Published online Jan 26, 2021. doi: 10.12998/wjcc.v9.i3.632
Peer-review started: July 21, 2020
First decision: November 3, 2020
Revised: November 18, 2020
Accepted: November 29, 2020
Article in press: November 29, 2020
Published online: January 26, 2021
Processing time: 181 Days and 21.1 Hours
Lower body positive pressure (LBPP) treadmill has potential applications for improving the gait of patients after stroke, but the related mechanism remains unclear.
A 62-year-old male patient suffered from ischemic stroke with hemiplegic gait. He was referred to our hospital because of a complaint of left limb weakness for 2 years. The LBPP training was performed one session per day and six times per week for 2 wk. The dynamic plantar pressure analysis was taken every 2 d. Meanwhile, three-digital gait analysis and synchronous electromyography as well as clinical assessments were taken before and after LBPP intervention and at the 4-wk follow-up. During LBPP training, our patient not only improved his lower limb muscle strength and walking speed, but more importantly, the symmetry index of various biomechanical indicators improved. Moreover, the patient’s planter pressure transferring from the heel area to toe area among the LBPP training process and the symmetry of lower body biomechanical parameters improved.
In this study, we documented a dynamic improvement of gait performance in a stroke patient under LBPP training, which included lower limb muscle strength, walking speed, and symmetry of lower limb biomechanics. Our study provides some crucial clues about the potential dynamic mechanism for LBPP training on gait and balance improvement, which is related to rebuilding foot pressure distribution and remodeling symmetry of biomechanics of the lower limb.
Core Tip: Lower body positive pressure (LBPP) treadmill has potential applications for improving the gait of patients after a stroke, although the related mechanism remains unclear. To the best of our knowledge, our case report is the first study for the dynamic observation on hemiplegic gait rehabilitation using plantar pressure analysis, which presents with every detail of the changes in gait. Meanwhile, we also presented the macroscopic longitudinal changes using the clinical assessments and three-digital gait analysis before and after LBPP intervention and at a follow-up. The critical clues were found for the potential dynamic mechanism for LBPP training on the gait and balance improvement, which is related to rebuilding foot pressure distribution and remodeling symmetry of biomechanics of the lower limb.