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1  carbamazepine did not alter the clinical or electromyographic abnormalities.
2 asymptomatic, with documented improvement in electromyographic abnormalities.
3 D (adjusted OR=11.53) and REM-related phasic electromyographic activities, prodromal markers includin
4 own decomposition method of tonic and phasic electromyographic activities, we demonstrate that phasic
5                                      Surface electromyographic activity (EMG) and force were recorded
6 ographic activity (EEG) over motor areas and electromyographic activity (EMG) from affected neck musc
7                                   EUS reflex electromyographic activity (EMG), innervation of pelvic
8 , mean skin and mean body temperature (Tb ), electromyographic activity (EMG), metabolic rate (M) and
9 correlated better with transversus abdominis electromyographic activity (r = 0.7 to 0.95) than did th
10     We measured the suppression of voluntary electromyographic activity (svEMG) elicited through low-
11 on, we measured the suppression of voluntary electromyographic activity (svEMG; a measurement thought
12                                       Evoked electromyographic activity and force were recorded in re
13  offending meal (changes in abdominothoracic electromyographic activity and girth) and clinical sympt
14                                              Electromyographic activity and joint rotation were measu
15  (F-waves), index finger abduction force and electromyographic activity as well as a hand dexterity t
16 these disorders and a more normal pattern of electromyographic activity during rest and movement.
17                Measurements of onset time of electromyographic activity during steady-state hypoxic h
18 sed the elevations in oxygen consumption and electromyographic activity elicited by cooling the POAH.
19  stimulation and recordings of intramuscular electromyographic activity from 16 arm muscles.
20 rons (309) were recorded simultaneously with electromyographic activity from arm and shoulder muscles
21 etection sites that can sample intramuscular electromyographic activity from the entire muscle cross-
22                                   Integrated electromyographic activity from the upper eyelid was rec
23 inal tract, by measuring reaction times from electromyographic activity in an intrinsic finger muscle
24 urethane and respiratory airflow, as well as electromyographic activity in respiratory muscles were r
25 isometric forces acting a hand joint and the electromyographic activity in the first dorsal interosse
26 the time from stimulus onset to the onset of electromyographic activity in the responding muscle.
27 tor, indomethacin, effectively inhibited the electromyographic activity induced by UCD.
28   A head-fixed computer transformed forelimb electromyographic activity into proportional subthreshol
29 the jaw movements and associated masticatory electromyographic activity occurring during gum chewing,
30 be coherent with oscillatory activity in the electromyographic activity of hand and forearm muscles.
31 he response was measured from changes in (i) electromyographic activity of hip and ankle muscles, (ii
32                                          The electromyographic activity of intercostal muscles couple
33 re was an unusual, overall increase in tonic electromyographic activity of the diaphragm, suggesting
34 re determined from the evoked changes in the electromyographic activity of the orbicularis oculi (OO)
35 ned responses (CRs) were determined from the electromyographic activity of the orbicularis oculi musc
36                                              Electromyographic activity of the superior, middle, and
37 rved and accompanied by sustained quadriceps electromyographic activity often lasting > 2s after stim
38 ed stimulus-triggered averaging (StTAing) of electromyographic activity to map the cortical represent
39 imum O(2) uptake were reduced whereas muscle electromyographic activity was increased in hypoxia comp
40 ed chewing cycles and associated masticatory electromyographic activity were sampled from each subjec
41 orelimbs, recorded cat walking mechanics and electromyographic activity, and computed patterns of mom
42  separated sites and between neural and limb electromyographic activity.
43 in POAH temperature, oxygen consumption, and electromyographic activity.
44                                Kinematic and electromyographic analyses of reaching movements demonst
45                                              Electromyographic analysis suggested that this behavior
46             Electrophysiological recordings (electromyographic and direct records form muscle nerves)
47                           We recorded facial electromyographic and electrocardiographic activity whil
48 um elevations of muscle enzymes, the classic electromyographic and muscle biopsy findings of inflamma
49 ges in coordination that can be taught using electromyographic biofeedback, achieving the therapeutic
50 een for constraint-induced movement therapy, electromyographic biofeedback, mental practice with moto
51 le contractions (AMC), where neurally driven electromyographic burst patterns (typically at 20-30 Hz)
52                             The detection of electromyographic changes compatible with RLN in clinica
53 e 'Q, R, S and T' waves of the post-stimulus electromyographic complex (PSEC)) occurred in full-wave
54                           Here we have found electromyographic correlates of internal model formation
55                           First, we recorded electromyographic data from vocal muscles in singing Ben
56  task-set model predicts, and behavioral and electromyographic data support, the hypothesis that unde
57 analysis integrating kinematic, kinetic, and electromyographic data to evaluate balance impairments i
58 hat three synergies accounted for 81% of the electromyographic data variation in each monkey.
59 l motor neurons was assessed by high-density electromyographic decomposition from the tibialis anteri
60 y 100% on the visual analogue scale, and the electromyographic discharges disappeared from the parasp
61 l pattern, (2) magnitude, and (3) latency of electromyographic (EMG) activation associated with HFLD-
62 ctions and external urethral sphincter (EUS) electromyographic (EMG) activation during urodynamic rec
63 he GG of 11 subjects (20-40 years) to record electromyographic (EMG) activities and pulmonary ventila
64                                              Electromyographic (EMG) activities of external oblique a
65                 Lumbosacral spinal units and electromyographic (EMG) activities of hindlimb muscles w
66 ine hydrochloride, may increase genioglossal electromyographic (EMG) activity (EMGgg) in a manner res
67                                              Electromyographic (EMG) activity and fetal and maternal
68                             As a result, the electromyographic (EMG) activity associated with digit m
69 cant increases in plantarflexion torques and electromyographic (EMG) activity from the soleus (SOL) a
70                                              Electromyographic (EMG) activity in the gastrocnemius mu
71       Stimulus-triggered averaging (StTA) of electromyographic (EMG) activity is a form of intracorti
72                                       Tongue electromyographic (EMG) activity is increased in patient
73 ume, transpulmonary pressure, compliance and electromyographic (EMG) activity of genioglossus (GG), h
74 iring rates and the percentage of CRs or the electromyographic (EMG) activity of the orbicularis ocul
75                                      Surface electromyographic (EMG) activity recorded from the left
76                                    Diaphragm electromyographic (EMG) activity was also recorded, toge
77                                              Electromyographic (EMG) activity was recorded from selec
78 associated with equivalent resting levels of electromyographic (EMG) activity.
79 and mean absolute plantarflexion errors) and electromyographic (EMG) activity.
80 lation of muscle output (i.e. correlation of electromyographic (EMG) amplitudes) implies that muscles
81                                              Electromyographic (EMG) analysis indicating denervation
82 ngle oral dose of 50 and 100 mg of S44819 on electromyographic (EMG) and electroencephalographic (EEG
83                                              Electromyographic (EMG) and electroencephalographic (EEG
84                                              Electromyographic (EMG) BDs of anterior hindlimb muscles
85  stimulus (US) can greatly enhance the early electromyographic (EMG) component (R1) of the rat eyebli
86 quantified using the latency and duration of electromyographic (EMG) data and the center of pressure
87                   The slope of predicted vs. electromyographic (EMG) data for an individual was compa
88 limb, the wiping limb, was implanted with 12 electromyographic (EMG) electrodes and attached to a rob
89 anted with electroencephalographic (EEG) and electromyographic (EMG) electrodes for the recording of
90 s on the left common peroneal nerve and with electromyographic (EMG) electrodes on the left tibialis
91  agonist, into MS alter behavioral, EEG, and electromyographic (EMG) measures of sleep and waking in
92                                              Electromyographic (EMG) measures were made of the eyebli
93 oth simple RT and self-paced movements after electromyographic (EMG) offset, there was a first period
94               We first showed that diaphragm electromyographic (EMG) potentials could be evoked with
95                                              Electromyographic (EMG) recordings during these movement
96             Responses to CRD are measured as electromyographic (EMG) recordings of the abdominal musc
97 ed intracortical microstimulation (ICMS) and electromyographic (EMG) recordings to test whether neuro
98 e placed within the vagina or anal canal, or electromyographic (EMG) sensors in the same locations, t
99 s) in muscle coordination are extracted from electromyographic (EMG) signal envelopes.
100 its, or 'synergies', resulting in correlated electromyographic (EMG) signals among muscles.
101 mands to generate motor outputs by analyzing electromyographic (EMG) signals collected from 13 hindli
102                     We found that the use of electromyographic (EMG) signals from natively innervated
103 unit potential (MUP) morphology derived from electromyographic (EMG) signals in patients with OSA ver
104 imally invasively) from the decomposition of electromyographic (EMG) signals into motor unit firing a
105  measured along with force, joint angle, and electromyographic (EMG) signals of the performing muscle
106                                              Electromyographic (EMG) signals were recorded using intr
107 ), handgrip force, and finger flexor surface electromyographic (EMG) signals.
108 sist length change--leads to the result that electromyographic (EMG) synergies will arise without the
109                                Using surface electromyographic (EMG) techniques, we compared the VO2
110 is hypothesis, utilizing kinematic, kinetic, electromyographic (EMG), and metabolic data taken from f
111                              We measured the electromyographic (EMG), kinematic and kinetic patterns
112  palatini (TP) muscle activity (% of maximum electromyographic [EMG] activity) in 10 OSA patients and
113       A total of 21 of 22 (95%) patients had electromyographic evidence of chronic partial denervatio
114                      Incorporation of needle electromyographic evidence of lower motor neuron degener
115       All patients had distinct clinical and electromyographic evidence of MG (MGFA clinical classifi
116 ly in which 2 of 7 siblings had clinical and electromyographic features consistent with AChR deficien
117 ve a combination of clinical, laboratory, or electromyographic features of IIM.
118 ted with a higher risk for the diagnosis and electromyographic features of RBD, diagnosis of PD/demen
119 es, visible facial myokymia, and distinctive electromyographic features suggestive of motor nerve ins
120 ossible to reconcile discrepant anatomic and electromyographic findings in patients with OSA, to expl
121 TATEMENT With a new noninvasive high-density electromyographic framework, we show the activity of mot
122 otulinum toxin or placebo was injected under electromyographic guidance into each splenius capitis mu
123                                The clinical, electromyographic, histopathological, and molecular find
124 by timing peripheral stimulation relative to electromyographic markers of muscle activation are as ef
125  phenomenon quantitatively, using the phasic electromyographic metric (PEM), in relation to clinical
126 a cava, all patients underwent diaphragmatic electromyographic monitoring using surface electrodes.
127 ot correlate with the burden of clinical and electromyographic motor neuron dysfunction.
128  authors examined the standard deviations of electromyographic onset latencies from the bilateral int
129 central and midline regions before and after electromyographic onset.
130                                              Electromyographic phrenic nerve monitoring using the sur
131                                        Using electromyographic procedures employed in people to help
132 ratory muscle activity were obtained by wire electromyographic recording of the activity of the trans
133 instrumented for electroencephalographic and electromyographic recording, to locally manipulate neuro
134 ulation-induced artefacts in vastus medialis electromyographic recordings elicited by sinusoidal (4,
135 viors by performing paired single-neuron and electromyographic recordings in awake rats.
136                                        Using electromyographic recordings of both abdominal and colon
137 performing electroencephalographic (EEG) and electromyographic recordings of C57BL/6J mice receiving
138                                              Electromyographic recordings of neck and hand muscles du
139 e response was assessed bilaterally by using electromyographic recordings of orbicularis oculi.
140 d to simulate joint forces in real time from electromyographic recordings of the wrist muscles.
141                                              Electromyographic recordings revealed altered muscle act
142                                 We first use electromyographic recordings to extend previous findings
143                                              Electromyographic recordings were made from the orbicula
144                                              Electromyographic recordings were made from the SA and T
145                                Intramuscular electromyographic recordings were obtained during 10% an
146                    We used high-speed video, electromyographic recordings, and a new digital inertial
147                                 First, using electromyographic recordings, we demonstrate that volunt
148 reflexia and spasticity were monitored using electromyographic recordings.
149 oustic correlate of the Piper rhythm seen in electromyographic records of muscle activity.
150 ning was specific and showed an anticipatory electromyographic response to the aversive conditioning
151 al magnetic stimulation-evoked kinematic and electromyographic responses in the d-amphetamine and in
152                                 Visceromotor electromyographic responses increased within 2 minutes a
153                                              Electromyographic responses recorded from pharynx and ha
154                                              Electromyographic responses recorded in soleus (standing
155 graphic, spinal (ChR2 evoked potential), and electromyographic responses revealed a mismatch between
156                                              Electromyographic responses to gastric balloon distentio
157 rawal thresholds and increased flexor muscle electromyographic responses to graded suprathreshold hin
158                        Pharyngeal and thenar electromyographic responses to magnetic stimulation of m
159 dysphagia, mylohyoid, pharyngeal, and thenar electromyographic responses to stimulation of affected a
160 e assessed using electroencephalographic and electromyographic responses to transcranial magnetic sti
161                                              Electromyographic responses were recorded after suprathr
162                       Kinematic, kinetic and electromyographic responses were recorded to a range of
163 ICMS) and recording of evoked jaw and tongue electromyographic responses were used to define jaw and
164 l magnetic stimulation of induced pharyngeal electromyographic responses, recorded from a swallowed i
165  in transcranial magnetic stimulation-evoked electromyographic responses.
166 rading their abdominal withdrawal reflex and electromyographic responses.
167 al involvement) on the basis of MR findings, electromyographic results, and clinical data.
168 tion (ie, regarding atrophy, pain, weakness, electromyographic results, neck and spine history, traum
169 ship between spatial oscillations in surface electromyographic (sEMG) activity and trunk-extension to
170                                      Surface electromyographic signal from flexor digitorum superfici
171 cle peak intervals were obtained through the electromyographic signal of the gastrocnemius to assess
172 rent algorithms for processing and filtering electromyographic signal, many monitors are affected by
173 ed local field potentials (LFPs) and surface electromyographic signals (EMGs) from the extensor and f
174 f perceived pain intensity and the recording electromyographic signals during electrical painful stim
175 nd transgenic Thy1::ChR2-EYFP mice to record electromyographic signals from muscles in anesthetized a
176                  The amplitude and timing of electromyographic signals from the leg muscles scaled to
177 ric contractions by decomposing high-density electromyographic signals into the activity of individua
178 onal (direct) control methods, which rely on electromyographic signals produced from a limited set of
179                                              Electromyographic signals were collected and analyzed to
180             Intramuscular (I.M.) and surface electromyographic signals were recorded from the vastus
181 r 60 s) and minimal stimulation artefacts on electromyographic signals.
182                              Polygraphic EEG-electromyographic studies demonstrated a cortical origin
183                             The single-fiber electromyographic studies were also consistent with a pr
184     We assessed our patients by clinical and electromyographic studies, by intercostal muscle biopsie
185     One patient had CK level of 9024 U/L and electromyographic study showed active myopathic involvem

 
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