Objective To observe the application effect of a multi-task gait training platform for lower limb robots based on virtual reality in patients with early hemiplegia. Methods Fifty stroke patients were selected and randomly divided into modified group and control group with 25 cases each. The control group used simple lower-limb robot training, and the modified group used the improved the original lower-limb robot that was integrated virtual reality technology, eye movement/balance training technology, non-invasive neuromodulation technology, wearable equipment (surface electromyography + near-infrared light Brain imaging), remote diagnosis and treatment. The two groups were intervened for 9 weeks, and the Fugl-meyer lower limb motor function assessment scale (FMA), Berg balance scale (BBS), modified Barthel index (MBI), and Holden walking function classification were observed. Results The two groups of patients were assessed by FMA score, BBS score, and MBI index before and after treatment. After 9 weeks, the differences in the above indicators between the two groups were statistically significant (P <0.05); and the comparison between groups. The improved group was better than the control group in FMA score, BBS score, MBI index score, and the difference was statistically significant (P <0.05). In terms of Holden walking function classification, the Holden classification of the two groups after 9 weeks after treatment was statistically significant (P <0.05); while the comparison between the groups, the improved group was better than the control group, and the difference was statistically significant ( P <0.05). Conclusions Based on traditional lower-limb robots, this research has improved a virtual reality-based multi-task gait training platform for lower-limb robots, which can realize multi-sensory, multi-channel stimulus and training through audiovisual and eye movements. Based on the acquisition of gait parameters, the changes in electromyographic parameters and hemoglobin concentration of sEMG and fNIRS are incorporated, and multiple indicators are simultaneously monitored. Finally, an intelligent technology with adaptive function, adjustable, optimized, and updated training program is realized, and the intervention is improved.
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