Fig. 35.1 Echo-acoustic sensitivity to target range. Colour bars represent performances of individual subjects To solve this task, subjects produced relatively short vocalisations (tongue clicks) with durations between 3 and…
Fig. 33.1 The top panel shows N 0 S 0 (circles) and N 0 S π (squares) thresholds as a function of the frequency separation between target and noise masker…
Fig. 15.1 Schematic spectrograms of the stimuli used for the symmetric condition (top) and asymmetric condition (bottom). See text for details A major motivation for this study was to provide…
Fig. 34.1 Top-view schematic examples of the potential spatial percepts of an acoustic scene with a point source presented in front of the listener. Panel a shows a punctate percept…
Fig. 8.1 Average signal detection thresholds for five participants as a function of the masker/precursor level (a). The open circles show the thresholds for the masker alone, the filled squares…
Fig. 29.1 Target azimuth tuning functions of one IC neuron under altered-cue and standard conditions for a single source (a) and with a central interferer (b). (c) Target ITD tuning…
Fig. 58.1 Mean percent correct performance, transformed into rationalized arcsine units (RAU; Studebaker 1985) and plotted as a function of the angular separation between primary and secondary talkers. Chance performance…
Fig. 24.1 (a) 5 kHz tone stimulus (top) and neurophonic response (bottom). (b) 5 ms interval of the neurophonic at tone onset (Modified from Kuokkanen et al. 2010) 3.1 Dorsoventral…
Fig. 18.1 The tritone paradox and contextual modulation of the perceived change in pitch. (a) The ambiguity in the tritone paradox stems from the Shepard tones’ repetitive structure (see Sect….
Fig. 49.1 (a) Results for Experiment 1. Voice recognition performance is plotted as mean d′ over the group of listeners (N = 14) as a function of the gate duration….
