Neurofeedback-induced network plasticity in motor and default mode networks correlates with motor recovery after stroke

 With NO protocols produced, YOU DID NOTHING USEFUL; YOU'RE FIRED!

Not solving stroke is the absolute stupidity out there, this is just a lazy desription of something!  You're all fired! Your comeuppance/screaming when you are the 1 in 4 per WHO that has a stroke  will be soul satisfying. 

Not solving a well-known problem is inexcusable!

Neurofeedback-induced network plasticity in motor and default mode networks correlates with motor recovery after stroke

• Alix Lamouroux,
• Julie Coloigner,
• Pierre Maurel,
• Nicolas Farrugia,
• Simon Butet,
• Isabelle Bonan &
• Giulia Lioi 

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Abstract

Stroke often results in long-term motor impairments, necessitating innovative rehabilitation strategies. Neurofeedback (NF) has emerged as a promising tool to promote functional recovery after stroke by enabling patients to modulate targeted brain activity. In this study, we investigated how NF training influences whole-brain functional connectivity in chronic stroke patients using a data-driven, network-level approach. The analysis was conducted on the same dataset as a previously reported clinical study, focusing here on the effects of NF through the lens of functional connectivity. Thirty chronic stroke patients underwent either multimodal NF training (combining EEG-fMRI and EEG-only feedback targeting motor regions) or a matched motor imagery (MI) control condition without feedback. Pre- and post-intervention fMRI data were analyzed using Network-Based Statistics (NBS) to identify distributed changes in connectivity. Within-group analyses revealed significant reductions in connectivity within motor networks and the default mode network (DMN) in the NF group, while no significant effects were found in the MI control group. These connectivity reductions, particularly in contralesional motor network, were significantly correlated with motor function improvement. These findings highlight the relevance of network-level mechanisms in NF-induced plasticity and support the development of connectivity-informed NF strategies in stroke rehabilitation.