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Brain-machine interface based on deep learning to control asynchronously a lower-limb robotic exoskeleton: a case-of-study.

Laura FerreroPaula Soriano-SeguraJacobo NavarroOscar JonesMario OrtizEduardo IáñezJosé M AzorínJose-Luis Contreras-Vidal
Published in: Journal of neuroengineering and rehabilitation (2024)
This research represents an initial stride toward future calibration-free methods. Despite the efforts to diminish calibration time by leveraging data from other subjects, complete elimination proved unattainable. The study's discoveries hold notable significance for advancing calibration-free approaches, offering the promise of minimizing the need for training trials. Furthermore, the experimental evaluation protocol employed in this study aimed to replicate real-life scenarios, granting participants a higher degree of autonomy in decision-making regarding actions such as walking or stopping gait.
Keyphrases
  • deep learning
  • lower limb
  • machine learning
  • artificial intelligence
  • brain injury
  • white matter
  • current status
  • functional connectivity
  • subarachnoid hemorrhage