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Professor David Alais is an academic affiliated with the School of Psychology at the University of Sydney, within the Faculty of Science. His research focuses on multisensory processing, visual perception, and cognitive neuroscience, with a particular emphasis on binocular rivalry, tactile adaptation, and the interplay between sensory systems and motor actions. He has contributed to understanding how self-motion signals (e.g., walking, head rotation) modulate perception and cognition, including studies on visual working memory, audiovisual synchrony, and serial dependence effects in aesthetic judgments.
His educational background is not explicitly stated in the provided texts, but his extensive publication history and grants suggest advanced training in neuroscience and psychology. Recent grants include investigations into 'Seeing the world step by step: Perceptual sensitivity rises and falls in time with the gait cycle' (2024) and 'Flexibility to multisensory contextual information in people with sensory disabilities' (2023), both highlighting his commitment to studying adaptive sensory mechanisms in real-world contexts.
Research interests involve exploring how the brain integrates sensory inputs (e.g., vision, audition, touch) and how motor activities influence perceptual experiences. For instance, his work on 'battle of the Mondrians' and 'CFS-crafter' tools demonstrates an interest in interocular suppression and experimental methodologies. Articles frequently address serial dependence across domains (face attractiveness, food images, auditory stimuli), suggesting a focus on perceptual history and decision-making processes.
Professor Alais has not explicitly listed scientific awards in the provided texts. He is involved in developing open-source research tools like the CFS-crafter for continuous flash suppression experiments. His advising and grants reflect a dedication to collaborative and interdisciplinary research, though current student names are not provided here. His lab work centers on multisensory integration, particularly how locomotion and vestibular signals affect perception, with implications for neuropsychology, sports science, and clinical applications.
