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PEOPLE@HES-SO - Verzeichnis der Mitarbeitenden und Kompetenzen

PEOPLE@HES-SO
Verzeichnis der Mitarbeitenden und Kompetenzen

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Badi Marion

Badi Marion

Professeur-e HES Assistant-e

Hauptkompetenzen

Medical Devices

Neurorehabilitation

Electrophysiology

Wearables

Brain and Body machine interfaces

Electronics and signal processing

Project Management

  • Kontakt

  • Lehre

  • Publikationen

Hauptvertrag

Professeur-e HES Assistant-e

Büro: ENP.23.N412

HES-SO Valais-Wallis - Haute Ecole d'Ingénierie
Rue de l'Industrie 23, 1950 Sion, CH
HEI - VS
Bereich
Technique et IT
Hauptstudiengang
Systèmes industriels
MSc HES-SO en Engineering - HES-SO Master
  • Smart sensing
BSc HES-SO en Systèmes industriels - HES-SO Valais-Wallis - Haute Ecole d'Ingénierie
  • Instrumentation et mesures
  • Régulation automatique
  • Systèmes dynamiques

2021

Cortical stimulation for somatosensory feedback: translation from nonhuman primates to clinical applications
Wissenschaftlicher Artikel

Badi Marion

Academic Press, 2021

Link zur Publikation

Bayesian optimization of peripheral intraneural stimulation protocols to evoke distal limb movements
Wissenschaftlicher Artikel

Badi Marion

Journal of neural engineering, 2021 , vol.  18, no  6

Link zur Publikation

Intrafascicular peripheral nerve stimulation produces fine functional hand movements in primates
Wissenschaftlicher Artikel

Badi Marion

Science Translational Medicine, 2021 , vol.  13, no  617

Link zur Publikation

Zusammenfassung:

Upper limb paralysis can develop after spinal cord injury or stroke. Electrical stimulation has been used to partially restore hand movements; however, current approaches using surface or intramuscular stimulation require challenging surgeries and/or have limited efficacy and are associated with important adverse effects. Here, Badi et al. developed an intraneural transverse intrafascicular multichannel electrode (TIME) system, composed of two electrodes for stimulation of the median and radial nerve, that was able to restore hand movements in primates. In a proof-of-principle experiment, one paralyzed monkey was able to perform hand movements using a brain-controlled TIME. Intrafascicular stimulation might be used for generating and allowing fine hand movements in paralyzed patients.

2020

Motor cortical dynamics are shaped by multiple distinct subspaces during naturalistic behavior
Wissenschaftlicher Artikel

Badi Marion,

BioRxiv, 2020

Link zur Publikation

2019

A versatile robotic platform for the design of natural, three-dimensional reaching and grasping tasks in monkeys
Wissenschaftlicher Artikel ArODES

B. Barra, Marion Badi, Matthew G. Perich, Sara Conti, Seyed Sina Mirrazavi Salehian, Fabien Moreillon, Andrew Bogaard, Sophie Wurth, Mélanie Kaeser, Philippe Passeraub, Tomislav Milekovic, Aude Billard, Silvestro Micera, Marco Capogrosso

Journal of Neural Engineering,  2020, vol. 17, no. 1, article no. 016004

Link zur Publikation

Zusammenfassung:

Objective. Translational studies on motor control and neurological disorders require detailed monitoring of sensorimotor components of natural limb movements in relevant animal models. However, available experimental tools do not provide a sufficiently rich repertoire of behavioral signals. Here, we developed a robotic platform that enables the monitoring of kinematics, interaction forces, and neurophysiological signals during user-defined upper limb tasks for monkeys. Approach. We configured the platform to position instrumented objects in a three-dimensional workspace and provide an interactive dynamic force-field. Main results. We show the relevance of our platform for fundamental and translational studies with three example applications. First, we study the kinematics of natural grasp in response to variable interaction forces. We then show simultaneous and independent encoding of kinematic and forces in single unit intra-cortical recordings from sensorimotor cortical areas. Lastly, we demonstrate the relevance of our platform to develop clinically relevant brain computer interfaces in a kinematically unconstrained motor task. Significance. Our versatile control structure does not depend on the specific robotic arm used and allows for the design and implementation of a variety of tasks that can support both fundamental and translational studies of motor control.

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