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1 ured affective dimensions (e.g., valence and arousal).
2 nuclei, poised to activate CeM for autonomic arousal.
3 depending on attentional demand and state of arousal.
4 mediated mechanisms that regulate behavioral arousal.
5 vation of autonomic structures and emotional arousal.
6  caudate nucleus) covaried with the level of arousal.
7 ested a role for noradrenergic modulation of arousal.
8  between-network cohesion peaked at moderate arousal.
9 le for noradrenergic mechanisms in mediating arousal.
10  executive control network peaks at moderate arousal.
11 eontological) and showed increased emotional arousal.
12 more" effects in perception and memory under arousal.
13 ral neurons (l-LNvs) regulating light-driven arousal.
14 in PDF-expressing neurons or l-LNvs promoted arousal.
15 ite through which the orexin neurons promote arousal.
16 ally active during periods of wakefulness or arousal.
17 stress, thus contributing to accumulation of arousal.
18 uggesting critical involvement in behavioral arousal.
19 2] and can change size and shape upon sexual arousal.
20  identify genes that affect larval zebrafish arousal.
21 cative of cortical activation and behavioral arousal.
22  brain regions involved in the regulation of arousal.
23 dopaminergic neurons differentially modulate arousal.
24  their effects are enhanced by noradrenergic arousal.
25 PDF-expressing neurons promotes light-driven arousal.
26 ear to be clearly associated with changes in arousal.
27  expectations about internal states, such as arousal.
28 he neuronal mechanisms controlling sleep and arousal.
29 ating in conjunction with systems regulating arousal.
30 ions, including circadian timing, sleep, and arousal.
31  to humans in comparable states of emotional arousal.
32 he neuronal mechanisms controlling sleep and arousal.
33 urprised facial expressions, unconfounded by arousal.
34 gions that integrate with the LC to regulate arousal.
35 ion of salient stimuli prompts vigilance and arousal.
36  on aggression, independent of any effect on arousal.
37 evels disinhibits CeM and triggers autonomic arousal.
38 thin the salience network dynamically tracks arousal.
39 negative) at a consistent level of emotional arousal.
40 iated with different categories of emotional arousal.
41 n to the LC, also covaried with the level of arousal.
42 ed significant increases in mean sympathetic arousal accompanied by significant increases in mean abs
43 ght be tuned to either (1) general emotional arousal (activation vs deactivation) or (2) specific emo
44 istent with the notion of increased cortical arousal after anodal stimulation and decreased cortical
45 er anodal stimulation and decreased cortical arousal after cathodal stimulation.
46 vity and muscle tone to promote and maintain arousal along with learned adaptive behavioral responses
47 al phenotypes (extreme diurnal preference in arousal and activity) and sleep/mood disorders, includin
48 sect homolog of NE, is known to promote both arousal and aggression.
49 e effects through investigation of autonomic arousal and alterations of activation and functional con
50 ported by several mechanisms, such as social arousal and attention, and facilitates social monitoring
51         Urodynamic status must interact with arousal and attentional processes so that voiding occurs
52 ated by a number of factors, from changes in arousal and attentional state to learning and task engag
53  to play a key role at the interface between arousal and cognition.
54 rontal-striatal circuitry involved in limbic arousal and executive control in 36 individuals-18 cocai
55 esthesia-induced unconsciousness and altered arousal and further establish principled neurophysiologi
56 lcholine (ACh) levels, such as attention and arousal and in pathological conditions such as Alzheimer
57 nistered following a delay led to heightened arousal and increased generalization of SCRs and explici
58 methylphenidate are effective for increasing arousal and inducing reanimation, or active emergence fr
59  daily fashion, potentially modulating light arousal and input to the clock.
60              A tonically high level of brain arousal and its hyperstable regulation is supposed to be
61 t occipital lesions associated with impaired arousal and left insular lesions associated with decreas
62        Multivariate VLSM analysis, including arousal and lubrication scores as covariables of interes
63                                              Arousal and lubrication scores were correlated with one
64                                              Arousal and lubrication scores were not associated with
65 orrelating cerebral sites of MS lesions with arousal and lubrication scores.
66 wever, nonphotic factors, such as behavioral arousal and metabolic cues, can also phase shift the mas
67 entrainment to rhythms, and their effects on arousal and mood.
68  back to the orexin neurons may help promote arousal and motivation.
69  sensorimotor, and mixed stressors on driver arousal and performance with respect to (wrt) baseline.
70 xin (also known as hypocretin) neurons drive arousal and promote the maintenance of normal wakefulnes
71 ic stress disorder (PTSD) are alterations in arousal and reactivity which could be related to a malad
72  then show that treatments that both produce arousal and reset the phase of circadian clock activate
73 rane produced behavioral and EEG evidence of arousal and restored the righting reflex in 6/6 mice.
74                                              Arousal and sleep are fundamental physiological processe
75  Homer1a serves as a molecular integrator of arousal and sleep need via the wake- and sleep-promoting
76 to the cortex and are implicated in cortical arousal and sleep-wake control.
77 eurons are critical modulators of behavioral arousal and sleep-wake patterning.
78 atments for clinical conditions of disturbed arousal and sleep.
79 the role of LHA circuits in feeding, reward, arousal and stress.
80  significant calming effect on physiological arousal and subjective experience during a socially stre
81 would have a calming effect on physiological arousal and subjective reports of state anxiety during t
82 t VTA dopaminergic neurons are necessary for arousal and that their inhibition suppresses wakefulness
83 known to drive brain states of attention and arousal and to be deficient in pathologies such as Alzhe
84  the Female Sexual Function Index scores for arousal and vaginal lubrication.
85 tion could facilitate transmission of global arousal and/or cognitive signals to the dLGN with retino
86  by the less-sleeping hemisphere caused more arousals and faster behavioral responses than those dete
87 evel of EEG-vigilance (an indicator of brain arousal) and b) a more stable EEG-vigilance regulation t
88 cal pain that may arise from excessive PANIC arousal, and 3) facilitation of social joy through the s
89  postural avoidance, increases physiological arousal, and enhances visual perception of affective sti
90 ght and increased sympathetic nervous system arousal, and lisdexamfetamine reduced weight and appetit
91  neurons play an essential role in promoting arousal, and loss of the orexin neurons results in narco
92 eus, a brain center implicated in attention, arousal, and panic that projects throughout the brain.
93 ognitive performance shifts as a function of arousal, and provide new insights into vulnerability for
94 line, during dexmedetomidine-induced altered arousal, and recovery states.
95 between heart rate, a physiological index of arousal, and within-network cohesion in the salience net
96 ion, with c-Fos expressed in subsets of both arousal- and sleep-promoting nuclei.
97 ical inputs to the locus coeruleus mediating arousal are likely involved.
98 s efficacy is increased when tonic levels of arousal are maintained in an optimal range, in manners t
99                   These heightened states of arousal are often in the absence of obvious threatening
100 ardless who gives them but without excessive arousal as measured in the amygdala.
101 iations between alterations of female sexual arousal as well as vaginal lubrication and the site of c
102  as well as lower self-regulation and higher arousal at day 14.
103 oviding self-report measures of euphoria and arousal at regular intervals.
104 fluenced by internal states (e.g., shifts in arousal, attention or cognitive ability) or external sti
105 gical variables, including cognitive effort, arousal, attention, and even learning.
106 transmitters, such as noradrenaline, mediate arousal, attention, and reward in the CNS.
107 halamic hypocretin (orexin) peptides mediate arousal, attention, and reward processing.
108 evidence supports broad roles for the TRN in arousal, attention, and sensory selection.
109 energic effects) model basically explains an arousal-based amplification of emotional stimuli, wherea
110 ifferences in proposed mechanisms underlying arousal-based enhancement of prioritized stimuli.
111 ev exposed and unexposed mice, avoidance and arousal behaviors were examined 7-15 days after exposure
112 which regulates the balance between calm and arousal behaviors.
113                              We suggest that arousal-biased competition models such as GANE (glutamat
114 ulness, and their silencing not only impairs arousal but is sufficient to rapidly and selectively ind
115 wakefulness is sufficient to not only impair arousal but to rapidly and selectively induce slow-wave
116 hrine (NE) control brain-wide states such as arousal, but whether they control complex social behavio
117 variety of behaviors that rely on heightened arousal, but whether they directly and causally control
118 ne is an anesthetic that alters the level of arousal by selectively targeting alpha2 adrenergic recep
119 itation, but a manifestation of the infant's arousal by the modeler's exhibition of the same behavior
120 ctivity accompanying shifts in vigilance and arousal can interfere with the study of other intrinsic
121                                    Emotional arousal can produce lasting, vivid memories for emotiona
122 ral state, such as sleep deprivation (SD) or arousal, can phase shift the circadian clock.
123  functional link between the major forebrain arousal center and the circadian system.
124 ot-up" sequence actively driven by ascending arousal centers.
125 lia are key components of a LC-noradrenergic arousal circuit.
126 ay provide a molecular identifier of the CO2 arousal circuit.
127 However, in vivo insights into noradrenergic arousal circuitry have been constrained by the fundament
128 of arousal levels may be used to study brain arousal circuitry.
129 mus, and basal ganglia comprise a functional arousal circuitry.SIGNIFICANCE STATEMENT Electrophysiolo
130 tion by altering the properties of conserved arousal circuits in the brain.
131 ity and associated plasticity, whereas other arousal circuits sustain TDW during SD.
132  operates in parallel with frontal inputs to arousal circuits to regulate task-dependent modulation o
133                        During periods of low arousal dominated by eyelid closures, sliding-window cor
134 with the proposal that neonatal imitation is arousal driven or declining with age.
135 tify the means) and have decreased emotional arousal during moral decision making.
136   The precise neural circuitry that mediates arousal during sleep apnea is not known.
137 ating its requirement for the maintenance of arousal during wakefulness.
138 e tracked pupil responses (a proxy of phasic arousal) during sensory-motor decisions in humans, acros
139 light input uncovers a clock-independent pro-arousal effect of increased temperature.
140                            A narrow focus on arousal effects and reflexes may grossly underestimate n
141  can be counteracted by raising their sexual arousal, either by engaging the flies with prolonged cou
142 o several hours include cycles in behavioral arousal, episodic glucocorticoid release, and gene expre
143 EST1 = .48 and EST2 = .72; P < .001), sexual arousal (EST2 = .50; P = .008), and vaginal lubrication
144 minergic (DRN(DA)) activity upon exposure to arousal-evoking salient cues, irrespective of their hedo
145                                        Thus, arousal exerts a feedback pull-push influence on excitat
146 of the decision, an increase in pupil-linked arousal, fixational eye movements, and fluctuations in b
147             Further, changes in pupil-linked arousal, fixational eye movements, or gamma-band respons
148 ed that pupil responses reflected endogenous arousal fluctuations opposed to differences in stimulus
149 physiology of sleepwalking, i.e. the partial arousal from slow-wave sleep, is today well-documented,
150 eport nor other secondary processes, such as arousal, from perceptual decision processing per se.
151 es and circuits involved in sleep and sexual arousal have been extensively studied in Drosophila.
152 onsive during the peak period of sympathetic arousal, heart rate increase, and cardiorespiratory sens
153                     Anticipatory sympathetic arousal [i.e., skin conductance responses (SCRs)] and ex
154 by periodic rewarming (REW) during interbout arousal (IBA), proapoptotic conditions that are lethal t
155                                       Sexual arousal in flies counteracts the effects of sleep depriv
156     Studies of subjective and genital sexual arousal in monosexual (i.e. heterosexual and homosexual)
157 ited higher levels of separation anxiety and arousal in response to social separation, but infants ca
158 s and subjective ratings of pleasantness and arousal in response to the pictures was tested for cued
159 v complexity (LZc), a measure shown to track arousal in sleep and anesthesia.
160 d during the task showed increased emotional arousal in the hippocampal-damaged patients and they sta
161 al response bears the signature of autonomic arousal in the insular cortex.
162 omplex produces sustained EEG and behavioral arousal in the rat.
163 ing the relationship between competition and arousal in the reverse direction.
164                                   Behavioral arousal in the sleeping period phase shifts the master c
165  contribute to the buffering of light-driven arousal in wild-type flies.
166 he psychological processes thought to elicit arousal - in particular, the processes involved in the a
167 e to the chemogenetic manipulation enhancing arousal, increasing asymptotic levels of fear learning o
168 earman's r = -0.50, p = 0.008) and a greater arousal index (r = -0.44, p = 0.017).
169 Ap in PDF-expressing neurons did not promote arousal, indicating that a reduced Ap function in PDF-ex
170  Taken together, these findings suggest that arousal induced by sounds can facilitate attention in a
171 acilitation of attention is studied: whether arousal induced by task-irrelevant auditory stimuli coul
172 in contrast to nocturnal rodents, behavioral arousal induced either by sleep deprivation or caffeine
173 on mechanisms underlying female dominance of arousal-induced arrhythmias.
174                                 In contrast, arousal-induced LC activity inhibits less active represe
175 ent an impressive interdisciplinary model of arousal-induced norepinephrine release and its role in s
176 inergic activity at the SCN is necessary for arousal-induced phase shifting.
177                     We then demonstrate that arousal-induced phase shifts are blocked when animals ar
178 hoosing a mate requires a way to turn sexual arousal into sexual action.
179 orts the concept that dysregulation of brain arousal is a possible predictor of treatment response in
180 ur data indicate that impaired female sexual arousal is associated with MS lesions in the occipital r
181                          The study of sexual arousal is at the interface of affective and social neur
182                            Because emotional arousal is known to be closely coupled to functions of t
183                                              Arousal is typically conceived as a key component of emo
184 al and memory processing, and its links with arousal, is discussed with respect to the GANE (glutamat
185 disgust-cues induced unexpected, unconscious arousal just before participants discriminated motion si
186 lso been advocated in modulation of state of arousal leading to transition from wakefulness to sleep
187  (electroencephalogram [EEG]) and behavioral arousal: lesions of the PB complex produce a monotonous
188       Among twins, the temporal structure of arousal level changes was similar and therefore indicate
189 proach for tracking continuous variations in arousal level from fMRI data.
190                                 Higher brain arousal level in responders to antidepressants supports
191                                              Arousal level significantly modulates inter-subject vari
192 uence structure by measuring respiration and arousal levels (via changes in heart rate).
193                                We found that arousal levels fluctuate at approximately 0.1 Hz (the Ma
194 siological states corresponding to different arousal levels from deep sleep to focused attention.
195 te-specific pharmacological manipulations of arousal levels may be used to study brain arousal circui
196 ide an impressive cross-level account of how arousal levels modulate behavior, and they support it wi
197 cal video clips designed to induce different arousal levels.
198 (1) Why should the brain engage in different arousal levels?
199                 Here, we propose that, under arousal, local glutamate levels signal the current stren
200 ions of the brain that are involved in sleep arousal (locus coeruleus) and preference/aversion (nucle
201                           Here we focused on arousal, measured through pupil dilation, as a candidate
202 l. offers a neurophysiological basis for the arousal mechanism which is essential for empirical aesth
203 he apparent tone-evoked responses reflect an arousal-mediated resumption of place-specific firing.
204     Previously, we have shown how unexpected arousal modulates metacognition.
205                                       Bodily arousal modulates stimulus processing and memory, contri
206      The results also indicate that stimulus arousal modulates the alerting effect.
207 owing sleep deprivation permits nonintrusive arousal monitoring.
208 in neurons likely work in concert to promote arousal, motivation, and other behaviors.
209 lamus (LH), as well as their function in the arousal network, remains unknown.
210 pil size, which reflects the activity of an 'arousal' network, related to the norepinephrine system.
211 la to alter potassium channel conductance in arousal neurons after light exposure, and in many animal
212 sponses to blue light coded by circadian and arousal neurons.
213 of reward neurons yet also characteristic of arousal neurons.
214 oject to several other established sleep and arousal nodes, including the tuberomammillary nucleus, v
215 project directly and/or indirectly to nearby arousal nuclei of the brainstem and to more distant targ
216  disturbance, and sympathetic nervous system arousal occurred more frequently with lisdexamfetamine t
217   The time scale of the effects of emotional arousal on neutral information processing is crucial for
218 g the pure effects of valence independent of arousal or emotion category is a challenging task, given
219              In diurnal rodents, the role of arousal or insufficient sleep in these functions is stil
220  nocturnal light exposure can have either an arousal- or sleep-promoting effect, and that these respo
221  both sleep deprivation and caffeine-induced arousal potentiate the photic entrainment in a diurnal r
222 ian clock in a manner similar to that of our arousal procedures and that these shifts are also blocke
223 te that cholinergic cells activated by these arousal procedures project to the circadian clock in the
224 ified a role for dopaminergic neurons in the arousal-promoting effect of caffeine.
225 tor and link NPY signaling to an established arousal-promoting system.
226 , OX2R); OX2R is the predominant mediator of arousal promotion.
227 d whether a measure of women's physiological arousal (pupil diameter change) was correlated with rati
228          Our results suggest that unexpected arousal regulates perceptual precision, such that subjec
229 rment of selective and focused attention and arousal regulation in adult rats.
230        Given the importance of attention and arousal regulation in cognitive functioning, these findi
231 isms underlying pathological motor behavior, arousal regulation, and protein accumulation.
232 ments in focused and selective attention and arousal regulation, and to identify the specific nature
233 ional preparedness, selective attention, and arousal regulation, whereas associative ability (learnin
234 re suggests that through global projections, arousal-related neuromodulatory changes can rapidly alte
235 cally unfold as a function of threat-related arousal remains unknown.
236 s a reversible drug-induced state of altered arousal required for more than 60,000 surgical procedure
237                     We show that Nmu-induced arousal requires Nmu receptor 2 and signaling via cortic
238 he level of wakefulness is critical for this arousal resetting of the circadian clock.
239 ted the behavioral, but not electrocortical, arousal response to caffeine.
240 before optical VTA stimulation inhibited the arousal responses and restoration of righting in 6/6 ChR
241  and physiologic evidence points to impaired arousal responses to hypercarbia and hypoxia, which ulti
242                                    Decreased arousal scores correlated with decreased lubrication sco
243 is shows that the accumulation of endogenous arousal signals informs gaze-shift timing judgements.
244 up mechanisms in conditions of attention and arousal.SIGNIFICANCE STATEMENT The pedunculopontine tegm
245 t include regulation of the circadian clock, arousal state, and hormone levels.
246  centers involved in the control of cortical arousal state, including the noradrenergic locus coerule
247 modulates noradrenaline release depending on arousal state.
248 photometry in freely behaving mice and found arousal-state-dependent alterations in VTA dopaminergic
249 diffuse neuromodulation pathways that govern arousal states and vigilance levels.
250 s occurred when animals were in high and low arousal states as measured by animal speed and pupillome
251                           Neuromodulation of arousal states ensures that an animal appropriately resp
252 d motor systems, and its ability to regulate arousal states puts the PPN in a key position to modulat
253 uit properties underlying neuromodulation of arousal states such as sleep and wakefulness remain uncl
254 eted as a continuous processing of competing arousal states, yielding selective amplification and inh
255 tributing to generating and mapping visceral arousal states.
256 tributing to mapping and generating visceral arousal states.
257  activity also varied across and depended on arousal states.
258  it is used clinically to suppress excessive arousal such as panic attacks.
259                      We conclude that phasic arousal suppresses decision bias on a trial-by-trial bas
260                                         PTSD arousal symptoms and tinnitus were directly dependent up
261 stic with blast exposure in influencing PTSD arousal symptoms.
262 evel of posttraumatic stress disorder (PTSD) arousal symptoms.
263  grey (PAG) lies at the heart of the defence-arousal system and its integrity is paramount to the exp
264 n is an important component of the ascending arousal system and may be a key site through which the o
265  the 'set point' for mobilizing their limbic arousal system has been elevated-an interpretation consi
266 GNIFICANCE STATEMENT The acetylcholine (ACh) arousal system in the brain is needed for robust attenti
267 lamus and is a critical part of an ascending arousal system that controls the firing mode of thalamic
268 alamus comprises a key node of the ascending arousal system, but the cell types underlying this are n
269  release of neuromodulators by the ascending arousal system.
270 ) is an essential component of the ascending arousal systems and may be a key site through which the
271 othesized that phasic responses of brainstem arousal systems are a significant source of this variabi
272 terface between the Nmu system and brainstem arousal systems that represents a novel wake-promoting p
273 sitional tracking of individual animals, and arousal threshold can be determined by vibrational stimu
274 sibility and muscle function, loop gain, and arousal threshold), and baseline predictors of which pat
275 e seen in muscle function, loop gain, or the arousal threshold.
276 cted from the external world; they show high arousal thresholds and changed brain activity.
277      Infants in the depression group had low arousal throughout the newborn period.
278 c inhibition of PBel(CGRP) neurons prevented arousal to CO2, but not to an acoustic tone or shaking.
279 chial nucleus (PBel) play a critical role in arousal to elevated CO2 or hypoxia.
280   Psychophysiological insomnia (PI) includes arousal to sleep-related stimuli (SS), which can be trea
281 ing that a stimulus-dependent timer exploits arousal to time gaze-shifts.
282  neurobiological pathways by which affective arousal tunes attention and memory.
283 s opposed to either a more general emotional arousal value or a more specific emotion category distin
284 ression exemplars are attributed valence and arousal values that are uniquely and naturally uncorrela
285 ed models, we find that Nmu does not promote arousal via the hypothalamic-pituitary-adrenal axis, but
286                                       During arousal, VIP cells rapidly and directly inhibit pyramida
287                                        Brain arousal was assessed using the Vigilance Algorithm Leipz
288                                     In vivo, arousal was linked to AMPA receptor-independent elevatio
289 ceptual bias, uncertainty, and physiological arousal we found that arousing disgust cues modulated th
290 and animal locomotive speed as indicators of arousal, we found that 3-5 Hz oscillations were not rest
291 etween HA neuron excitability and behavioral arousal, we investigated both the electrophysiological d
292 unctional constructs of negative valence and arousal were applied to the EPDS dimensions that reflect
293 glut2)) produce sustained behavioral and EEG arousal when chemogenetically activated.
294     These findings indicate that at moderate arousal, which has been associated with optimal noradren
295  to affective monitoring, competition raises arousal, which, when sustained, results in negative affe
296 s decreased with increasing auditory-induced arousal while searching for low-salient targets.
297  the 3PP condition, and an enhanced level of arousal while the walking was up a virtual hill.
298 alience network monotonically increases with arousal, while cohesion of this network with the executi
299 hesized that dexmedetomidine-induced altered arousal would manifest with reduced functional connectiv
300 uously involved in motivation and behavioral arousal, yet the contributions of other DA populations t

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