Composite body movements modulate numerical cognition: Evidence from the motion–numerical compatibility effect

A recent hierarchical model of numerical processing, initiated by Fischer and Brugger (2011) and Fisher (2012), suggested that situated factors, such as different body postures and body movements, can influence the magnitude representation and bias numerical processing. Indeed, Loetscher and colleag...

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Main Authors: Xiaorong eCheng, Hui eGe, Deljfina eAndoni, Xianfeng eDing, Zhao eFan
Format: Article
Language:English
Published: Frontiers Media S.A. 2015-11-01
Series:Frontiers in Psychology
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fpsyg.2015.01692/full
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author Xiaorong eCheng
Hui eGe
Deljfina eAndoni
Xianfeng eDing
Zhao eFan
author_facet Xiaorong eCheng
Hui eGe
Deljfina eAndoni
Xianfeng eDing
Zhao eFan
author_sort Xiaorong eCheng
collection DOAJ
description A recent hierarchical model of numerical processing, initiated by Fischer and Brugger (2011) and Fisher (2012), suggested that situated factors, such as different body postures and body movements, can influence the magnitude representation and bias numerical processing. Indeed, Loetscher and colleagues (2008) found that participants’ behavior in a random number generation (RNG) task was biased by head rotations. More small numbers were reported after leftward than rightward head turns, i.e. a motion–numerical compatibility effect. Here, by carrying out two experiments, we explored whether similar motion–numerical compatibility effects exist for movements of other important body components, e.g. arms, and for composite body movements as well, which are basis for complex human activities in many ecologically meaningful situations. In Experiment 1, a motion-numerical compatibility effect was observed for lateral rotations of two body components, i.e., the head and arms. Relatively large numbers were reported after making rightward compared to leftward movements for both lateral head and arm turns. The motion-numerical compatibility effect was observed again in Experiment 2 when participants were asked to perform composite body movements of congruent movement directions, e.g., simultaneous head left turns and arm left turns. However, it disappeared when the movement directions were incongruent, e.g., simultaneous head left turns and arm right turns. Taken together, our results extended Loetscher et al.'s (2008) finding by demonstrating that their effect is effector-general and exists for arm movements. Moreover, our study reveals for the first time that the impact of spatial information on numerical processing induced by each of the two sensorimotor-based situated factors, e.g., a lateral head turn and a lateral arm turn, can cancel each other out.
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spelling doaj.art-02b4a2a25b7b486bb2cf906a10f2cbd92022-12-22T01:01:08ZengFrontiers Media S.A.Frontiers in Psychology1664-10782015-11-01610.3389/fpsyg.2015.01692160342Composite body movements modulate numerical cognition: Evidence from the motion–numerical compatibility effectXiaorong eCheng0Hui eGe1Deljfina eAndoni2Xianfeng eDing3Zhao eFan4School of Psychology, Central China Normal UniversitySchool of Psychology, Central China Normal UniversitySchool of Psychology, Central China Normal UniversitySchool of Psychology, Central China Normal UniversitySchool of Psychology, Central China Normal UniversityA recent hierarchical model of numerical processing, initiated by Fischer and Brugger (2011) and Fisher (2012), suggested that situated factors, such as different body postures and body movements, can influence the magnitude representation and bias numerical processing. Indeed, Loetscher and colleagues (2008) found that participants’ behavior in a random number generation (RNG) task was biased by head rotations. More small numbers were reported after leftward than rightward head turns, i.e. a motion–numerical compatibility effect. Here, by carrying out two experiments, we explored whether similar motion–numerical compatibility effects exist for movements of other important body components, e.g. arms, and for composite body movements as well, which are basis for complex human activities in many ecologically meaningful situations. In Experiment 1, a motion-numerical compatibility effect was observed for lateral rotations of two body components, i.e., the head and arms. Relatively large numbers were reported after making rightward compared to leftward movements for both lateral head and arm turns. The motion-numerical compatibility effect was observed again in Experiment 2 when participants were asked to perform composite body movements of congruent movement directions, e.g., simultaneous head left turns and arm left turns. However, it disappeared when the movement directions were incongruent, e.g., simultaneous head left turns and arm right turns. Taken together, our results extended Loetscher et al.'s (2008) finding by demonstrating that their effect is effector-general and exists for arm movements. Moreover, our study reveals for the first time that the impact of spatial information on numerical processing induced by each of the two sensorimotor-based situated factors, e.g., a lateral head turn and a lateral arm turn, can cancel each other out.http://journal.frontiersin.org/Journal/10.3389/fpsyg.2015.01692/fullsituated cognitionNumerical cognitionRandom Number GenerationComposite body movementsLateral head / arm turns
spellingShingle Xiaorong eCheng
Hui eGe
Deljfina eAndoni
Xianfeng eDing
Zhao eFan
Composite body movements modulate numerical cognition: Evidence from the motion–numerical compatibility effect
Frontiers in Psychology
situated cognition
Numerical cognition
Random Number Generation
Composite body movements
Lateral head / arm turns
title Composite body movements modulate numerical cognition: Evidence from the motion–numerical compatibility effect
title_full Composite body movements modulate numerical cognition: Evidence from the motion–numerical compatibility effect
title_fullStr Composite body movements modulate numerical cognition: Evidence from the motion–numerical compatibility effect
title_full_unstemmed Composite body movements modulate numerical cognition: Evidence from the motion–numerical compatibility effect
title_short Composite body movements modulate numerical cognition: Evidence from the motion–numerical compatibility effect
title_sort composite body movements modulate numerical cognition evidence from the motion numerical compatibility effect
topic situated cognition
Numerical cognition
Random Number Generation
Composite body movements
Lateral head / arm turns
url http://journal.frontiersin.org/Journal/10.3389/fpsyg.2015.01692/full
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AT deljfinaeandoni compositebodymovementsmodulatenumericalcognitionevidencefromthemotionnumericalcompatibilityeffect
AT xianfengeding compositebodymovementsmodulatenumericalcognitionevidencefromthemotionnumericalcompatibilityeffect
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