11 research outputs found

    The brain dynamics of architectural affordances during transition.

    Full text link
    Action is a medium of collecting sensory information about the environment, which in turn is shaped by architectural affordances. Affordances characterize the fit between the physical structure of the body and capacities for movement and interaction with the environment, thus relying on sensorimotor processes associated with exploring the surroundings. Central to sensorimotor brain dynamics, the attentional mechanisms directing the gating function of sensory signals share neuronal resources with motor-related processes necessary to inferring the external causes of sensory signals. Such a predictive coding approach suggests that sensorimotor dynamics are sensitive to architectural affordances that support or suppress specific kinds of actions for an individual. However, how architectural affordances relate to the attentional mechanisms underlying the gating function for sensory signals remains unknown. Here we demonstrate that event-related desynchronization of alpha-band oscillations in parieto-occipital and medio-temporal regions covary with the architectural affordances. Source-level time-frequency analysis of data recorded in a motor-priming Mobile Brain/Body Imaging experiment revealed strong event-related desynchronization of the alpha band to originate from the posterior cingulate complex, the parahippocampal region as well as the occipital cortex. Our results firstly contribute to the understanding of how the brain resolves architectural affordances relevant to behaviour. Second, our results indicate that the alpha-band originating from the occipital cortex and parahippocampal region covaries with the architectural affordances before participants interact with the environment, whereas during the interaction, the posterior cingulate cortex and motor areas dynamically reflect the affordable behaviour. We conclude that the sensorimotor dynamics reflect behaviour-relevant features in the designed environment

    Sensory-motor brain dynamics reflect architectural affordances

    Full text link
    Anticipating meaningful actions in the environment is an essential function of the brain. Such predictive mechanisms originate from the motor system and allow for inferring actions from environmental affordances, the potential to act within a specific environment. Using architecture, we provide a unique perspective to the abiding debate in cognitive neuroscience and philosophy on whether cognition depends on movement or is decoupled from our physical structure. To investigate cognitive processes associated with architectural affordances, we used a Mobile Brain/Body Imaging approach recording brain activity synchronized to head-mounted virtual reality. Participants perceived and acted upon virtual transitions ranging from non-passable to easily passable. We demonstrate that early sensory brain activity, upon revealing the environment and before actual movement, differed as a function of affordances. Additionally, movement through transitions was preceded by a motor-related negative component also depended on affordances. Our results suggest that potential actions afforded by an environment influence perception

    Sensorimotor brain dynamics reflect architectural affordances

    Full text link
    © 2019 National Academy of Sciences. All rights reserved. Anticipating meaningful actions in the environment is an essential function of the brain. Such predictive mechanisms originate from the motor system and allow for inferring actions from environmental affordances, and the potential to act within a specific environment. Using architecture, we provide a unique perspective on the ongoing debate in cognitive neuroscience and philosophy on whether cognition depends on movement or is decoupled from our physical structure. To investigate cognitive processes associated with architectural affordances, we used a mobile brain/body imaging approach recording brain activity synchronized to head-mounted displays. Participants perceived and acted on virtual transitions ranging from nonpassable to easily passable. We found that early sensory brain activity, on revealing the environment and before actual movement, differed as a function of affordances. In addition, movement through transitions was preceded by a motor-related negative component that also depended on affordances. Our results suggest that potential actions afforded by an environment influence perception

    Environmental design and human performance. A literature review

    No full text
    Ambient conditions inside the buildings may work as positive stimuli for occupants, or as stressors, given that the human body is regulated by physiological and psychological processes, that react to the physical factors. So, air, warmth or cold, lighting, daylight and views, sound and acoustic setting, layout and building details, must be seen today as important architecture elements to manage and control for designing places not only healthy and comfortable, but also effective and productive, because it may contribute to human performance and productivity. However, while references on occupant health and comfort in buildings results plentiful, literature on the effects of physical factors on human performance appears dated, scarce and inhomogeneous, and thus difficult to consult. The paper presents a literature review aimed at starting a state of the art about effects of physical factors of building interiors on occupant’s performance. Particularly, the purpose is to overview environmental conditions and interior details of buildings, that have been experimented and resulted to have effect on occupant performance and ability, considering which category of occupant have been involved and which kind of ability have been observed; in which kind of buildings these observations have been made. As result, an updated selection of research about effects of buildings interiors feature on occupant performance is identified, based on which more confirmed research aspects emerge and those to be further developed detected
    corecore