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Design, control and evaluation of a treadmill-based Pelvic Exoskeleton (PeXo) with self-paced walking mode

Published: 02 July 2024 Publication History

Abstract

Most gait rehabilitation exoskeletons focus only on assisting lower limb motions. However, the pelvis plays an essential role in overground ambulation. This calls for the need of gait training devices that allow full control and assistance of user’s pelvis to improve gait rehabilitation therapies of stroke survivors. This paper presents a new pelvic assistance treadmill-based exoskeleton (PeXo) for gait rehabilitation. The system includes a total of 5 actively controlled Degrees of Freedom (DOFs), plus a passive one, in order to provide all DOFs of the human pelvis. The paper describes the mechatronic design and haptic control of PeXo, and introduces a newly developed self-paced walking mode where the user can control walking speed at his/her will. The system was evaluated by means of a pilot study with a stroke survivor. Results showed PeXo can be used safely and reliably during walking activities, allowing for the natural motion of the pelvis with reduced interaction forces. However, the use of the platform reduced user’s Range of Motion at the pelvis and lower limb joints, whereas lower limb’s muscle activity increased to compensate the disturbances introduced by the platform. Nevertheless, the user reported a positive feedback when using the system, suggesting potential and promising advantages of PeXo that should be explored in a larger study in the future.

Highlights

This paper presents PeXo, a novel treadmill-based pelvic assistance exoskeleton for gait rehabilitation
PeXo has 5 active and 1 passive DOF at the pelvis, plus haptic self-paced walking speed control.
PeXo was evaluated on a stroke survivor.
PeXo provides a safe interaction at the pelvis, but increases lower-limb muscle activity.
Haptic self-paced walking mode did not significantly affect gait kinematics nor muscle activity.

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Published In

cover image Robotics and Autonomous Systems
Robotics and Autonomous Systems  Volume 175, Issue C
May 2024
255 pages

Publisher

North-Holland Publishing Co.

Netherlands

Publication History

Published: 02 July 2024

Author Tags

  1. Exoskeleton
  2. Pelvis
  3. Stroke
  4. Gait rehabilitation
  5. Haptic control
  6. Self-paced treadmill

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