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Clinical Trial Summary

Using a MRI gait motor imagery paradigm in ALS patients in order to study how ALS affects the function of the central neural networks involved in gait function, we showed a reorganization of the motor networks that represents a compensatory response to the dysfunction of the networks involved in gait function. Our main hypothesis is that by providing coherent proprioceptive input to the sensorimotor integration areas, gait training with an exoskeleton may boost compensatory network reorganization and help to maintain function. We hypothesize that this can be achieved through a locomotion training strategy that reproduces normal gait motor patterns and appropriate sensory feedback. Gait training with an exoskeleton can meet these needs. The Atalante exoskeleton offers unique potential thanks to its cutting-edge technological features, hands-free functions and availability in numerous centers across Europe. Evaluation of its safety and efficacy in ALS is of the utmost interest in order to generalize this new approach in ALS.


Clinical Trial Description

Current research is mainly focused on evaluating the effect of robotic rehabilitation on locomotion in ALS. In order to understand this approach, it is important to validate its safety and to determine patient's experience with this new rehabilitation concept in ALS. In this study, we aim to evaluate the safety, the participant experience and effectiveness of the training program with the Atalante exoskeleton as a gait training tool for ALS patients, compared with usual care, on walking ability, functional capacity and other symptoms associated with motor disability. The Atalante exoskeleton is the only self-balancing exoskeleton that enables assisted walking without walking aid, reproducing a natural walking pattern and multidirectional movement. EXALS is an interventional, monocentric, prospective, open trial. With a limited number of studies on gait rehabilitation exoskeletons in ALS, this study represents a significant scientific contribution, being the first to explore the benefits of a self-balancing exoskeleton with a rigorous design. In addition to robust outcome measures, this study places importance on participants' perception, motivation, and involvement in decision-making, adding depth and strength to the research. ;


Study Design


Related Conditions & MeSH terms


NCT number NCT06199284
Study type Interventional
Source Institut de Recherche sur la Moelle épinière et l'Encéphale
Contact Pierre-François PRADAT, MD, PhD
Phone 01 42 17 62 05
Email pierre-francois.pradat@aphp.fr
Status Recruiting
Phase N/A
Start date January 2024
Completion date December 2026