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Cynophobic Fear Adaptively Extends Peri-Personal Space

Taffou, Marine, Viaud-Delmon, Isabelle·2014·Frontiers in Psychiatry

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Figure 1 Audiotactile test. (A). Description of a trial. (B) Experimental setup. Participants received a tactile stimulus at their hand while task-irrelevant sounds (threatening or non-threatening) approached them from the rear hemi-field, either in the left or the right hemi-space. When participants perceived the tactile stimulation, the looming sounds were located at different distances; this was accomplished by delivering the tactile stimulus at different temporal delays starting from sound onset (Tbefore, T1, T2, T3, T4, T5, Tafter). The sound source location at each temporal delay condition is indicated by triangles (black triangles for the left hemi-space and white triangles for the right hemi-space).
Figure 1 Audiotactile test. (A). Description of a trial. (B) Experimental setup. Participants received a tactile stimulus at their hand while task-irrelevant sounds (threatening or non-threatening) approached them from the rear hemi-field, either in the left or the right hemi-space. When participants perceived the tactile stimulation, the looming sounds were located at different distances; this was accomplished by delivering the tactile stimulus at different temporal delays starting from sound onset (Tbefore, T1, T2, T3, T4, T5, Tafter). The sound source location at each temporal delay condition is indicated by triangles (black triangles for the left hemi-space and white triangles for the right hemi-space).CC BY · PubMed Central
Figure 2 Emotional evaluation task results. This figure depicts the perceived arousal and valence scores (mean ± SEM) reported by the dog-fearful (in black, nDF = 15) and non-fearful (in white, nNF = 15) groups in response to the non-threatening (circles) and threatening (squares) sounds, in the pre- (left) and post-audiotactile task (right) emotional evaluations. The perceived valence of the dog sound was more negative than the perceived valence of the sheep sound within each group and in both emotional evaluations. Moreover, within each group, while the sheep sound was rated as positive or neutral, the dog sound was rated as negative.
Figure 2 Emotional evaluation task results. This figure depicts the perceived arousal and valence scores (mean ± SEM) reported by the dog-fearful (in black, nDF = 15) and non-fearful (in white, nNF = 15) groups in response to the non-threatening (circles) and threatening (squares) sounds, in the pre- (left) and post-audiotactile task (right) emotional evaluations. The perceived valence of the dog sound was more negative than the perceived valence of the sheep sound within each group and in both emotional evaluations. Moreover, within each group, while the sheep sound was rated as positive or neutral, the dog sound was rated as negative.CC BY · PubMed Central
Figure 3 Main experiment results. Participants performed the audiotactile task by responding to a tactile stimulation while a task-irrelevant threatening (dog growling) or non-threatening (sheep bleating) sound was looming toward them. This figure reports the mean tactile reactions times (±SEM) for the dog-fearful (top graph) and non-fearful group (bottom graph) in the threatening (black square) or non-threatening (white circles) sound conditions as a function of the delay of tactile stimulation delivery from sound onset. Reaction times were fitted with a sigmoid function. The inflection point abscissa of the sigmoid curves was computed as a measure of the temporal delay, i.e., the distance, at which sound starts affecting tactile RTs and was analyzed in order to quantify PPS boundaries. (A) Dog-fearful group results. The abscissa of the curve’s inflection point was lower in the threatening sound condition (1266.81 ± 287.57 ms, black vertical line) compared to the non-threatening sound condition (1685.49 ± 548.41 ms, dashed vertical line) meaning that PPS boundaries were farther from participants in the presence of the dog sound than in the presence of the sheep sound. (B) Non-fearful group results. The abscissa of the curve’s inflection point did not significantly differ between the threatening (1717.70 ± 413.23 ms, black vertical line) and the non-threatening (1675.15 ± 596.56 ms, dashed vertical line) sound conditions suggesting that participants’ PPS size was similar in the presence of the dog and the sheep sounds. While the dog-fearful group’s PPS was larger than the non-fearful group’s PPS in the presence of the dog sound, there was no significant difference in PPS size between groups in the presence of the sheep sound.
Figure 3 Main experiment results. Participants performed the audiotactile task by responding to a tactile stimulation while a task-irrelevant threatening (dog growling) or non-threatening (sheep bleating) sound was looming toward them. This figure reports the mean tactile reactions times (±SEM) for the dog-fearful (top graph) and non-fearful group (bottom graph) in the threatening (black square) or non-threatening (white circles) sound conditions as a function of the delay of tactile stimulation delivery from sound onset. Reaction times were fitted with a sigmoid function. The inflection point abscissa of the sigmoid curves was computed as a measure of the temporal delay, i.e., the distance, at which sound starts affecting tactile RTs and was analyzed in order to quantify PPS boundaries. (A) Dog-fearful group results. The abscissa of the curve’s inflection point was lower in the threatening sound condition (1266.81 ± 287.57 ms, black vertical line) compared to the non-threatening sound condition (1685.49 ± 548.41 ms, dashed vertical line) meaning that PPS boundaries were farther from participants in the presence of the dog sound than in the presence of the sheep sound. (B) Non-fearful group results. The abscissa of the curve’s inflection point did not significantly differ between the threatening (1717.70 ± 413.23 ms, black vertical line) and the non-threatening (1675.15 ± 596.56 ms, dashed vertical line) sound conditions suggesting that participants’ PPS size was similar in the presence of the dog and the sheep sounds. While the dog-fearful group’s PPS was larger than the non-fearful group’s PPS in the presence of the dog sound, there was no significant difference in PPS size between groups in the presence of the sheep sound.CC BY · PubMed Central

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Metadata

Authors
Taffou, M., & Viaud-Delmon, I.
Venue
Frontiers in Psychiatry
Published
2014-09-03
Volume
5
ISSN
1664-0640
Cited by
92
References
4

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Taffou, M., & Viaud-Delmon, I. (2014). Cynophobic Fear Adaptively Extends Peri-Personal Space. Frontiers in Psychiatry. https://doi.org/10.3389/fpsyt.2014.00122