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Cross-Modal Modulation of Spatial Attention by Emotion

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Abstract

A huge amount of environmental stimulus input constantly enters the brain via the different sensory channels of the organism. Due to its limited capacity, the brain cannot process all the inputs exhaustively, and thus needs to select a subset of stimuli for further processing at the cost of others. Emotional stimuli, for example social signals such as angry faces or happy voices, are privileged in the competition for attentional processing resources: the neural representation of emotional stimuli is stronger and more robust compared to neutral stimuli; emotional stimuli are prioritized in perception, draw attention more quickly, and impede attentional disengagement longer than neutral stimuli. The representations of emotional stimuli are thus intensified at different stages of processing. This generates a vivid conscious percept allowing organisms to prepare and implement adequate responses. By modulating frontoparietal attention systems, emotional stimuli also impact on the perceptual processing of subsequent stimuli appearing at the same location as an emotional stimulus. Such neurocognitive selection mechanisms thus drastically reorganize our representation and perception of the environment by focusing on emotionally and motivationally relevant events and their immediate spatial and temporal periphery.

Until now, the effects of emotional stimuli on attentional processes have mainly been described within a sensory modality, most frequently using pictures of emotional stimuli to modulate visuospatial attention. However, in real-life situations humans typically encounter simultaneous input to several different senses, such as vision, audition, olfaction, and touch. Signals entering these different channels might originate from a common, emotionally relevant source. To receive maximal benefit from multimodal sensory input, the brain must coordinate the input appropriately so that signals from a relevant common source are rapidly processed and integrated across the different input channels to allow for the preparation and implementation of adaptive responses.

We review the current evidence for cross-modal modulation of spatial attention by emotional information. Presenting data from behavioral and electrophysiological investigations in human subjects we illustrate, for example, the effects of emotional voices on visual attention and the effects of emotional images on haptic attention. The data converge to show that emotion modulates attentional processing across sensory modalities by boosting early sensory stages of processing, potentially implemented by a large-scale neural network centered around the amygdala, providing direct and indirect top-down signals to sensory pathways and frontoparietal pathways involved in exogenous and endogenous attentional selection processes.

This rapid cross-modal integration at multiple stages of processing may reflect a fundamental principle of human brain organization: to prioritize the processing of emotionally relevant stimuli, even if they are outside the focus of spatial attention, thus facilitating the multimodal assessment of emotionally relevant stimuli in the environment.

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Brosch, T., Grandjean, D. (2013). Cross-Modal Modulation of Spatial Attention by Emotion. In: Belin, P., Campanella, S., Ethofer, T. (eds) Integrating Face and Voice in Person Perception. Springer, New York, NY. https://doi.org/10.1007/978-1-4614-3585-3_11

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