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Le mouvement s'arrêtait à 60% de la trajectoire et la tâche des sujets étaient de déterminer la position finale de la cible En bas : Moyenne et erreur standard de l'erreur spatiale (en mm) entre la position donnée par le sujet et la position réelle de la cible en fonction de la cinématique du mouvement Adaptée de « Anticipating the terminal position of an observed action: Effect of kinematic, structural, and identity information, Figure 3 : En haut : Représentation schématique de la procédure expérimentale. Les sujets voyaient sur un écran une séquence animée représentant un mouvement de pointage associé à différentes cinématiques, p.22, 2011. ,
Figure 8 : schéma représentant l'intervention d'une résonance motrice lorsque le sujet observe une action (partie gauche de la figure) et d'une résonance perceptive lorsque le sujet produit une action (partie droite de la figure) Reproduit de " Perceptual resonance: action-induced modulation of perception, Bosbach et Prinz Trends in Cognitive Sciences, pp.350-381, 2007. ,
Adapté de « Perception and production of biological movement in patients with early periventricular brain lesions, Figure, vol.10, pp.695-697, 2003. ,
Les nouveaux nés étaient assis sur un siège rigide face à deux écrans Une caméra placée au centre des écrans permettait de filmer le regard des nouveaux nés. Sur chaque écran la séquence apparaissait pendant 1 minute avec une inversion de la position des séquences au bout de 30s. B) Extraits statiques des différentes séquences animées utilisées durant l'expérience. Reproduit de « Preference for Point-Light Human Biological Motion in Newborns: Contribution of Translational Displacement, Figure Developmental Psychology, vol.11, pp.115-155, 2014. ,
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la perception de mouvements biologiques représentant un marcheur. RMS indique les différences entre l'activation obtenue pour les séquences animées représentant un marcheur et les séquences animées représentant un mouvement de marche mélangé Adapté de « Sex differences in the neuromagnetic cortical response to biological motion, Figure 14 : Illustrations des différences significatives obtenues chez les hommes et les femmes lors de, pp.3470-3471, 2015. ,
A) procédure utilisée. B) Moyennes et erreurs types des temps de mouvements mesurés en pré-test et posttest dans le groupe contrôle et le groupe immobilisé. C) Moyennes et erreur types de l'indice d'amélioration entre pré-test et post test pour le groupe contrôle et le groupe immobilisé Adapté de « Short-term upper limb immobilization affects action-words understanding, Procédure (A) et Résultats, p.57 ,
A) Procédure utilisée dans l'ensemble des essais Dans l'exemple un nom doit être généré, le contexte étant donné par le sujet (souris) et le verbe (mange). B) résultats obtenus lors de la génération des noms et des verbes Adapté de « Neural correlates of generating visual nouns and motor verbs in a minimal phrase context» de Khader, Figure Brain Research, vol.20, pp.122-132, 2010. ,
A) Déroulement d'un essai. B) images statiques représentant les différentes vidéos utilisées au cours de l'expérience. Les images du haut représentent les vidéos contenant les actions humaines avec les points gris représentant l'action et les points blancs représentant le masque (dans l'expérience tous les points étaient blancs) et les images du bas représentent les vidéos ne contenant pas d'action humaines Repris de « Reading action word affects the visual perception of biological movements, Figure Acta Psychologica, vol.21, p.67, 2011. ,
pour le pourcentage de bonnes réponses et le temps de réponse dans les différentes conditions. Les barres indiquent les erreurs standards et les accolades des différences significatives. Repris de « Reading action word affects the visual perception of biological movements, Figure Acta Psychologica, vol.22, p.333, 2011. ,
pour la tâche de décision lexicale (A) et la tâche de décision de mouvement (B) Repris de « Are judgements for action verbs and point-light human actions equivalent Cognitive Processing, p 61, Figure, vol.23, p.69, 2015. ,
A) moyenne du pourcentage de bonnes réponses (a) et des temps de réponse (b) pour les pseudo-stimuli (pseudo-noms, pseudo-verbes et pseudo-action) et les stimuli valides (noms, verbes et actions) Les barres indiquent les erreurs standards et les astérisques des différences significatives. B) Corrélations obtenues entre les performances pour juger des mots (voir graph a pour verbes et graph b pour noms) et la performance pour juger des actions ainsi que concernant la performance pour juger de noms et des verbes (c) Adapté de « Are judgements for action verbs and point-light human actions equivalent, Figure Cognitive Processing, vol.24, pp.61-62, 2015. ,
en ce qui concerne les capacités de détection (A) et les temps de réponse (B) Les barres représentent les erreurs standards Reproduit de « Sentences plausibility influences the link between action words and the perception of biological movements, Figure Psychological Research, vol.25, p.76, 2016. ,