Theta-band oscillatory responses to the onset and offset of cyclic sound motion

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In this study, wavelet analysis of EEG was performed during cyclic motion of auditory stimuli. EEG was recorded during passive listening to stimuli designed to model binaural beats by means of cyclic changes in interaural time differences (ΔT). We analyzed the changes in event-related spectral perturbation (ERSP) and phase coherence (ITC) of oscillatory activity underlying the responses to motion onset (motion-onset response, MOR) and motion offset (omitted-stimulus response, OSR). In the response to motion onset, the ERSP and ITC of theta oscillations were highest when the stimulus was near the head midline, and decreased when the stimulus was 45 or 90 deg away from the midline. Right-hemispheric ERSP and ITC were most sensitive to the motion onset position. Responses to motion offset were similar for all spatial positions of the stimulus, and were mainly generated by the phase synchronization (ITC) of theta oscillations that continued after the motion offset.

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Sobre autores

L. Shestopalova

Pavlov Institute of Physiology, RAS

Autor responsável pela correspondência
Email: shestopalovalb@infran.ru
Rússia, Saint-Petersburg

Е. Petropavlovskaia

Pavlov Institute of Physiology, RAS

Email: shestopalovalb@infran.ru
Rússia, Saint-Petersburg

P. Letyagin

Pavlov Institute of Physiology, RAS

Email: shestopalovalb@infran.ru
Rússia, Saint-Petersburg

D. Salikova

Pavlov Institute of Physiology, RAS

Email: shestopalovalb@infran.ru
Rússia, Saint-Petersburg

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2. Fig. 1. Stimulus structure, ERPs to the motion onset and offset, layout of the recording sites. (a) – the structure of the dichotic stimulus within a single trial. X axis is time (ms), Y axis is interaural delay (ITD, μs). Dashed rectangles outline 500-ms time intervals (100 ms before and 400 ms after) around the events under consideration. (б) – left panel shows the ERPs elicited by the first ITD change at 500 ms after the motion onset (MOR), right panel shows the ERPs elicited by omission of motion at 8500 ms after 8 cyclic location changes (OSR). Curves of different shades represent responses for the three angular positions relative to the head midline. The ERPs were averaged between symmetric left-side and right-side stimuli, over the central electrode cluster and across all subjects (n = 22). (в) – dashed lines highlight the electrode clusters used for analysis.

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3. Fig. 2. Difference wavelet spectrograms of brain activity at the onset of cyclic motion (n = 22), scalp distributions, and dynamics of theta rhythm. A, Б, B: time frequency representations of spectral perturbation (ERSP). Г, Д, Е: time frequency representations of phase coherence (ITC). (a) and (г) – difference wavelet spectrograms of activity over eight frontocentral electrodes (8Ц). The white line indicates the motion onset, and the black rectangle outlines the frequency and time windows used for averaging; (б) and (д) – topographies of ERSP and ITC of theta-oscillations (4 to 7 Hz), averaged over a 100-ms time windows. Dashed arrows indicate the direction of sound motion; (в) and (е) – grand-averaged curves of theta-ERSP and theta-ITC (n = 22) at three angular positions of motion onset (0, 45, and 90 deg), over three electrode clusters (left: 5Л, central: 8Ц, right: 5П).

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4. Fig. 3. Difference wavelet spectrograms of brain activity at the offset of cyclic motion (n = 22), scalp distributions, and dynamics of theta rhythm. The panel arrangement and labels are the same as in Fig. 2. The white line on the wavelet spectrograms indicates the time of the motion offset.

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5. Fig. 4. The effect of motion onset position on the ERSP and ITC of theta oscillations in three electrode clusters. Dashed and solid lines indicate statistically significant differences (p < 0.05 and p < 0.01, respectively).

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