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1                                              ECoG ClusterFlow supports the comparison of spatio-tempo
2                                              ECoG from 63 subdural electrodes (500 Hz/channel) chroni
3                                              ECoG HV-LV cyclicity was reduced 4-5 h prior to spontane
4                                              ECoG patterns changed 7 to 4 h prior to spontaneous onse
5                                              ECoG responses in visual cortex can be separated into tw
6                                              ECoG revealed a striking anatomical and functional corre
7                                              ECoG signals were purified by a denoising procedure of w
8                                              ECoG signals were recorded with a high-density 32-electr
9                                              ECoG spectral analysis utilized a mixed-effects analysis
10                                              ECoG spectral analysis utilized a mixed-effects analysis
11                                              ECoG was also recorded when subjects passively listened
12 imately 3 Torr, LD-CBF increased 48 +/- 10%, ECoG shifted to chiefly the HVLF state, SEF(90) decrease
13  show that network metrics computed from all ECoG channels capture the dynamics of the seizure onset
14                                     Although ECoG originally evolved as a replacement for single-unit
15 es interleukin (IL)-1alpha and IL-1beta, and ECoG spectral analysis.
16        Oscillations in STN unit activity and ECoG were common after this sustained firing reduction,
17 ways: across stimuli, the BOLD amplitude and ECoG broadband power were positively correlated, the BOL
18 counts for the relationship between BOLD and ECoG data from human visual cortex in V1, V2, and V3, wi
19 oppler flowmeter, fluorescent O(2) probe and ECoG electrodes, we measured laser Doppler CBF (LD-CBF),
20 fferences between electrical stimulation and ECoG that were partially related to the reciprocity of c
21 space; spatial summation in the asynchronous ECoG component is subadditive.
22 only IEDs and complete resection of baseline ECoG IEDs had an excellent outcome.
23 G and complete resection of IEDs on baseline ECoG are associated with better outcomes following stand
24 .64]; complete resection of IEDs on baseline ECoG, relative risk = 0.39 [95% CI, 0.20-0.76]).
25            No relationship was found between ECoG cycles and myometrial contracture cycles.
26  was coherence at approximately 1 Hz between ECoG and basal ganglia LFPs, with much of the coherent a
27 4 h ECoG patterns, (2) relationships between ECoG and myometrial contractility, and (3) 24 h ECoG pat
28 mol) into either MS or SI elicited bilateral ECoG and HEEG activation.
29 ces that generate the asynchronous broadband ECoG component.
30 nship: When the raw fluctuation in broadband ECoG activity is closer to the across-trial mean, hit ra
31 nction were compared with those generated by ECoG spectral analysis.
32 luate interregional functional connectivity, ECoG data from electrodes situated over specific cortica
33 projection approach to decode the continuous ECoG data stream spontaneously, predicting the occurrenc
34 be an attractive alternative to conventional ECoG grids with regard to mechanical properties, 3-T MR
35  and direct-current electrocorticography (DC-ECoG).
36  that functional responsiveness of different ECoG high-gamma sub-bands can discriminate cognitive tas
37                        Because naming during ECoG involved these muscles of articulation, the sensiti
38 LC neuronal activity increases cortical EEG (ECoG) and hippocampal EEG (HEEG) indices of arousal bila
39                          Electrocorticogram (ECoG) and myometrial electromyogram (EMG) were recorded
40  simultaneously acquired electrocorticogram (ECoG) in discrete brain states representative of global
41 r framework by analysing electrocorticogram (ECoG) recordings from patients who have undergone epilep
42 tecture as determined by electrocorticogram (ECoG) and electromyogram (EMG) activity over a 7-day sub
43  the ipsilateral frontal electrocorticogram (ECoG) of anaesthetized rats.
44 of STN units and frontal electrocorticogram (ECoG) to cortical stimulation in anaesthetized rats.
45 ave been recorded in the electrocorticogram (ECoG) of rats weeks and months after fluid percussion in
46 eorganization affect the electrocorticogram (ECoG) responses to various neurotransmitter agonists.
47 e obtained by averaging electrocorticograms (ECoGs) recorded from the perisylvian and extrasylvian ba
48                       Electrocorticographic (ECoG) arrays were placed on the subtemporal cortical sur
49                       Electrocorticographic (ECoG) recordings of brain activity were collected bilate
50                       Electrocorticographic (ECoG) spectral patterns obtained during language tasks f
51 ical tissue (t ), and electrocorticographic (ECoG) activity (high voltage low frequency, HVLF, versus
52 fMRI) BOLD signal and electrocorticographic (ECoG) field potential.
53 hniques on continuous electrocorticographic (ECoG) recordings (5.4 +/- 1.7 d per patient, mean +/- SD
54 amma-band (25-128 Hz) electrocorticographic (ECoG) activity -- a phenomenon involving large groups of
55 frequency analyses of electrocorticographic (ECoG) signals, we hypothesized that induced high-gamma-b
56 theories, we recorded electrocorticographic (ECoG) data from 15 human patients with intractable epile
57           We recorded electrocorticographic (ECoG) signals from individuals watching intact and scram
58           We recorded electrocorticographic (ECoG) signals in five clinical subjects during a visual-
59 ng arrays of subdural electrocorticographic (ECoG) electrodes in human patients performing simple mov
60              Subdural electrocorticographic (ECoG) recordings in patients undergoing epilepsy surgery
61  we recorded subdural electrocorticographic (ECoG) signals in five clinical subjects while they perfo
62 ationship between the electrocorticographic (ECoG) signal and the observed fMRI response (p < 10(-16)
63  Recent studies using electrocorticographic (ECoG) recordings in humans have shown that functional ac
64         Although acute electrocorticography (ECoG) is routinely performed during epilepsy surgery the
65  Purpose To develop an electrocorticography (ECoG) grid by using deposition of conductive nanoparticl
66  the feasibility of an electrocorticography (ECoG)-based BCI system in an individual with tetraplegia
67 l field potentials and electrocorticography (ECoG).
68 ephalography (MEG) and electrocorticography (ECoG).
69                Chronic electrocorticography (ECoG) demonstrated spontaneous chronic seizures that wer
70  conventional clinical electrocorticography (ECoG) electrodes.
71 he analysis of complex Electrocorticography (ECoG) data.
72 th males and females): electrocorticography (ECoG) and fMRI.
73 de evidence from human electrocorticography (ECoG) for an inverted-U brain-behavior relationship: Whe
74 EG) and intraoperative electrocorticography (ECoG) are routinely used in the evaluation of magnetic r
75         Intraoperative electrocorticography (ECoG) can be used to delineate the resection area in epi
76  monitored by invasive electrocorticography (ECoG; subdural electrodes) and noninvasive scalp EEG dur
77  used a combination of electrocorticography (ECoG) and electrical brain stimulation (EBS) in 10 human
78 multimodal approach of electrocorticography (ECoG), high-resolution functional magnetic resonance ima
79 ral scale by recording electrocorticography (ECoG) signals measured directly from subdural electrode
80        High-resolution electrocorticography (ECoG) signals were recorded directly from auditory corte
81 ation and from resting electrocorticography (ECoG) correlations showed similar spatial distributions
82 xtraoperative subdural electrocorticography (ECoG) recording could predict long-term seizure outcome.
83  the cortical surface, electrocorticography (ECoG) provides a powerful method to integrate spatial, t
84 l transection prior to electrocorticography (ECoG) recordings and ICH injury.
85 d by 5-electrode video-electrocorticography (ECoG) 2 to 16 weeks postinjury.
86 nt a portable wireless electrocorticography (ECoG) system.
87 tentials measured with electrocorticography (ECoG) and the blood oxygen level-dependent (BOLD) respon
88 ubjects implanted with electrocorticography (ECoG) arrays for long-term epilepsy monitoring were trai
89 ts were implanted with electrocorticography (ECoG) electrodes and had multiple opportunities to pract
90 ms and myoclonus at the time of epileptiform ECoG events.
91 ng on ECoG, we developed a model to estimate ECoG power generated by different firing patterns of the
92 .4-23.0 years), who underwent extraoperative ECoG recording prior to cortical resection for alleviati
93 slow ECoG activity (HV) and low-voltage fast ECoG activity (LV) were determined mathematically, and H
94 enty-four hour rhythms were present in fetal ECoG HV-LV cycles in the 3-5 days prior to spontaneous o
95 ild hypoxia has significant effects on fetal ECoG activity, heart rate and blood pressure.
96 t uses a high resolution 32-channel flexible ECoG electrodes array to collect electrical signals of b
97  experiments on a rat show that the flexible ECoG system can accurately record electrical signals of
98 dings reveal a striking convergence of fMRI, ECoG, and EBS, which together offer a rare causal link b
99     The results indicate that high-frequency ECoG reliably differentiates cortical areas associated w
100 -depth analysis of neural activity data from ECoG.
101 r using detection of grasping movements from ECoG to control a grasping prosthesis.
102 G and myometrial contractility, and (3) 24 h ECoG patterns at the spontaneous onset of labour.
103 n sheep fetuses (n = 9) to analyse: (1) 24 h ECoG patterns, (2) relationships between ECoG and myomet
104                             Twenty-four hour ECoG rhythms disappeared 1 day before the spontaneous on
105 derlying cortical population and studied how ECoG power varies with changes in firing rate versus the
106                                     However, ECoG high-gamma activity was much more sensitive to incr
107 d the detection of time of grasps from human ECoG recordings during a sequence of natural and continu
108  percentage of time spent and duration of HV ECoG increased, and percentage of time spent in LV decre
109 tcome may be modest in the presence of ictal ECoG and neuroimaging data.
110                                 Increases in ECoG gamma power (70-100 Hz) were observed in response t
111 ctral power of low-frequency oscillations in ECoG recordings of R6/2 mice is diminished while the spe
112 d to help localize the seizure onset zone in ECoG recordings.
113  sites at which LC efferents could influence ECoG and HEEG are the medial septum/vertical limb of the
114  neuroimaging findings, ictal and interictal ECoG measures were preoperatively obtained.
115 s generating IEDs on baseline intraoperative ECoG (P = .02) were associated with excellent outcomes i
116 pilepsy surgery with repeated intraoperative ECoG measurements.
117                          The stimulus-locked ECoG component sums contrast approximately linearly acro
118 al distinction using intracranially measured ECoG signals from the human visual cortex in 14 patients
119 tra-flexible, micro-electrocorticography (mu-ECoG) arrays with platinum (Pt) or glassy carbon (GC) el
120 ed a novel technique of analyzing multihuman ECoG recordings to identify cortical regions most releva
121 measured laser Doppler CBF (LD-CBF), tP(O2), ECoG and spectral edge frequency-90 (SEF(90)) in respons
122 nl), elicited robust bilateral activation of ECoG and HEEG.
123 ctrical stimulation and separate analysis of ECoG gamma changes during spontaneous inter-personal con
124 ClusterFlow, for the detailed exploration of ECoG data.
125  between correlative versus causal nature of ECoG and EBS, respectively, and provides important insig
126                        Passive recordings of ECoG gamma activity may be done simultaneously at all el
127 combined, the specificity and sensitivity of ECoG HGA with respect to ECS were 84% and 43%, respectiv
128 culation, the sensitivity and specificity of ECoG HGA were estimated relative to both ECS-induced imp
129 er with significant HGA), the specificity of ECoG HGA with respect to ECS was 78% for naming and 81%
130 e evaluation is needed to clarify the use of ECoG in tailoring temporal lobectomy.
131  the potential effects of neuronal firing on ECoG, we developed a model to estimate ECoG power genera
132 izure recurrence was presence of FRs in post-ECoG for all tailoring approaches.
133                The occurrence of FRs in post-ECoG, given FRs in pre-ECoG (+/-, +/+), predicted outcom
134 nd spikes in combined pre- and postresection ECoG predict surgical outcome in different tailoring app
135 50 Hz), and spikes in pre- and postresection ECoG sampled at 2,048 Hz in people with refractory focal
136 rrence of FRs in post-ECoG, given FRs in pre-ECoG (+/-, +/+), predicted outcome (hazard ratio, 3.13;
137 e of resected FRs, ripples, or spikes in pre-ECoG did not predict outcome.
138    Seven of 8 patients without spikes in pre-ECoG were seizure free.
139     In addition to rhythmic brain processes, ECoG potentials also reveal a spectrally broadband motif
140 terregional interactions from a word reading ECoG dataset.
141 ing mechanism using intracranial recordings (ECoG), in 12 patients undergoing epilepsy monitoring eng
142                    Across all brain regions, ECoG activity in the gamma and beta bands explains 22% o
143      This study indicates that event-related ECoG HGA during confrontation naming predicts ECS interf
144 ine with existing literature, face-selective ECoG responses were present in both left and right FG si
145   We identified FG sites with face-selective ECoG responses, and recorded perceptual reports during E
146  increased high-gamma power in the simulated ECoG data.
147 ns occurred during 65.9 days of simultaneous ECoG/EEG monitoring.
148  mechanisms at the spatial scale of a single ECoG electrode.
149                            High-voltage slow ECoG activity (HV) and low-voltage fast ECoG activity (L
150 tic resonance imaging-negative TLE, standard ECoG performed at the time of surgery, and a minimum fol
151                                     Subdural ECoG signals were recorded while each patient verbally n
152          High density scalp EEG and subdural ECoG recordings provide an opportunity to map the electr
153 erictal spike frequency measures on subdural ECoG recording may both be useful in predicting the long
154  a novel multi-scale visual analysis system, ECoG ClusterFlow, for the detailed exploration of ECoG d
155                 This study demonstrates that ECoG signals recorded from the sensorimotor cortex can b
156  In the fetus, we tested the hypothesis that ECoG pattern is associated closely with cerebral oxygena
157  and conceptual information, suggesting that ECoG recordings can reveal neural correlates of specific
158     Its favourable specificity suggests that ECoG HGA can be used to construct a preliminary function
159                                          The ECoG grid was explanted 28 days post-implantation with n
160                                          The ECoG reference electrode is identical to the ECoG record
161                                          The ECoG signals monitored along the strip revealed that SCD
162                                          The ECoG was analyzed 2, 5, and 9 weeks after intraperitonea
163 ver, rarely been considered in assessing the ECoG.
164  patient had no epileptiform activity in the ECoG and good outcome.
165 nticorrelations that are not apparent in the ECoG data, it enhances the neuronal-hemodynamic correspo
166 ithin the first 5 weeks of KA injection, the ECoG power shifted towards the lower-frequency range.
167 teral ventricle were used to investigate the ECoG frequency responses of intracerebroventricularly ap
168               In R6/2 mice, the power of the ECoG in lower frequencies (0.5-4 Hz) was diminished whil
169 accurately captures the main features of the ECoG time series; in the simulation, the stimulus-locked
170 be detected, located and treated through the ECoG system.
171 ECoG reference electrode is identical to the ECoG recording electrodes to significantly improve DC st
172  and clonidine were potentiated, whereas the ECoG effects mediated by GABAA and GABAB receptors remai
173                                        These ECoG events, which have many similarities to spike-wave-
174 e normoxic fetus, CBF was closely related to ECoG state, but this association was less evident during
175          To allow intraoperative topographic ECoG analysis, a computer program has been developed to
176 of theta and alpha band frequencies to total ECoG activity was significantly lower in the pre-existin
177      These observations suggest that the two ECoG components arise from different neural sources with
178                                        Using ECoG recordings from humans and LFP recordings from cats
179                                 The wireless ECoG system has low energy consumption and high brain sp
180                                         With ECoG, we found evidence of propagation of the temporal f
181                               Coherence with ECoG at 5-15 Hz was observed throughout STN, though cohe
182 s, LD-CBF and CMRO(2) correlated highly with ECoG state.
183               Focal cooling was induced with ECoG headsets engineered for calibrated passive heat dis

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