pluripotent in nature and could enhance axonal growth and mitigate glial scarring. For more than 2 decades, the authors have conducted multiple trials, including human and animal experiments, using aFGF to repair nerve injuries, including central and peripheral nerves. In these trials, aFGF has shown promise for neural regeneration, and in the future, more trials and applications should investigate aFGF as a neurotrophic factor. Focusing on aFGF, the current review aimed to summarize the historical evolution of the utilization of aFGF in SCI and nerve injuries, to present applications and trials, to summarize briefly its possible mechanisms, and to provide future perspectives.
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spelling doaj.art-c9db489fba394ed393bcd6fb4f5990302024-02-02T07:28:55ZengKorean Spinal Neurosurgery SocietyNeurospine2586-65832586-65912019-12-0116472873810.14245/ns.1836216.108842Acidic Fibroblast Growth Factor in Spinal Cord InjuryChin-Chu Ko0Tsung-Hsi Tu1Jau-Ching Wu2Wen-Cheng Huang3Henrich Cheng4 Jhong Jheng Spine & Orthopedic Hospital, Kaohsiung, Taiwan School of Medicine, National Yang-Ming University, Taipei, Taiwan Institute of Pharmacology, National Yang-Ming University, Taipei, Taiwan School of Medicine, National Yang-Ming University, Taipei, Taiwan Institute of Pharmacology, National Yang-Ming University, Taipei, TaiwanSpinal cord injury (SCI), with an incidence rate of 246 per million person-years among adults in Taiwan, remains a devastating disease in the modern day. Elderly men with lower socioeconomic status have an even higher risk for SCI. Despite advances made in medicine and technology to date, there are few effective treatments for SCI due to limitations in the regenerative capacity of the adult central nervous system. Experiments and clinical trials have explored neuro-regeneration in human SCI, encompassing cell- and molecule-based therapies. Furthermore, strategies have aimed at restoring connections, including autologous peripheral nerve grafts and biomaterial scaffolds that theoretically promote axonal growth. Most molecule-based therapies target the modulation of inhibitory molecules to promote axonal growth, degrade glial scarring obstacles, and stimulate intrinsic regenerative capacity. Among them, acidic fibroblast growth factor (aFGF) has been investigated for nerve repair; it is mitogenic and pluripotent in nature and could enhance axonal growth and mitigate glial scarring. For more than 2 decades, the authors have conducted multiple trials, including human and animal experiments, using aFGF to repair nerve injuries, including central and peripheral nerves. In these trials, aFGF has shown promise for neural regeneration, and in the future, more trials and applications should investigate aFGF as a neurotrophic factor. Focusing on aFGF, the current review aimed to summarize the historical evolution of the utilization of aFGF in SCI and nerve injuries, to present applications and trials, to summarize briefly its possible mechanisms, and to provide future perspectives.http://www.e-neurospine.org/upload/pdf/ns-1836216-108.pdfacidic fibroblast growth factorspinal cord injuryregeneration
spellingShingle Chin-Chu Ko
Tsung-Hsi Tu
Jau-Ching Wu
Wen-Cheng Huang
Henrich Cheng
Acidic Fibroblast Growth Factor in Spinal Cord Injury
Neurospine
acidic fibroblast growth factor
spinal cord injury
regeneration
title Acidic Fibroblast Growth Factor in Spinal Cord Injury
title_full Acidic Fibroblast Growth Factor in Spinal Cord Injury
title_fullStr Acidic Fibroblast Growth Factor in Spinal Cord Injury
title_full_unstemmed Acidic Fibroblast Growth Factor in Spinal Cord Injury
title_short Acidic Fibroblast Growth Factor in Spinal Cord Injury
title_sort acidic fibroblast growth factor in spinal cord injury
topic acidic fibroblast growth factor
spinal cord injury
regeneration
url http://www.e-neurospine.org/upload/pdf/ns-1836216-108.pdf
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AT tsunghsitu acidicfibroblastgrowthfactorinspinalcordinjury
AT jauchingwu acidicfibroblastgrowthfactorinspinalcordinjury
AT wenchenghuang acidicfibroblastgrowthfactorinspinalcordinjury
AT henrichcheng acidicfibroblastgrowthfactorinspinalcordinjury