ライフサイエンスコーパス: rhythm

1 had sinus rhythm, and 308 (13%) had "other" rhythm.

2 nd the urinary 6-sulphatoxymelatonin (aMT6s) rhythm.

3 in T. brucei are expressed with a circadian rhythm.

4 n of songs but failed to detect the proposed rhythm.

5 d locomotor activity and distorted circadian rhythm.

6 onduction system, which orchestrates cardiac rhythm.

7 phase delays of circadian locomotor activity rhythm.

8 leus (STN) is widely viewed as a pro-kinetic rhythm.

9 ired for the production of a fluid locomotor rhythm.

10 ted to these active periods of the slow wave rhythm.

11 t example of this phenomenon involving sound rhythm.

12 on discharge and transiently accelerated the rhythm.

13 ch as neuronal bursting activity and cardiac rhythm.

14 of cardiac channel genes to maintain cardiac rhythm.

15 imate pathway, the cell cycle, and circadian rhythm.

16 perturbed the phasing of the locomotor-like rhythm.

17 with left-sided heart disease-TR with sinus rhythm.

18 transients and the tendency to disturb heart rhythm.

19 eir oscillations in phase with the day-night rhythm.

20 mus, timed according to the patient's tremor rhythm.

21 imary motor cortical neuron to the LFP theta rhythm.

22 etter prognosis, but only for those in sinus rhythm.

23 and with the power change of the high-gamma rhythm.

24 cognitive processes supported by those brain rhythms.

25 T-1 in the regulation of metabolic circadian rhythms.

26 at reset the phase of low-frequency cortical rhythms.

27 ages a host of physiological and behavioural rhythms.

28 E15.5 expressed sustained, synchronous daily rhythms.

29 ion flow, firing while phase-locked to theta rhythms.

30 tresses must allow for underlying biological rhythms.

31 omedin U ortholog, also regulates behavioral rhythms.

32 put during lumbar afferent-induced locomotor rhythms.

33 ion-contraction coupling and normal electric rhythms.

34 ects the CR induced changes in the circadian rhythms.

35 n of Cav3 T-type channels in heart and brain rhythms.

36 relates specifically to mood and biological rhythms.

37 insulin action is closely tied to circadian rhythms.

38 was used to test associations with circadian rhythms.

39 fect the circadian oscillator that generates rhythms.

40 involved in photic entrainment of circadian rhythms.

41 ely generalizable to other brain regions and rhythms.

42 toreceptors regulated by light and circadian rhythms.

43 d and IGF-1 signaling demonstrates circadian rhythms.

44 restricted knockdown of Rnb impair locomotor rhythms.

45 components for timing endogenous biological rhythms.

46 transport abolishes RBC electrophysiological rhythms.

47 ster clock and multiple peripheral circadian rhythms.

48 ted inertial currents, rather than day-night rhythms.

49 the entire space of two- and three-interval rhythms.

50 ve rhythmic transcription required for overt rhythms.

51 cities to infer the dynamics of urban daily rhythms.

52 epend on the contributions of distinct brain rhythms.

53 les and coexists with synchronized ultradian rhythms.

54 l-parietal structures and expressed in gamma rhythms.

55 d the role of miRNAs in Drosophila circadian rhythms.

56 r the existence of Drosophila courtship song rhythms.

57 ts with AF compared with patients with sinus rhythm: 10.6+/-5.5 versus 4.7+/-3.5 g, P<0.001.

58 timation within the lower range of the theta rhythm (3-6 Hz).

59 The theta rhythm-a slow (6-12 Hz) oscillatory component of the loc

60 However, region-specific changes in rhythms across multiple, interdependent, nested frequenc

61 cations for the use and interpretation of mu rhythm activity.SIGNIFICANCE STATEMENT The central alpha

62 ing to AF duration: PsAF presenting in sinus rhythm (AF induced), PsAF <12 months, and PsAF >12 month

63 with left-sided heart disease-TR with sinus rhythm (all P<0.05).

64 When comparing groups at the third rhythm analysis, the right ventricle was larger for hypo

65 nt was right ventricle diameter at the third rhythm analysis: 32 mm (95% CI, 29-36) for pulmonary emb

66 ining the circadian pacemaker to its 24.84-h rhythm and altering the pacemaker's phase-relationship t

67 nternal and external circumstances; both the rhythm and neuromodulatory responses of breathing are co

68 Interrupting the VF abolished the rhythm and replaced it by slow unstable bursting.

69 ential roles for regulation of the circadian rhythm and reproduction of the CNNM family have been hig

70 lness associated with dysregulated circadian rhythms and a high incidence of suicidality.

71 n-1 in the regulation of metabolic circadian rhythms and adipose core clock genes in mice and charact

72 A phase overlap between rhythms and cycles suggests a mechanical stimulation of

73 mice displayed impaired circadian behavioral rhythms and decreased locomotor activity.

74 lorophyll fluorescence, to measure circadian rhythms and demonstrated that the technique works in a r

75 n the timing of experimentally induced theta rhythms and episodic memory formation in humans.

76 coupling supports the organization of brain rhythms and is present during a range of cognitive funct

77 lays important roles in regulating circadian rhythms and neuronal maintenance in the adult nervous sy

78 clock-is essential in generating physiologic rhythms and orchestrating synchrony among circadian cloc

79 sion in the amygdala and disrupted circadian rhythms and rhythmic peaks of anxiety in BD suggest a di

80 strointestinal microbiota exhibits circadian rhythms and that the timing of food consumption can affe

81 forming visual processes including circadian rhythms and the pupillary light reflex.

82 ing of the neurophysiological basis of motor rhythms and their behavioral relevance and offer the pos

83 ata, 382 (17%) had AF, 1,602 (70%) had sinus rhythm, and 308 (13%) had "other" rhythm.

84 ew York Heart Association class II-IV, sinus rhythm, and heart rate >/=70 beats per minute) and non-S

85 Serotonin inhibits the cholinergic rhythm, and increases ciliary beat frequency.

86 women, had lower rates of initial shockable rhythm, and less frequently experienced OHCA in a public

87 rt time to nearest PCI center, initial heart rhythm, and prehospital ECG information was performed.

88 ch areas such as cancer, virology, circadian rhythms, and behavioural neuroscience.

89 gthened period and instability of behavioral rhythms, and elevated metabolic rate.

90 s were more likely to present with shockable rhythms, and survival from cardiac arrest was 2.5-fold h

91 ast research on responses and entrainment to rhythms, and their effects on arousal and mood.

92 Gamma power was modulated by slower theta rhythms, and this theta modulation increased with threat

93 ios, but they suggest that priors on musical rhythm are substantially modulated by experience and may

94 Circadian rhythms are 24-h rhythms in physiology and behaviour gen

95 f techniques, we have examined how circadian rhythms are affected in higher order pif mutants and the

96 Sleep and circadian rhythms are affected in many of these conditions.

97 Circadian rhythms are biological oscillations that schedule daily

98 ocessing if top-down and bottom-up mediating rhythms are coupled via cross-frequency interaction.

99 IGF-1 rhythms are disrupted in Cry-deficient mice, and IGF-1 l

100 Given that prolonged disruptions of normal rhythms are highly detrimental to health, deeper knowled

101 r, why certain electroencephalographic (EEG) rhythms are linked to memory consolidation is poorly und

102 CLE (CLK/CYC), and CATAC-mediated expression rhythms are lost in the presence of null mutations in ei

103 Thus, interventions that improve circadian rhythms are prospective entry points to mitigate cardiom

104 Circadian and seasonal rhythms are seen in many species, modulate several aspec

105 t example of a CPG in which precise premotor rhythms are tuned by motor neuron activity.SIGNIFICANCE

106 rdia (CPVT) is a condition of abnormal heart rhythm (arrhythmia), induced by physical activity or str

107 enabled simultaneous evaluation of ultradian rhythms as well as fractal organization according to six

108 at allow organisms to adapt to environmental rhythms as well as temporally organize biological functi

109 annel blocker QX-314 also disrupted premotor rhythms, as did blockade of nicotinic synapses in the mo

110 we describe exogenous cycles and endogenous rhythms associated with DVM of the ecologically importan

111 red by representatives of the European Heart Rhythm Association, Heart Rhythm Society, Asia-Pacific H

112 t (OHCA) commonly presents with nonshockable rhythms (asystole and pulseless electric activity).

113 r echocardiography demonstrated normal sinus rhythm at 73 beats per minute.

114 n episodes alternating with periods of sinus rhythm at the time of implantation had a better survival

115 eas allatotropin (AT) only delayed locomotor rhythms at the early night.

116 s with schizophrenia had dysfunctional delta rhythms between 1-4 Hz in the medial frontal cortex.

117 ferences were observed in sleep timing/aMT6s rhythms between PER3 (5) /PER3 (5) and PER3 (4) /PER3 (4

118 FC) synchronized theta ( approximately 6 Hz) rhythms between these regions in a frequency and spatial

119 ry visual cortex exhibits two types of gamma rhythm: broadband activity in the 30-90 Hz range and a n

120 me were independent of age, sex, and initial rhythm but higher for out-of-hospital cardiac arrest tha

121 f and under which conditions transcriptional rhythms cause rhythms in particular metabolites and meta

122 ystems and the impact of sleep and circadian rhythms changes on addiction vulnerability in adolescenc

123 ere evaluated in Mayo Clinic's Genetic Heart Rhythm Clinic from January 1999 to December 2015.

124 Women with AF are less likely to receive rhythm control antiarrhythmic drug therapy, electric car

125 Rhythm control is challenging in patients with extended

126 rval, 1.97-2.19 for score of 4 versus 0) and rhythm control strategy (odds ratio, 1.34; 95% confidenc

127 ologies have reported modest benefits with a rhythm control strategy.

128 e a mortality or stroke reduction benefit of rhythm control with catheter ablation over a rate contro

129 stroke prevention therapy, rate control, and rhythm control).

130 on with established pillars of rate control, rhythm control, and anticoagulation therapy.

131 Of 2,292 patients with baseline rhythm data, 382 (17%) had AF, 1,602 (70%) had sinus rhy

132 dently predicts that context-dependent gamma rhythms depend critically on SOM interneurons.

133 This lumbar rhythm depended on continuity of the ventral funiculus (

134 use long QT syndrome type 2 (LQTS2), a heart rhythm disorder associated with sudden cardiac death.

135 rnative to electrotherapy for treating heart rhythm disorders, but its applicability for terminating

136 nsion, Imaging, Metabolic & Lipid Disorders, Rhythm Disorders, Valvular Heart Disease, and Vascular M

137 nly used therapies for patients with cardiac rhythm disorders.

138 Sleep and circadian rhythm disruption (SCRD) is a ubiquitous feature in toda

139 d contributes to the disease risk, circadian rhythm disruption is emerging as a new risk factor for C

140 o, which contributes to a dampened circadian rhythm during ageing.

141 Light pulses delay locomotor activity rhythm during the early night and advance it during the

142 se-advances of the PER2::LUC bioluminescence rhythm during the subjective day and phase-delays in the

143 distal C-terminal residues exhibited robust rhythms during the first day of constant darkness (DD1),

144 different models of PIE, highlighting theta rhythm dynamics as a promising biomarker for epilepsy.

145 Moreover, variables pertaining to circadian rhythm entrainment were activated more strongly by light

146 may expand the computational power of gamma rhythms for optimizing the synthesis and storage of visu

147 correlates significantly with low-frequency rhythms from electrocorticographic recordings across a 1

148 ring the SAED protocol for initial shockable rhythms (from 58.9% to 69.2%; P<0.001), there was no dif

149 -LNvs, the master pacemaker of the locomotor rhythms, from other clock neuron subtypes.

150 our findings establish that a 6-12 Hz theta rhythm, generated by the rodent MFC, is synchronized to

151 y important for sensory processing and motor rhythm generation in the nervous system.

152 ex (preBotC), a critical site of inspiratory rhythm generation, release a gliotransmitter that acts v

153 ger complex (preBotC), the primary breathing rhythm generator, which regulates the balance between ca

154 model of spinal circuits consisting of four rhythm generators coupled by commissural interneurons (C

155 Circadian rhythms govern multiple aspects of animal metabolism.

156 better prognosis only for patients in sinus rhythm (HR: 1.16 per 10 beats/min increase, 95% CI: 1.11

157 of a network of genes involved in circadian rhythm in both tissues and downregulation of the renin-a

158 t Medium on Coronary Opacification and Heart Rhythm in Coronary CT Angiography, or IsoCOR, trial.

159 ted successful operant conditioning of alpha-rhythm in humans, the effectiveness of this paradigm in

160 ecause of competition of paced and intrinsic rhythm in ICD patients.

161 nscription cycles, RBCs maintain a circadian rhythm in membrane electrophysiology through dynamic reg

162 We find that the daily rhythm in membrane excitability in the ventral SCN (vSCN

163 macological therapy for maintenance of sinus rhythm in patients with both paroxysmal and persistent a

164 opamine 2 Receptors to entrain the circadian rhythm in PER2::LUC bioluminescence.

165 ck function failed to show any clear loss of rhythm in the expression of clock genes in ICCV 96029 gr

166 blue light, we were able to control cardiac rhythm in the whole heart, isolated tissue preparations

167 a visually induced, context-dependent gamma rhythm in visual cortex.

168 s capable of remodeling circadian behavioral rhythms in adult mice.

169 Here, we demonstrated that daily rhythms in astrocytes within the mammalian master circad

170 eight percent of metabolites exhibited daily rhythms in at least 1 study group, and where a metabolit

171 Measurements of circadian rhythms in body temperature suggest a biological mechani

172 required to sustain Suc-dependent circadian rhythms in darkness.

173 hway evoked larger shifts in molecular clock rhythms in Fbxl3(Afh/Afh) compared with Fbxl3(+/+) SCN s

174 imals is an important modulator of circadian rhythms in gene expression and their response to CR.

175 Unmasking ultradian rhythms in gene expression.

176 we present an approach to identify molecular rhythms in humans from thousands of unordered expression

177 mone involved in the regulation of circadian rhythms in humans.

178 , which provides the mechanism for circadian rhythms in IGF signaling in vivo.

179 CR and by the circadian clock, we found that rhythms in Igf-1 expression have sexual dimorphism.

180 current stimulation (tACS) to entrain brain rhythms in left and right sensorimotor cortices.

181 ates many genes other than Vip, yet activity rhythms in Lhx1-deficient mice are similar to Vip(-/-) m

182 dian clock that promotes approximately 24 hr rhythms in many behavioral and physiological processes.

183 common assumption, we found that pronounced rhythms in metabolic pathways are often favored by separ

184 Ultradian rhythms in mouse hepatocytes in vivo have been published

185 ich conditions transcriptional rhythms cause rhythms in particular metabolites and metabolic fluxes.

186 enzyme activities that allow for substantial rhythms in pathway flux and metabolite concentrations.

187 ageous for keeping the organism's endogenous rhythms in phase with internal and environmental periodi

188 Circadian rhythms are 24-h rhythms in physiology and behaviour generated by molecul

189 ommunicate to neurons to determine circadian rhythms in physiology and in rest activity.

190 ( approximately 24 hr) clocks regulate daily rhythms in physiology, metabolism, and behavior via cell

191 ythmic gene expression responsible for daily rhythms in physiology, metabolism, and behavior.

192 capacity of theta rhythm to follow syllabic rhythms in speech, or constrained by a more endogenous t

193 show reliable, self-sustained, synchronized rhythms in the E15.5 SCN.

194 The rhythms in the expression of circadian clock genes are a

195 n contrast, a few cells show noisy circadian rhythms in the isolated E14.5 SCN and most show reliable

196 ent study tests the hypothesis that imposing rhythms in the mouse anterior cingulate cortex (ACC), by

197 onize to each other to drive these circadian rhythms in the rest of the body.

198 y from SCN astrocytes resulted in lengthened rhythms in the SCN and behavior.

199 including PDF accumulation and arborization rhythms in the small ventrolateral neuron (sLNv) dorsal

200 Circadian clocks drive approximately 24 h rhythms in tissue physiology.

201 dependent mechanism for generating circadian rhythms in vivo.

202 athways thought to be important for activity rhythms, including PDF accumulation and arborization rhy

203 e other is responsible for freezing temporal rhythms into spatial patterns.

204 literature (including age, first documented rhythm, location of event in hospital, extracorporeal CP

205 r that regulates genes involved in circadian rhythm maintenance and metabolism, effectively bridging

206 ts the major cellular processes of circadian rhythm maintenance and metabolism.

207 nefits of risk factor modification for sinus rhythm maintenance.

208 estion the broader assumption that the alpha rhythm may serve as a general index of cortical excitabi

209 has been suggested that modifying circadian rhythms may be a means to manipulate crops to develop im

210 dian component, and disruptions in circadian rhythms may even trigger the development of these disord

211 Gamma band rhythms may synchronize distributed cell assemblies to f

212 cingly demonstrate the specificity of the mu rhythm, meaning that it is unclear whether the mu rhythm

213 ctigraphic sleep parameters before circadian rhythm measurement.

214 Circadian rhythms, metabolism, and nutrition are intimately linked

215 n this article, we review studies addressing rhythm, meter, movement, synchronization, entrainment, t

216 The projected effect of salt-driven hormone rhythm modulation corresponded well with the measured de

217 oad-scale systematic autopsies and long-term rhythm monitoring may clarify the underlying pathology a

218 sleep drive takes longer to build, circadian rhythms naturally become delayed, and sensitivity to the

219 dark cycles and impairs endogenous circadian rhythms necessary to maintain optimal biological functio

220 gests that an internal representation of the rhythm of handwriting is available before the age in whi

221 obacteria are inherently tied to the diurnal rhythm of light availability.

222 res imaging procedure to explore the diurnal rhythm of reward activation.

223 vity within a frequency band dictated by the rhythm of the stimulation source.

224 ks are ubiquitous timing systems that induce rhythms of biological activities in synchrony with night

225 laboratory, C. finmarchicus shows circadian rhythms of DVM, metabolism, and most core circadian cloc

226 n, and show their relationship with parallel rhythms of epigenetic modification including histone ace

227 ecific and interrelated diurnal and seasonal rhythms of gene expression in the human brain, and show

228 we compared circadian sleep and temperature rhythms of Lhx1- and Vip-deficient mice and found loss o

229 While the interaction of the cardinal rhythms of non-rapid-eye-movement (NREM) sleep-the thala

230 (SCN) of the hypothalamus orchestrates daily rhythms of physiology and behavior in mammals.

231 onstant routines, meal timing did not affect rhythms of subjective hunger and sleepiness, master cloc

232 Although circadian rhythms of Vo2 were conserved in young lean CT-1(-/-) mi

233 At 5 years, 73% were in sinus rhythm off antiarrhythmic medications after single inter

234 study was to define the impact of circadian rhythms on benzo-a-pyrene (BaP) metabolism in the mouse

235 osophila brain confer an approximately 24-hr rhythm onto locomotor activity are unclear, but involve

236 th reduced ejection fraction in either sinus rhythm or atrial fibrillation (AF).

237 1(-/-) mice toward a lower percentage of the rhythm or lower amplitude, especially for Bmal1 and Cloc

238 eumatic mitral valve disease in either sinus rhythm or persistent AF were analyzed using a combined t

239 sociations were observed regardless of heart rhythm or receipt of beta-blockers.

240 d stress effects on both sleep and circadian rhythms, or hastened their recovery, and attenuated chan

241 .SIGNIFICANCE STATEMENT The central alpha mu rhythm oscillation is a widely used measure of the human

242 ow the heart maintains its electromechanical rhythm over a lifetime remains an open question with sig

243 ear to synchronize and gradually modify song rhythm over long time scales.

244 The evolutionary origin of rhythm perception, a cognitive ability essential to musi

245 re body temperature and exploratory activity rhythms persist under rLL.

246 circadian disorders with unstable circadian rhythm phases.

247 Circadian rhythms play an influential role in nearly all aspects o

248 lengthens the period of circadian molecular rhythms, providing a mechanistic link to DSPD symptoms.

249 Mortality was lower for patients in sinus rhythm randomized to beta-blockers (HR: 0.73 vs. placebo

250 m, meaning that it is unclear whether the mu rhythm reflects mirror neuron activity.

251 ight into heritable variation in vagal heart rhythm regulation, with a key role for genetic variants

252 s involved in learning, memory and circadian rhythm regulation.

253 mechanisms, including through host circadian rhythm regulation.

254 Stable sinus rhythm restoration was immediate in 61.5% of patients an

255 yet fundamental functions, such as circadian rhythms, reward, aggression, anxiety, and fear.

256 of attention, that is, these levels of alpha rhythm seemed to optimally support the behavioral goal (

257 t due to ventricular fibrillation, including rhythms shockable by an automatic external defibrillator

258 Diagnosis and treatment of circadian rhythm sleep-wake disorders both require assessment of c

259 behavioural deficits including in circadian rhythms, sleep, anxiety and learning/memory.

260 interventions to prevent and treat circadian rhythm-sleep disorders and social jet-lag.

261 ciation/American College of Cardiology/Heart Rhythm Society atrial fibrillation (AF) guidelines.

262 and yearly thereafter and reported per Heart Rhythm Society Guidelines.

263 on, Heart Rhythm Society, Asia-Pacific Heart Rhythm Society, and Sociedad Latinoamericana de Estimula

264 the European Heart Rhythm Association, Heart Rhythm Society, Asia-Pacific Heart Rhythm Society, and S

265 ipolar peak-to-peak voltages (Vmax) in sinus rhythm (SR) and AF.

266 s with those obtained in patients with sinus rhythm (SR).

267 hich also occurs to some degree during sinus rhythm (SR).

268 Together, our data suggest that circadian rhythm stability is pivotal for the maintenance of mucos

269 Interestingly, Rolandic alpha rhythm strength and its influence on stimulus processing

270 , delay CRY1/2 degradation, reduce circadian rhythm strength, and lengthen the circadian period by ap

271 It also remains unclear whether mu rhythm suppression during action observation reflects th

272 We report evidence for a 6-12 Hz theta rhythm that is generated by the MFC and synchronized wit

273 simply reflect the empirical distribution of rhythm that listeners encounter.

274 CN) of the hypothalamus to entrain circadian rhythms that are generated within the SCN.

275 ogressive alterations in sleep and circadian rhythms that resemble features of depression as it appea

276 re driven by underlying electrophysiological rhythms that typically occur at much faster timescales (

277 se of endpoints, such as sleep and circadian rhythm, that are homologous across species will facilita

278 teners were asked to reproduce random "seed" rhythms; their reproductions were fed back as the stimul

279 ip between mirror system activity and the mu rhythm, these results have important implications for th

280 s complex varied with time of day (circadian rhythm)-this regulation required NR1D1.

281 CV hyperpolarization accelerated the rhythm to an extent that depended on the magnitude of th

282 process is bounded by the capacity of theta rhythm to follow syllabic rhythms in speech, or constrai

283 strength of phase-locking of a 6-12 Hz theta rhythm to the rats' lick cycle.

284 k serves to maintain the period of molecular rhythms via control over the phase of gene transcription

285 Acute conversion to sinus rhythm was observed in 2 patients after ablation of roto

286 ngly, intermediate and high amplitudes of mu rhythm were associated with the highest P1 amplitudes du

287 ; P < .001), no differences in heart rate or rhythm were observed.

288 Female sex and shockable rhythms were associated with higher adjusted odds of sur

289 In adipose tissue, PER2 mRNA rhythms were delayed by 0.97 +/- 0.29 hr (p < 0.01), ind

290 ollowing late meals, however, plasma glucose rhythms were delayed by 5.69 +/- 1.29 hr (p < 0.001), an

291 each meal schedule, participants' circadian rhythms were measured in a 37-hr constant routine that r

292 Shockable arrest rhythms were noted in 23.3% of patients.

293 3 with initial nonshockable-turned-shockable rhythms were treatment-eligible, were randomized, and re

294 esence, as opposed to its absence, of a slow rhythm, which in the present study was instantiated as a

295 pe of such spontaneous activity is the alpha rhythm, which influences perception and interacts with o

296 odynamic correlates of the spontaneous alpha rhythm, which is considered the hallmark of the brain re

297 routine that removes sleep and environmental rhythms while replacing meals with hourly isocaloric sna

298 cyte size, and protein levels follow a daily rhythm, whose amplitude depends on both feeding-fasting

299 ings and reported that two strains displayed rhythms with genotype-specific periodicity, in agreement

300 lthough Pdp1epsilon mutants disrupt activity rhythms without eliminating clock function, whether vri