Action video games and posterior parietal cortex neuromodulation improve both attention and reading in adults with developmental dyslexia
Poster Presentation: Sunday, May 18, 2025, 2:45 – 6:45 pm, Pavilion
Session: Development: Infants, children
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Simone Gori1, Sara Bertoni1, Sandro Franceschini2, Martina Mancarella, Giovanna Puccio2, Luca Ronconi, Gianluca Marsicano, Gianluca Campana2, Andrea Facoetti2; 1University of Bergamo, 2University of Padua
The impact of action video games on reading performance has been already demonstrated in individuals with and without neurodevelopmental disorders. The combination of action video games and posterior parietal cortex neuromodulation by a transcranial random noise stimulation could enhance brain plasticity, improving attentional control and reading skills also in adults with developmental dyslexia. In a double blind randomized controlled trial, 20 young adult nonaction video game players with developmental dyslexia were trained for 15 hours with action video games. Half of the participants were stimulated with bilateral transcranial random noise stimulation on the posterior parietal cortex during the action video game training, whereas the others were in the placebo (i.e. sham) condition. Word text reading, pseudowords decoding, and temporal attention (attentional blink), as well as electroencephalographic activity during the attentional blink, were measured before and after the training. The action video game plus transcranial random noise stimulation group showed temporal attention, word text reading, and pseudoword decoding enhancements and P300 amplitude brain potential changes. The enhancement in temporal attention performance was related with the efficiency in pseudoword decoding improvement. Our results demonstrate that the combination of action video game training with parietal neuromodulation increases the efficiency of visual attention deployment, probably reshaping goal-directed and stimulus-driven fronto-parietal attentional networks interplay in young adults with neurodevelopmental conditions.
Acknowledgements: This work was funded by MUR PRIN Project CUP: F53D23004610006 – ID MUR: 2022772HTJ_01 for S.G.