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1 s and imaging modalities (functional MRI and electrocorticography).
2  cortical resection guided by intraoperative electrocorticography.
3 nd prove as informative as unperturbed human electrocorticography.
4 onance imaging connectomics and motor cortex electrocorticography.
5 vasive local field potential recordings, and electrocorticography.
6 reo-electroencephalography or intraoperative electrocorticography.
7 ng model, and neural activity as measured by electrocorticography.
8 cy local field potentials (LFPs) recorded on electrocorticography.
9  preresection evaluations and intraoperative electrocorticography.
10 ate MEG data, and large-scale waves in human electrocorticography.
11 iduals were excluded because of poor-quality electrocorticography.
12 t these short EEEs are undetectable by scalp electrocorticography.
13 ivity using quantified behavioral rating and electrocorticography.
14                           Here, we leveraged electrocorticography, along with deep-learning and stati
15                                          The electrocorticography amplitude changes of high-gamma (70
16                                           On electrocorticography analysis, high-gamma augmentation i
17 del, a circadian probability, and a combined electrocorticography and circadian model.
18 recordings were feasible simultaneously with electrocorticography and depth electrode recordings.
19 mics across the human "grasp network," using electrocorticography and dimensionality reduction method
20 dband and arrhythmic, or scale-free, macaque electrocorticography and human magnetoencephalography ac
21 nstrates the highly scalable nature of micro-electrocorticography and its utility for next-generation
22  from low-frequency population recordings of electrocorticography and local field potentials to high-
23                        Simultaneous epidural-electrocorticography and scalp-electroencephalography re
24  clinical practice of observing epileptiform electrocorticography and simultaneous ictal behaviour, a
25 n = 57) at-home intracranial recordings from electrocorticography and subcortical electrodes using se
26 used simultaneous, colocalized recordings of electrocorticography and tissue oxygen pressure (p(ti)O(
27 enile swine using subdural electrode strips (electrocorticography) and intraparenchymal neuromonitori
28 on, direct cortical electrical interference, electrocorticography, and a variation of the technique o
29 such as stereotactic electroencephalography, electrocorticography, and deep brain stimulation have pr
30 linical trials using electroencephalography, electrocorticography, and intracortical electrodes to co
31                        With voltage imaging, electrocorticography, and laminarly resolved hippocampal
32                         From high-resolution electrocorticography arrays implanted on motor and senso
33 sured high gamma-range field potentials from electrocorticography arrays implanted over a large porti
34 pping however the implantation of large-area electrocorticography arrays is a highly invasive procedu
35                We compared the results of an electrocorticography-based logistic regression model, a
36                                     Using an electrocorticography brain-computer interface (BCI) in t
37   Finally, we present four human examples of electrocorticography capturing short (<2 s), stereotyped
38         This model was applied to continuous electrocorticography data by generating a time series of
39 ction by training machine-learning models on electrocorticography data from a 14-patient cohort that
40      We report on a quantitative analysis of electrocorticography data from a study that acquired con
41                                       Recent electrocorticography data have demonstrated excessive co
42                                      We used electrocorticography data obtained from frontal and temp
43                            We obtained three electrocorticography datasets from 13 patients, with ele
44 f multiple neurochemicals and direct-current electrocorticography (DC-ECoG).
45 hat the slow cortical potentials recorded by electrocorticography demonstrate a correlation structure
46 egulated glioma growth, human intraoperative electrocorticography demonstrates increased cortical exc
47 sholds, were determined against intracranial electrocorticography-determined seizure-onset region and
48  from soft robotics, to realize a large-area electrocorticography device that can change shape via in
49 acted to doxycycline exposure by spontaneous electrocorticography-documented nonconvulsive seizures,
50                                      Frontal electrocorticography [duration: 54 h (34, 66)] from subd
51  recorded cortical physiology using subdural electrocorticography during a spatial-attention task to
52 from hand sensorimotor cortex using subdural electrocorticography during a visually cued, incentivize
53      Using high-density EEG and intracranial electrocorticography during gradual induction of propofo
54  Spreading depolarisations were monitored by electrocorticography during intensive care and were clas
55             We recorded brain activity using electrocorticography during spontaneous, face-to-face co
56  seizures were assessed by 5-electrode video-electrocorticography (ECoG) 2 to 16 weeks postinjury.
57                     We used a combination of electrocorticography (ECoG) and electrical brain stimula
58 human participants (both males and females): electrocorticography (ECoG) and fMRI.
59 calp EEG and across much of the cortex using electrocorticography (ECOG) and localized transcortical
60 ecently developed modified 0-1 chaos test to electrocorticography (ECoG) and magnetoencephalography (
61                     We analysed simultaneous electrocorticography (ECoG) and neuronal recordings of 3
62 lyze neural activity from two patients using electrocorticography (ECoG) and stereo-electroencephalog
63 pproach based on intraoperative sensorimotor electrocorticography (ECoG) and subthalamic LFP to predi
64 ween electric field potentials measured with electrocorticography (ECoG) and the blood oxygen level-d
65 ctroencephalography (EEG) and intraoperative electrocorticography (ECoG) are routinely used in the ev
66        In this study subjects implanted with electrocorticography (ECoG) arrays for long-term epileps
67                               Intraoperative electrocorticography (ECoG) can be used to delineate the
68 from electrical stimulation and from resting electrocorticography (ECoG) correlations showed similar
69                                              Electrocorticography (ECoG) data can be used to estimate
70 arbitrary images and validated this model on electrocorticography (ECoG) data from human visual corte
71                                        Using electrocorticography (ECoG) data from participants liste
72                 Here, through an analysis of electrocorticography (ECoG) data, we identified a timesc
73 ionary timeseries features from single-trial electrocorticography (ECoG) data.
74 tory cortex and hippocampus as well as human electrocorticography (ECoG) data.
75 are tools supporting the analysis of complex Electrocorticography (ECoG) data.
76                                      Chronic electrocorticography (ECoG) demonstrated spontaneous chr
77           Seven subjects were implanted with electrocorticography (ECoG) electrodes and had multiple
78 reactivity relative to conventional clinical electrocorticography (ECoG) electrodes.
79 tection task, we provide evidence from human electrocorticography (ECoG) for an inverted-U brain-beha
80                        Purpose To develop an electrocorticography (ECoG) grid by using deposition of
81    Here we used simultaneous recordings from electrocorticography (ECoG) grids and high-density micro
82 recalibration, we used a 128-channel chronic electrocorticography (ECoG) implant in a paralyzed indiv
83  dynamics previously measured using fMRI and electrocorticography (ECoG) in human visual cortex with
84                                              Electrocorticography (ECoG) is becoming more prevalent d
85                               Although acute electrocorticography (ECoG) is routinely performed durin
86 the statistical deviation of an intracranial electrocorticography (ECoG) measure from the nonepilepti
87                                              Electrocorticography (ECoG) methodologically bridges bas
88            While invasive techniques such as electrocorticography (ECoG) offer high decoding accuracy
89 activity directly from the cortical surface, electrocorticography (ECoG) provides a powerful method t
90 asures obtained from extraoperative subdural electrocorticography (ECoG) recording could predict long
91 tudied focal epilepsy patients with invasive electrocorticography (ECoG) recordings and compared mult
92 derwent corpus callosal transection prior to electrocorticography (ECoG) recordings and ICH injury.
93  present a unique case study of high-density electrocorticography (ECoG) recordings from the cortical
94 loud with answers while we used high-density electrocorticography (ECoG) recordings to detect when th
95             We analyzed auditory and frontal electrocorticography (ECoG) signals in five common awake
96  on a fine spatiotemporal scale by recording electrocorticography (ECoG) signals measured directly fr
97                              High-resolution electrocorticography (ECoG) signals were recorded direct
98 n this paper, we present a portable wireless electrocorticography (ECoG) system.
99  in neuroimplantable technologies, including electrocorticography (ECoG) systems, multielectrode arra
100                                  Here we use electrocorticography (ECoG) to directly record neuronal
101       Here, we used a multimodal approach of electrocorticography (ECoG), high-resolution functional
102  studied sleep spindles in non-human primate electrocorticography (ECoG), human electroencephalogram
103 ation of slice physiology, fiber photometry, electrocorticography (ECoG), optogenetics, and behavior
104 Our study investigated the feasibility of an electrocorticography (ECoG)-based BCI system in an indiv
105 tudied with magnetoencephalography (MEG) and electrocorticography (ECoG).
106 le their brain responses were recorded using electrocorticography (ECoG).
107 as high-frequency local field potentials and electrocorticography (ECoG).
108 atic brain injury were monitored by invasive electrocorticography (ECoG; subdural electrodes) and non
109 itting diodes laminated on the back of micro-electrocorticography electrode grids.
110 ocal, recurrent and spontaneous epileptiform electrocorticography events (EEEs) that are never observ
111                          Recent intracranial electrocorticography findings associated processing of s
112 erent groups of human subjects: intracranial electrocorticography from 15 participants over a 38 year
113 coupling, we recorded local field potentials/electrocorticography from hand motor and premotor cortic
114      The analyses used long-term, continuous electrocorticography from nine subjects, recorded for an
115 o be critical for speech and language, using electrocorticography from sixteen participants during wo
116 ing functional magnetic resonance imaging or electrocorticography have produced inconsistent results.
117 siological effects of TMS using intracranial electrocorticography (iEEG) in neurosurgical patients.
118 gery, we use the novel technique of subdural electrocorticography in combination with subthalamic nuc
119 netetrazole-induced seizures was assessed by electrocorticography in head-restrained nonanesthetized
120                              This study uses electrocorticography in humans to assess how alpha- and
121  hypothesis using magnetoencephalography and electrocorticography in humans to record changes in neur
122                     Here, using intracranial electrocorticography in humans, we investigate whether a
123 tial and temporal resolution of intracranial electrocorticography in humans.
124 propagation of neural activity measured with electrocorticography in macaques.
125                                              Electrocorticography indices of cortical activation at t
126 gate these limitations, we set out to modify electrocorticography, intracerebral depth and intracorti
127                                              Electrocorticography is an established neural interfacin
128                                              Electrocorticography is commonly used for seizure mappin
129 al electrodes, similar ultra-flexible, micro-electrocorticography (mu-ECoG) arrays with platinum (Pt)
130 s and globus pallidus pars interna leads and electrocorticography paddles over the premotor cortex co
131 edictive of high-frequency field potentials (electrocorticography), providing a neuronal origin for m
132 went two-stage epilepsy surgery with chronic electrocorticography recording were studied.
133 ed 5-20 years) who underwent extra-operative electrocorticography recording.
134 on and the interaction between them, we used electrocorticography recordings from 16 neurosurgical su
135         Here we addressed these issues using electrocorticography recordings in epileptic patients.
136                                              Electrocorticography recordings indicated neural tuning
137                        During extraoperative electrocorticography recordings performed as part of the
138 or regression analysis of microelectrode and electrocorticography recordings revealed that tremor and
139 trices from 1-s time windows of intracranial electrocorticography recordings using the Graphical Leas
140                                          Pig electrocorticography recordings were essentially indisti
141 rrelation of MR findings with intraoperative electrocorticography results indicated that the MR study
142 ehavioural analysis performed blinded to the electrocorticography revealed that (i) brief EEEs lastin
143  model using 30 features computed from 400-s electrocorticography segments sampled at 0.1 Hz.
144 he surrounding tissue, as evidenced by lower electrocorticography signal power and c-Fos expression.
145 ral intermediate nucleus of the thalamus and electrocorticography signals from the ipsilateral sensor
146  stimulation and event-related modulation of electrocorticography signals.
147 Here we examined this issue in a large-scale electrocorticography study in patients performing a dema
148                                      In this electrocorticography study of human patients, we examine
149             Recently we showed with invasive electrocorticography that one robust measure of this syn
150                                  Here we use electrocorticography to address this uncertainty in thre
151    Here, we use human resting-state fMRI and electrocorticography to demonstrate that delta-band acti
152 rd steady-state visual evoked potentials via electrocorticography to directly assess the responses to
153                           Here, we leveraged electrocorticography to examine the temporal profile of
154 y in rats following status epilepticus, late electrocorticography to identify epileptic animals and p
155 ed temporal resolution of human intracranial electrocorticography to investigate the mechanisms by wh
156                     Here we use intracranial electrocorticography to precisely measure neural activit
157                         We used high-density electrocorticography to record neural population activit
158                                      We used electrocorticography to record neural signals across 100
159                        Here, we use subdural electrocorticography to sample both normal-appearing and
160        To address this, we utilized subdural electrocorticography to study cortical oscillations in t
161                 In this study, we used micro-electrocorticography (uECoG) recordings in two male monk
162                                              Electrocorticography was recorded in human participants
163 iovisual) stimuli with a button press, while electrocorticography was recorded over auditory and moto
164                           Using intracranial electrocorticography, we recently demonstrated that neur
165   Spectral content and bandwidth of vascular electrocorticography were comparable to those of recordi
166                      Subdural electrodes for electrocorticography were implanted.
167 the patients' epileptogenic zone, defined by electrocorticography, were resected neurosurgically from

 
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