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1 tical lines seem oppositely tilted (the tilt aftereffect).
2  not interfere with the orientation-specific aftereffect.
3 of the face does not interfere with the face aftereffect.
4 nutes, a phenomenon termed the ventriloquism aftereffect.
5 myopes were most susceptible to the nearwork aftereffect.
6 eraction by measuring the cross-modal motion aftereffect.
7 context of the phenomenon known as the shape aftereffect.
8 iases that are consistent with the direction aftereffect.
9 isensory stimuli, known as the ventriloquism aftereffect.
10 he adapting motion face led to a significant aftereffect.
11 on duration resembled traditional perceptual aftereffects.
12  is a general property for facial-expression aftereffects.
13 thin STS predict the magnitude of behavioral aftereffects.
14 able motion can generate consistent rotation aftereffects.
15 pe to account for well-documented perceptual aftereffects.
16 t's report for inducing stimuli versus their aftereffects.
17 proved focality and greater magnitude of its aftereffects.
18  ketamine's long-term perseverance-enhancing aftereffects.
19 ior ccPAS studies have focused on protocol's aftereffects.
20 les drove partial adaptation but no opposing aftereffects.
21 sugars inferred reduced perception of bitter aftereffects.
22 ming at the same rate and showed significant aftereffects.
23 ing negative afterimages, fading, and motion aftereffects.
24 ocessing, we examined the transfer of motion aftereffects.
25 sort of adaptive coding is the face-identity aftereffect [2, 3, 4, 5], in which adaptation to a parti
26 ry on the buildup of the threshold elevation aftereffect, a form of contrast adaptation thought to tr
27 irection, observers experienced a consistent aftereffect: a bistable PL walker, which could be percei
28              In the well-known visual motion aftereffect, adapting to visual motion in one direction
29  3 T MRI-scanner as well as their respective aftereffects after participants left the scanner.
30  participants briefly exhibit an error-based aftereffect against the direction of the constraint, fol
31 daptation is sufficient to generate a motion aftereffect, an illusory sensation of movement experienc
32 test is to assess this initial accommodative aftereffect and its subsequent decay in the light under
33 orrelation between the magnitude of the tilt aftereffect and that of fMRI response adaptation in V1,
34  Results showed that the threshold-elevation aftereffect and the translational motion aftereffect wer
35 essing, because both the threshold-elevation aftereffect and translational motion aftereffect arise,
36  of adaptation is consistent with perceptual aftereffects and indicates that different cortical regio
37 th subjects of both sexes, account for short aftereffects and large savings after adaptation to large
38 r prolonged exposure to movement (the motion aftereffect), and exposure to tilted lines can make vert
39 oth psychophysically, by the behavioral tilt aftereffect, and physiologically, using fMRI response ad
40 s, effects of age and genetic factors on TBS aftereffects, and then summarize alterations of TMS-TBS
41  ventriloquism effect, and the ventriloquism aftereffect are also reviewed.
42 nts, we show this not to be the case: visual aftereffects are consistent with the simultaneous yet se
43                                         cDCS aftereffects are not uniform throughout cortical layers,
44 However, the neural mechanisms underlying PA aftereffects are poorly understood as only little neuroi
45    These characteristics of tactile distance aftereffects are similar to those of low-level visual af
46                                        Shape aftereffects are suppressed when the adaptor contour is
47 evation aftereffect and translational motion aftereffect arise, at least in part, from adaptation at
48 We tested the novel hypothesis that the null aftereffect arises from the large difference in the back
49  the adapting and test stimuli can influence aftereffects, as in contingent adaptation; (2) weak or n
50    We have recently discovered a paradoxical aftereffect associated with inhibition in the gerbil aud
51 , adaptation to these stimuli induced a tilt aftereffect at the target location, consistent with sign
52 is procedure allowed dissociating adaptation aftereffects at retinal and spatiotopic positions.
53 strate that a single, short SD has long-term aftereffects at the genomic regulatory level and highlig
54 but also exhibited neural signatures of view aftereffect before neurons with narrower tuning.
55 irst time, present counterintuitive magnetic aftereffect behavior that is consistent with the mechani
56 cluding the correlation and forward/backward aftereffects between two reported orientations in a tria
57 (both sexes) for processes predictive of the aftereffect biases following the exposure to spatially o
58 re to tactile motion induces a visual motion aftereffect, biasing the perceived direction of counterp
59 y adaptation techniques to generate duration aftereffects: bidirectional distortions of perceived dur
60 ent with the Aschoff's rule, and entrainment aftereffects, both of which are properties described for
61 sharpening mechanisms contribute to the tilt aftereffect, but that they operate at different points i
62       Our aim was to further characterize PA aftereffects by using an approach that allows distinguis
63 by a new demonstration that a gaze direction aftereffect can be influenced by beliefs about the gazer
64                                         This aftereffect can be obtained with spatially nonoverlappin
65                                 The rotation aftereffect can only be observed when the adapting and t
66              We show that opposite viewpoint aftereffects can simultaneously be induced for forwards
67                 Thus, this heading direction aftereffect cannot be explained by local, disparity-spec
68 iases, including sensory illusions, adaptive aftereffects, choice history biases, central tendency ef
69     The resulting visuomotor adaptations and aftereffects demonstrated that the planned grip size, de
70  we report a novel cross-category adaptation aftereffect demonstrating that prolonged viewing of a hu
71    We further investigated the nature of the aftereffects, demonstrating that they are orientation- a
72                Moreover, for both eyes, blur aftereffects depended on whether the adapting blur was s
73                        The magnitude of this aftereffect depends on the angular difference between th
74                            The ventriloquism aftereffect describes an enduring shift in the perceptio
75                         The size of the tilt aftereffect did not differ between the groups.
76 spatially disparate visual stimulus, and the aftereffect did not transfer across sounds that differed
77             This suggests that tsDCS-induced aftereffects did not occur at brainstem or cortical leve
78 ze or appeared on opposite sides of fixation aftereffects did occur.
79 different hands did result in contextualized aftereffects differing between hands across generalizati
80                    We show that the negative aftereffects do not transfer to unadapted launch directi
81                                   While this aftereffect emerges following trial-wise or cumulative e
82                                     Duration aftereffects exhibited robust inter-ocular transfer alon
83 caused a significant reduction of visuomotor aftereffect (F(1,137.8) = 6.133, P = 0.014) and retentio
84                          No child manifested aftereffects ("flashbacks") in the days following the VR
85  multisensory and spatial memory mediate the aftereffect following both trial-wise and cumulative ada
86 volved in consolidating and implementing the aftereffect following prolonged exposure.
87                                       Period aftereffects following entrainment to T-cycles were simi
88 e by measuring the audiovisual ventriloquism aftereffect for stimuli of varying visual reliability.
89       This unidirectional cross-modal motion aftereffect found in the deaf participants could not be
90                                          The aftereffect from processing motion language gained stren
91                        Humans can experience aftereffects from oriented stimuli that are not consciou
92 debated [9-11], though robust tactile motion aftereffects have recently been demonstrated [12, 13].
93                                  TBS-induced aftereffects, however, vary between subjects, and the me
94 n in the visual system (i.e., cause a motion aftereffect illusion).
95 ealthy participants and patients, due to its aftereffect impacting on a number of visuospatial and vi
96 splaced visual stimuli induced ventriloquism aftereffect in both humans (approximately 50% of the dis
97 mporal motor pattern that is expressed as an aftereffect in regular walking conditions.
98 , followed by a longer-lasting use-dependent aftereffect in the direction of the constraint.
99      This provides novel insight into the PA aftereffect in the healthy brain and may help to inform
100 arent motion produced a robust visual motion aftereffect in the opposite direction, when measured in
101                          There was no myopic aftereffect in the remaining two refractive groups.
102 , subjects exhibited a strong and persistent aftereffect in trials in which preparation time was limi
103 was shown to entail long-lasting therapeutic aftereffects in PD patients and related animal models.
104        Upon exiting the scanner, we observed aftereffects in the opposite direction manifested in bot
105                      The existence of motion aftereffects in the tactile domain was debated [9-11], t
106  correctly predict illusory changes - visual aftereffects - in movement direction, but in V1, they ar
107                                        Using aftereffects induced by quickly alternating images, we s
108     We demonstrated the presence of a strong aftereffect, induced by the simultaneous presentation of
109                        The observed rotation aftereffect is likely due to direction-contingent dispar
110             Overall, we show that the motion aftereffect is not merely an intriguing perceptual illus
111 lus that generates the aftereffect or of the aftereffect itself, both of which can be seen clearly in
112 se impacts the strength of the visual motion aftereffect (MAE) during a subsequent test phase, and (i
113 hantom-inducing gratings can elicit a motion aftereffect (MAE) in the gap region, it is not known whe
114                           We used the motion aftereffect (MAE) to psychophysically characterize tunin
115                                In the motion aftereffect (MAE), a stationary pattern appears to move
116 elates with the strength of perceived motion aftereffect (MAE), the illusory motion of a stationary p
117 he opposite direction-the traditional motion aftereffect (MAE).
118 ses correlated with perception of the motion aftereffect (MAE).
119                         We tested for motion aftereffects (MAEs) following explicit motion imagery, a
120 ielded correspondingly weak cross-cue motion aftereffects (MAEs) in the face of very strong within-cu
121 ceptible to adaptation that generates motion aftereffects (MAEs).
122 d a significant decrease after relearning in aftereffect magnitudes during no-feedback trials, a dire
123             The prevalence of discomfort and aftereffects may be less than that reported for adults.
124 ding and subsequent memory recall, revealing aftereffects more than 20 s after end of stimulation.
125 osity perception, giving rise to a repulsive aftereffect: motion to the left adapts small numbers, le
126 it remains debated whether the ventriloquism aftereffects observed following trial-wise and cumulativ
127                                        These aftereffects occur not only for simple stimulus features
128                         We also assessed the aftereffect of EEG coherence on executive functioning, u
129 mporary or chronic tinnitus or to some other aftereffect of long-duration sound.
130 onal visuospatial, processes underlie the PA aftereffect of rightward-deviating prisms in healthy par
131 was often elicited, apparently because of an aftereffect of synaptic inhibition.
132 5 min, which completely cancelled perceptual aftereffects of adaptation.
133 cantly with current symptomatology, and face aftereffects of children with elevated symptoms only one
134         Yet, there are likely other indirect aftereffects of COVID-19 infection in addition to the di
135                               These negative aftereffects of exposure to collisions are spatially loc
136                                        These aftereffects of habituation have been thought to reflect
137 e to the disturbances and produce short-term aftereffects of increased gait stability once the cables
138 adults showed alterations in USV observed as aftereffects of intoxication, despite greater initial bl
139 ing from occupational bioassay to monitoring aftereffects of nuclear accidents.
140               Under nicotine, the inhibitory aftereffects of PAS were delayed and prolonged, while th
141 erefore all functional changes observed were aftereffects of rotenone toxicity in vivo.
142 wo independent experiments revealed that the aftereffects of stop-signal training are negligible afte
143  high-resolution chronology of the immediate aftereffects of the Chicxulub impact event in the Wester
144 additional factor for Caribbean reefs is the aftereffects of the epizootic that reduced the abundance
145 second-order stimuli usually produces little aftereffect on first-order stimuli has been interpreted
146  in the structured environment; the negative aftereffect on path deviation was twice that in the spar
147 der face did not produce a facial-expression aftereffect on the first-order faces.
148 r coordination during pointing as well as to aftereffects on a number of sensorimotor and attention t
149                      Whereas most adaptation aftereffects on appearance are opposite in direction to
150                      Similar nonuniform cDCS aftereffects on cortical excitability were also found in
151 that discrepant multisensory evidence shapes aftereffects on distinct timescales via common neurophys
152                      Our study suggests that aftereffects on FRP may be an emergent property of the s
153 s of human ultrasociality, and agriculture's aftereffects on large-scale social organization.
154          Impulse activity in axons generates aftereffects on membrane excitability that can alter the
155 us has both acute and sustained long-lasting aftereffects on motor function in parkinsonian nonhuman
156 ns, from 32 to 256 seconds, and measured the aftereffects on perceived auditory location.
157 cles of non-24 h duration (T-cycles) induces aftereffects on period that act to bring the intrinsic p
158 athway of the motor network and measured the aftereffects on plasticity (both sexes).
159 egulation via reappraisal, and the immediate aftereffects on spontaneous (i.e., not instructed and au
160                             These crossmodal aftereffects, operating both from vision to touch and fr
161  could not be explained by unisensory motion aftereffect or discrimination threshold.
162 y unaware of the stimulus that generates the aftereffect or of the aftereffect itself, both of which
163 tificial scotoma did not have any additional aftereffects over those of adaptation to a gray screen,
164 sed this issue by implementing an adaptation-aftereffect paradigm with passive touch.
165 eye movements accompanied each blink, and an aftereffect persisted for a few blinks after target disp
166                                 In the shape aftereffect, prolonged viewing, or adaptation to a parti
167                                 Importantly, aftereffect reduction was correlated with the proportion
168 c space, it is likely that the ventriloquism aftereffect reflects a change in the cortical representa
169                  We also found that the face aftereffect remained intact when the visual distracters
170  here report that the face identity-specific aftereffect requires a visible face; it is effectively c
171 This perceptual adaptation and the resulting aftereffect reveal important characteristics regarding h
172 wareness can nevertheless produce measurable aftereffects, revealing neural processes that do not dir
173 rception by asking whether the strong motion aftereffects seen in the perceptual domain lead to simil
174 daptation; (2) weak or null cross-adaptation aftereffects should be interpreted with caution; and (3)
175 V5 and psychophysical measures of the motion aftereffect showed reduced motion processing during high
176                                  Analysis of aftereffects showed that walking adaptations are stored
177 macaque monkeys experience the ventriloquism aftereffect similar to the way humans do in all tested r
178 macaque monkeys experience the ventriloquism aftereffect similar to the way humans do.
179 amined, for the first time, the origin of PA aftereffects studying oscillatory brain activity.
180 rameters that give rise to the ventriloquism aftereffect suggest that the changes in the cortical rep
181                           The absence of any aftereffects suggested that the improved balance perform
182 onkeys, as well as humans, exhibit face-view aftereffect, suggesting the presence of a view-sensitive
183 cts are similar to those of low-level visual aftereffects, supporting the idea that distance percepti
184 ly striking accommodatively related nearwork aftereffect susceptibility.
185 sphenes correlated with the size of the tilt aftereffect (TAE) in the PPR group only.
186 ntation selective detectors producing a tilt aftereffect (TAE).
187 otosensitivity was assessed using two visual aftereffects that occur after prolonged adaptation.
188  a given direction produced a tactile motion aftereffect, the illusion of motion in the opponent dire
189                          To account for such aftereffects, these units must either be able to inhibit
190                          We then examined PA aftereffects through changes in known oscillatory EEG si
191 ubjects, and the mechanisms underlying these aftereffects to date remain poorly understood.
192 nded) body states are necessary for separate aftereffects to emerge, suggesting that the role of sens
193             Here, we report that visual-form aftereffects transfer across separate fixations when ada
194    Consistent with previous findings, motion aftereffect transferred between vision and touch in a bi
195            We assessed whether this negative aftereffect transfers to test events with a new set of f
196 ls compared to baseline, late adaptation, or aftereffect trials.
197  this hypothesis, we first quantified the SF aftereffect using a psychophysical paradigm where human
198                           Additionally, this aftereffect was not due to response bias, because its de
199                   The duration of the motion aftereffect was shorter in the PPR group than in the con
200 h manipulation the degree to which the shape aftereffect was suppressed.
201                       To artificially induce aftereffects, we photostimulated mitral cells using chan
202 se both the extended response to NPY and any aftereffect were blocked by coapplication of glutamate r
203 ion aftereffect and the translational motion aftereffect were reduced substantially during binocular
204   For excitability-diminishing tDCS and PAS, aftereffects were abolished or converted trendwise into
205                              Motion and tilt aftereffects were compared in healthy subjects with (n =
206                                    Viewpoint aftereffects were found within, but not across, categori
207                                 Long-lasting aftereffects were not observed with classical deep brain
208                   Weaker threshold elevation aftereffects were observed when the adapting image was e
209 daptation function, as well as an attenuated aftereffect when relearning from the clamped feedback.
210 n the native blur of the better eye, with no aftereffect when the blur equaled the aberrations of the
211 cked mossy fiber perturbations and exhibited aftereffects when stimulation was removed.
212 he removal of the perturbation, there was an aftereffect, where the error was in the opposite directi
213      These stimuli generated robust duration aftereffects which showed partial selectivity for adapt-
214  accounts, we exploited the well-known "tilt aftereffect", which reflects adaptation to orientation i
215       A classic example is the ventriloquism aftereffect, which emerges following both cumulative (lo
216 ception in human subjects, the ventriloquism aftereffect, which presumably reflects a corresponding c
217                  We observed this multilevel aftereffect with both cartoon and real test faces when t
218 re could have reflected various neuroplastic aftereffects with extended time courses.
219 illusory movement is induced (via the motion aftereffect) within a stationary pattern, it can be show
220        A phase-scrambled adaptor produced no aftereffect, yet when adapting and test walkers differed

 
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