62 research outputs found

    There or not there? A multidisciplinary review and research agenda on the impact of transparent barriers on human perception, action, and social behavior

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    Contains fulltext : 145066.pdf (publisher's version ) (Open Access)Through advances in production and treatment technologies, transparent glass has become an increasingly versatile material and a global hallmark of modern architecture. In the shape of invisible barriers, it defines spaces while simultaneously shaping their lighting, noise, and climate conditions. Despite these unique architectural qualities, little is known regarding the human experience with glass barriers. Is a material that has been described as being simultaneously there and not there from an architectural perspective, actually there and/or not there from perceptual, behavioral, and social points of view? In this article, we review systematic observations and experimental studies that explore the impact of transparent barriers on human cognition and action. In doing so, the importance of empirical and multidisciplinary approaches to inform the use of glass in contemporary architecture is highlighted and key questions for future inquiry are identified.17 p

    Modulations of event-related potentials by tactile negative priming

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    Negative Priming: Is Ignoring Amodal or Modality-Specific?

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    Effects of Auditory Evaluative Conditioning on the Tactile Self-Prioritization Effect

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    Master's thesis: Effects of affective valence on the prioritization of self-relevant stimuli (Experiment 1) incl. supplementary materials

    When vision influences the invisible distractor: tactile response compatibility effects require vision.

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    Research on the nature of crossmodal interactions between vision and touch has shown that even task-irrelevant visual information can support the processing of tactile targets. In the present study, we implemented a tactile variant of the Eriksen flanker task to investigate the influences of vision on the processing of tactile distractors. In particular, we analyzed whether the size of the flanker effect at the level of perceptual congruency and at the level of response compatibility would differ as a function of the availability of vision (Experiments 1 and 2). Tactile distractors were processed up to the level of response selection only if visual information was provided (i.e., no flanker effects were observed at the level of response compatibility for blindfolded participants). In Experiment 3, we manipulated whether the part of the body receiving the tactile target or distractor was visible, while the other body part was occluded from view. Flanker effects at the level of response compatibility were observed in both conditions, meaning that vision of either the body part receiving the tactile target or the body part receiving the tactile distractor was sufficient to further the processing of tactile distractors from the level of perceptual congruency to the level of response selection. Taken together, these results suggest that vision modulates tactile distractor processing because it results in the processing of tactile distractors up to the level of response selection

    You can't ignore what you can't separate: the effect of visually induced target-distractor separation on tactile selection.

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    Research suggests that vision of the body-part that happens to receive a tactile event enhances the processing of this stimulus. However, it would appear that only tactile distractors delivered to visible body-parts are processed up to the level of response selection. Here, we analyze whether vision or higher order cognitive processes influence the processing of tactile distractors. We compared the processing of distractors in a tactile variant of the Eriksen flanker task when the body-parts receiving target and distractor stimuli were separated by different types of barriers. Surprisingly, an impermeable barrier prevented tactile distractors from being processed up to the response level, irrespective of whether the barrier was transparent or opaque. By contrast, when an empty frame was placed between the participant's hands, distractors were processed up to the level of response selection. Hence, higher order cognition (here the visually induced representation of the target-distractor separation) influences the processing of tactile distractors. We discuss these results in the light of related findings from selective reaching experiments as well as in terms of Gestalt grouping
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