Hussain Shahid
Department of Robotics and Mechatronics, Nazarbayev University, Astana, Kazakhstan.
NeuroRehabilitation. 2014;35(4):701-9. doi: 10.3233/NRE-141174.
Robot assisted gait training is a rapidly evolving rehabilitation practice. Various robotic orthoses have been developed during the past two decades for the gait training of patients suffering from neurologic injuries. These robotic orthoses can provide systematic gait training and reduce the work load of physical therapists. Biomechanical gait parameters can also be recorded and analysed more precisely as compared to manual physical therapy.
A review of robotic orthoses developed for providing gait training of neurologically impaired patients is provided in this paper.
Recent developments in the mechanism design and actuation methods of these robotic gait training orthoses are presented. Control strategies developed for these robotic gait training orthoses in the recent years are also discussed in detail. These control strategies have the capability to provide customised gait training according to the disability level and stage of rehabilitation of neurologically impaired subjects.
A detailed discussion regarding the mechanism design, actuation and control strategies with potential developments and improvements is provided at the end of the paper.
A number of robotic orthoses and novel control strategies have been developed to provide gait training according to the disability level of patients and have shown encouraging results. There is a need to develop improved robotic mechanisms, actuation methods and control strategies that can provide naturalistic gait patterns, safe human-robot interaction and customized gait training, respectively. Extensive clinical trials need to be carried out to ascertain the efficacy of these robotic rehabilitation orthoses.
机器人辅助步态训练是一种快速发展的康复疗法。在过去二十年中,已开发出各种机器人矫形器用于对神经损伤患者进行步态训练。这些机器人矫形器能够提供系统的步态训练,并减轻物理治疗师的工作负担。与手动物理治疗相比,生物力学步态参数也能更精确地记录和分析。
本文对已开发的用于为神经功能受损患者提供步态训练的机器人矫形器进行综述。
介绍了这些机器人步态训练矫形器在机构设计和驱动方法方面的最新进展。还详细讨论了近年来为这些机器人步态训练矫形器开发的控制策略。这些控制策略能够根据神经功能受损受试者的残疾程度和康复阶段提供定制化的步态训练。
本文结尾对机构设计、驱动和控制策略进行了详细讨论,并探讨了潜在的发展和改进方向。
已经开发出多种机器人矫形器和新颖的控制策略,以根据患者的残疾程度提供步态训练,并取得了令人鼓舞的成果。需要开发改进的机器人机构、驱动方法和控制策略,分别提供自然的步态模式、安全的人机交互和定制化的步态训练。需要进行广泛的临床试验以确定这些机器人康复矫形器的疗效。