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Neuroregeneration and plasticity: a review of the physiological mechanisms for achieving functional recovery postinjury

机译:神经生成和可塑性:对实现职业恢复岗位的生理机制综述

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Neuronal networks, especially those in the central nervous system (CNS), evolved to support extensive functional capabilities while ensuring stability. Several physiological "brakes" that maintain the stability of the neuronal networks in a healthy state quickly become a hinderance postinjury. These "brakes" include inhibition from the extracellular environment, intrinsic factors of neurons and the control of neuronal plasticity. There are distinct differences between the neuronal networks in the peripheral nervous system (PNS) and the CNS. Underpinning these differences is the trade-off between reduced functional capabilities with increased adaptability through the formation of new connections and new neurons. The PNS has "facilitators" that stimulate neuroregeneration and plasticity, while the CNS has "brakes" that limit them. By studying how these "facilitators" and "brakes" work and identifying the key processes and molecules involved, we can attempt to apply these theories to the neuronal networks of the CNS to increase its adaptability. The difference in adaptability between the CNS and PNS leads to a difference in neuroregenerative properties and plasticity. Plasticity ensures quick functional recovery of abilities in the short and medium term. Neuroregeneration involves synthesizing new neurons and connections, providing extra resources in the long term to replace those damaged by the injury, and achieving a lasting functional recovery. Therefore, by understanding the factors that affect neuroregeneration and plasticity, we can combine their advantages and develop rehabilitation techniques. Rehabilitation training methods, coordinated with pharmacological interventions and/or electrical stimulation, contributes to a precise, holistic treatment plan that achieves functional recovery from nervous system injuries. Furthermore, these techniques are not limited to limb movement, as other functions lost as a result of brain injury, such as speech, can also be recovered with an appropriate training program.
机译:神经网络,尤其是中枢神经系统(CNS)的网络,演化以支持广泛的功能能力,同时确保稳定性。在健康状态下保持神经元网络的稳定性的几种生理“制动器”迅速成为一个障碍的Postinjury。这些“制动器”包括抑制细胞外环境,神经元的内在因素和神经元塑性的控制。外周神经系统(PNS)和CNS之间的神经网络之间存在明显差异。支撑这些差异是通过形成新的联系和新神经元的适应性提高了功能能力之间的权衡。 PNS具有刺激神经晕扇和可塑性的“辅导员”,而CNS具有限制它们的“制动器”。通过研究这些“促进者”和“制动器”的工作方式和识别所涉及的关键过程和分子,我们可以试图将这些理论应用于CNS的神经元网络以增加其适应性。 CNS和PNS之间适应性的差异导致神经营养性质和可塑性的差异。可塑性可确保在短期和中期快速恢复能力。神经元件涉及综合新神经元和联系,长期提供额外的资源来替换受伤损坏的人,并实现持久的功能恢复。因此,通过了解影响神经循环和可塑性的因素,我们可以将其优势结合起来和开发康复技术。与药理学干预和/或电气刺激协调的康复培训方法有助于实现从神经系统损伤的功能恢复的精确,整体治疗计划。此外,这些技术不限于肢体运动,因为由于脑损伤的其他功能丢失,例如语音,也可以用适当的训练计划恢复。

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