Organic electronics for high-resolution electrocorticography of the human

Fig. 1 NeuroGrid structure and characterization for intraoperative recording in human subjects. Dion Khodagholy

Fig. 2 Intraoperative NeuroGrid recordings reveal brain state dynamics in anesthetized and awake human

Fig. 3 Spatial distribution of localized LFP and neural spiking activity across the NeuroGrid.

Fig. 4 Coherence of neural activity patterns at millimeter and micrometer scales in anesthetized

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>Organic electronics for high-resolution electrocorticography of the human brain by Dion Khodagholy, Jennifer N. Organic electronics for high-resolution electrocorticography of the human brain by Dion Khodagholy, Jennifer N. Gelinas, Zifang Zhao, Malcolm Yeh, Michael Long, Jeremy D. Greenlee, Werner Doyle, Orrin Devinsky, and György Buzsáki Science Volume 2(11):e1601027 November 9, 2016 Published by AAAS

>Fig. 1 NeuroGrid structure and characterization for intraoperative recording in human subjects. Dion Khodagholy Fig. 1 NeuroGrid structure and characterization for intraoperative recording in human subjects. Dion Khodagholy et al. Sci Adv 2016;2:e1601027 Published by AAAS

>Fig. 2 Intraoperative NeuroGrid recordings reveal brain state dynamics in anesthetized and awake human Fig. 2 Intraoperative NeuroGrid recordings reveal brain state dynamics in anesthetized and awake human subjects. Dion Khodagholy et al. Sci Adv 2016;2:e1601027 Published by AAAS

>Fig. 3 Spatial distribution of localized LFP and neural spiking activity across the NeuroGrid. Fig. 3 Spatial distribution of localized LFP and neural spiking activity across the NeuroGrid. Dion Khodagholy et al. Sci Adv 2016;2:e1601027 Published by AAAS

>Fig. 4 Coherence of neural activity patterns at millimeter and micrometer scales in anesthetized Fig. 4 Coherence of neural activity patterns at millimeter and micrometer scales in anesthetized and awake human subjects. Dion Khodagholy et al. Sci Adv 2016;2:e1601027 Published by AAAS