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1 n about how sensorimotor integration affects auditory perception.
2 Here, we tested for such echoes in auditory perception.
3 ticipants, we examined entrainment echoes in auditory perception.
4 st that CRMP1 is required for high-frequency auditory perception.
5 n is thought to be fundamental to successful auditory perception.
6 ochlear hair cells are not only critical for auditory perception.
7 tes auditory decisions by modulating ongoing auditory perception.
8 for further studies into the rhythmicity of auditory perception.
9 Pitch and timbre are two crucial aspects of auditory perception.
10 , which seems to be important for successful auditory perception.
11 inciples also play a crucial role in healthy auditory perception.
12 asticity in the auditory cortex and improves auditory perception.
13 , which has also been found to be related to auditory perception.
14 elope may reflect mechanisms specialized for auditory perception.
15 tor processes to enable imagery and to guide auditory perception.
16 Pitch and timbre are two crucial aspects of auditory perception.
17 sidered to be a central mechanism underlying auditory perception.
18 ns arising from the motor system can enhance auditory perception.
19 ring at a later age (P23-P35) did not impair auditory perception.
20 t yet been generalized to task-related human auditory perception.
21 t that learning is accompanied by changes in auditory perception.
22 Pitch is a fundamental attribute of auditory perception.
23 ions of different components of attention to auditory perception.
24 focused on linking physiological results to auditory perception.
25 us fundamental building blocks of visual and auditory perception.
26 intrinsic mechanism for attenuating phantom auditory perception.
27 cortical processing associated with superior auditory perception.
28 reflects the central role of harmonicity in auditory perception.
29 the temporal fidelity that is essential for auditory perception.
30 intensity components within each signal for auditory perception.
31 ut not limited to, fine motor production and auditory perception.
32 te to functional impairments of language and auditory perception.
33 ysis frequency spacing to more closely match auditory perception.
34 in cochlear implant recipients will improve auditory perception.
35 to regenerate hair cells, the receptors for auditory perception.
36 ic cortical regions involved in higher order auditory perception.
37 asks have been the subject of new studies in auditory perception.
38 xperiments can inform classical questions in auditory perception.
39 , and entrainment seems to be beneficial for auditory perception.
40 ffering an insight into the genetic basis of auditory perception.
41 tal processing principles underlying healthy auditory perception.
43 s show auditory rhythmic regularity benefits auditory perception and auditory-motor coordination in c
47 early visual cortex is common across actual auditory perception and imagery and may be mediated by h
48 s in early childhood leads to impairments in auditory perception and language processing that can las
52 are they artifacts of generic limitations on auditory perception and motor control-they reflect unive
54 r and middle temporal gyrus) associated with auditory perception and processing, regions which were p
55 nderstanding of the organizing principles of auditory perception and provide, for the first time, cle
58 om other brain areas when it is generated by auditory perception and/or imagery, and this input carri
59 ibition in auditory areas predicted abnormal auditory perception (and positive symptoms) in PScz in 3
60 al lobe systems involved in episodic memory, auditory perception, and language processing, and cortic
61 anguage difficulties result from problems in auditory perception, and provide further information abo
62 ct in three unique tasks: visual perception, auditory perception, and visual memory retrieval, indica
63 re we present evidence that these aspects of auditory perception arise from the statistical structure
65 ormance of the perceptual system: Does human auditory perception benefit from neural phase reorganiza
66 tch and timbre are two primary dimensions of auditory perception, but how they are represented in the
68 location of sounds is an important aspect of auditory perception, but the ways in which space is repr
73 first demonstration that abstract aspects of auditory perception can be transferred between species w
75 brain areas that are thought to give rise to auditory perception deficits such as temporal processing
78 ive difference between acoustic and electric auditory perception does not seem to be due to differenc
80 aled to macaque anatomy, for the analysis of auditory perception evoked by electrical stimulation of
83 ining had a positive influence on elementary auditory perception (frequency, tone duration, onset ram
84 ime and to predict individual differences in auditory perception from associated neural activity.
85 that extracts neuronal features of bistable auditory perception from largescale single-trial data wh
87 ile the effects of short-term predictions on auditory perception have been well-documented, how long-
91 ing frontal language production regions with auditory perception in the superior temporal gyrus, the
93 recognize abstract features of voice during auditory perception is an intricate feat of human auditi
94 ments, the brain can suppress echoes so that auditory perception is dominated by the primary or leadi
98 he neural mechanism mediating this aspect of auditory perception is shared among primates, and perhap
109 ritical developmental processes that support auditory perception of vocalizations more generally.
110 uracy that is similar to the accuracy of the auditory perception of whispered sounds, and in congruen
112 acy development, innovations in the areas of auditory perception, social emotional learning, motor de
113 lation of affect, motor function, visual and auditory perception, spatial orientation, memory retriev
114 ory spatial receptive fields and can capture auditory perception such that sound is localized toward
115 perceptual decision, given sufficient time, auditory perception switches back and forth between the
116 ory "streams." In this study, we adapted two auditory perception tasks, used in recent human psychoph
118 Pitch and timbre are two primary features of auditory perception that are generally considered indepe
119 feeding state and gene expression related to auditory perception that is mediated by endocannabinoid
121 alography (MEG) with an established index of auditory perception, the mismatch negativity response, t
122 that placed implicit, increasing demands on auditory perception through progressively more difficult
123 associated with contextual facilitation for auditory perception through temporal regularity processi
124 tudy the effect of renewed auditory input on auditory perception, vocal production, and vocal learnin
125 contrast to prediction errors in visual and auditory perception, which are associated with increased
126 We tested whether HERs reflect conscious auditory perception, which can potentially provide addit
127 ved understanding of the basic mechanisms of auditory perception will aid us in the quest to tackle t
128 carefully timed tactile cues, could improve auditory perception with potential applications in audit
129 he sensory-motor interface, flexibly linking auditory perception with sex-specific behavioral respons
130 on in acoustic inputs is a crucial aspect of auditory perception, yet very few studies have focused o