title: Asymmetric transfer effects between cognitive and affective task disturbances.
abstract: Task-irrelevant features of a stimulus can disturb performance on a given task, and this can occur for cognitive reasons such as irrelevant stimulus position, and affective reasons such as high stimulus valence. The human brain adapts to such disturbances in order to ensure successful task performance. Adaptations can occur in a transient manner in response to recent events, and they can also be sustained to account for overall probabilities of disturbances. Here, we study the mutual interplay between affective and cognitive task disturbances under conditions of sustained conflict adaptation. More precisely, we examined the trajectory of finger movements in a speeded classification task and investigated whether adaptation to a high probability of spatial disturbances transfers to the impact of affective disturbances (Experiment 1) and whether adaptation to a high probability of affective disturbances transfers to the impact of spatial disturbances (Experiment 2). Our observations point towards an asymmetric transfer from adaptation to affective onto the processing of cognitive disturbances, but not the other way around.
authors.affiliation: a Department of Psychology , Julius Maximilians University of Würzburg , Würzburg , Germany.
authors.forename: Robert
authors.initials: R
authors.lastname: Wirth
authors.affiliation: a Department of Psychology , Julius Maximilians University of Würzburg , Würzburg , Germany.
authors.forename: Roland
authors.initials: R
authors.lastname: Pfister
authors.affiliation: a Department of Psychology , Julius Maximilians University of Würzburg , Würzburg , Germany.
authors.forename: Wilfried
authors.initials: W
authors.lastname: Kunde
mesh_terms: D000223:Adaptation, Psychological; D000339:Affect; D003071:Cognition; D003220:Conflict, Psychological; D005260:Female; D006801:Humans; D008297:Male; D011597:Psychomotor Performance; D055815:Young Adult
keywords: Cognitive control; Conflict monitoring; Movement trajectories; Valence-based interruption