TY  - JOUR
AU  - Paulk, Angelique C
AU  - Yang, Jimmy C
AU  - Cleary, Daniel R
AU  - Soper, Daniel J
AU  - Halgren, Milan
AU  - O’Donnell, Alexandra R
AU  - Lee, Sang Heon
AU  - Ganji, Mehran
AU  - Ro, Yun Goo
AU  - Oh, Hongseok
AU  - Hossain, Lorraine
AU  - Lee, Jihwan
AU  - Tchoe, Youngbin
AU  - Rogers, Nicholas
AU  - Kiliç, Kivilcim
AU  - Ryu, Sang Baek
AU  - Lee, Seung Woo
AU  - Hermiz, John
AU  - Gilja, Vikash
AU  - Ulbert, István
AU  - Fabó, Dániel
AU  - Thesen, Thomas
AU  - Doyle, Werner K
AU  - Devinsky, Orrin
AU  - Madsen, Joseph R
AU  - Schomer, Donald L
AU  - Eskandar, Emad N
AU  - Lee, Jong Woo
AU  - Maus, Douglas
AU  - Devor, Anna
AU  - Fried, Shelley I
AU  - Jones, Pamela S
AU  - Nahed, Brian V
AU  - Ben-Haim, Sharona
AU  - Bick, Sarah K
AU  - Richardson, Robert Mark
AU  - Raslan, Ahmed M
AU  - Siler, Dominic A
AU  - Cahill, Daniel P
AU  - Williams, Ziv M
AU  - Cosgrove, G Rees
AU  - Dayeh, Shadi A
AU  - Cash, Sydney S
TI  - Microscale Physiological Events on the Human Cortical Surface
JF  - CEREBRAL CORTEX
J2  - CEREB CORTEX
VL  - 31
PY  - 2021
IS  - 8
SP  - 3678
EP  - 3700
PG  - 23
SN  - 1047-3211
DO  - 10.1093/cercor/bhab040
UR  - https://m2.mtmt.hu/api/publication/31933662
ID  - 31933662
N1  - Funding Agency and Grant Number: Defense Advanced Research Projects Agency [W911NF14-2-0045]; National Institutes of Health [1F32MH120886]; ECOR; Tiny Blue Dot Foundation; NSF-CAREER [1351980]; NSF CMMI [1728497]; NSF-ECCS EAGER [1743694]; BRAIN Initiative [R01MH111359]; NIH [NEI R01-EY029022/EY023651, NINDS U01-NS099700, DP2-EB029757]; Dept. of Defense/CDMRP [VR170089]; Hungarian Brain Research Program [2017-1.2.1-NKP-2017-00002]; U.S. Army Research Office [W911NF14-2-0045];  [K24-NS088568]
            Funding text: The U.S. Army Research Office and Defense Advanced Research Projects Agency (Cooperative Agreement Number W911NF14-2-0045); National Institutes of Health (Award Number 1F32MH120886) to D.R.C.; ECOR and K24-NS088568 to S.S.C.; Tiny Blue Dot Foundation (to S.S.C. and A.C.P.); and by an NSF-CAREER (award #1351980), NSF CMMI (award #1728497), an NSF-ECCS EAGER (award #1743694), and an NIH (award #DP2-EB029757) to S.A.D.; BRAIN Initiative (R01MH111359 to A.D.); and NIH (NEI R01-EY029022/EY023651 and NINDS U01-NS099700); the Dept. of Defense/CDMRP (VR170089) to S.B.R., S.W.L., and S.I.F.; the Hungarian Brain Research Program(2017-1.2.1-NKP-2017-00002) to I.U.
LA  - English
DB  - MTMT
ER  - 

TY  - JOUR
AU  - Keller, CJ
AU  - Honey, CJ
AU  - Entz, László
AU  - Bickel, S
AU  - Groppe, DM
AU  - Tóth, Emília
AU  - Ulbert, István
AU  - Lado, FA
AU  - Mehta, AD
TI  - Corticocortical evoked potentials reveal projectors and integrators in human brain networks.
JF  - JOURNAL OF NEUROSCIENCE
J2  - J NEUROSCI
VL  - 34
PY  - 2014
IS  - 27
SP  - 9152
EP  - 9163
PG  - 12
SN  - 0270-6474
DO  - 10.1523/JNEUROSCI.4289-13.2014
UR  - https://m2.mtmt.hu/api/publication/2716516
ID  - 2716516
N1  - Megjegyzés-24082983
N1 Funding Details: F31NS080357-01, NINDS, National Institute of Neurological Disorders and Stroke
N1 Funding Details: T32-GM007288, NINDS, National Institute of Neurological Disorders and Stroke
AB  - The cerebral cortex is composed of subregions whose 
functional specialization is largely determined by their 
incoming and outgoing connections with each other. In the 
present study, we asked which cortical regions can exert the 
greatest influence over other regions and the cortical 
network as a whole. Previous research on this question has 
relied on coarse anatomy (mapping large fiber pathways) or 
functional connectivity (mapping inter-regional statistical 
dependencies in ongoing activity). Here we combined direct 
electrical stimulation with recordings from the cortical 
surface to provide a novel insight into directed, inter-
regional influence within the cerebral cortex of awake 
humans. These networks of directed interaction were 
reproducible across strength thresholds and across subjects. 
Directed network properties included (1) a decrease in the 
reciprocity of connections with distance; (2) major projector 
nodes (sources of influence) were found in peri-Rolandic 
cortex and posterior, basal and polar regions of the temporal 
lobe; and (3) major receiver nodes (receivers of influence) 
were found in anterolateral frontal, superior parietal, and 
superior temporal regions. Connectivity maps derived from 
electrical stimulation and from resting electrocorticography 
(ECoG) correlations showed similar spatial distributions for 
the same source node. However, higher-level network topology 
analysis revealed differences between electrical stimulation 
and ECoG that were partially related to the reciprocity of 
connections. Together, these findings inform our 
understanding of large-scale corticocortical influence as 
well as the interpretation of functional connectivity 
networks.
LA  - English
DB  - MTMT
ER  -