Imitation, deliberation, and mindreading are characteristically human sociocognitive skills. Research on imitation and its role in social cognition is flourishing across various disciplines. Imitation is surveyed in this target article under headings of behavior, subpersonal mechanisms, and functions of imitation. A model is then advanced within which many of the developments surveyed can be located and explained. The shared circuits model (SCM) explains how imitation, deliberation, and mindreading can be enabled by subpersonal mechanisms of control, mirroring, and simulation. It is (...) cast at a middle, functional level of description, that is, between the level of neural implementation and the level of conscious perceptions and intentional actions. The SCM connects shared informational dynamics for perception and action with shared informational dynamics for self and other, while also showing how the action/perception, self/other, and actual/possible distinctions can be overlaid on these shared informational dynamics. It avoids the common conception of perception and action as separate and peripheral to central cognition. Rather, it contributes to the situated cognition movement by showing how mechanisms for perceiving action can be built on those for active perception.;>;>The SCM is developed heuristically, in five layers that can be combined in various ways to frame specific ontogenetic or phylogenetic hypotheses. The starting point is dynamic online motor control, whereby an organism is closely attuned to its embedding environment through sensorimotor feedback. Onto this are layered functions of prediction and simulation of feedback, mirroring, simulation of mirroring, monitored inhibition of motor output, and monitored simulation of input. Finally, monitored simulation of input specifying possible actions plus inhibited mirroring of such possible actions can generate information about the possible as opposed to actual instrumental actions of others, and the possible causes and effects of such possible actions, thereby enabling strategic social deliberation. Multiple instances of such shared circuits structures could be linked into a network permitting decomposition and recombination of elements, enabling flexible control, imitative learning, understanding of other agents, and instrumental and strategic deliberation. While more advanced forms of social cognition, which require tracking multiple others and their multiple possible actions, may depend on interpretative theorizing or language, the SCM shows how layered mechanisms of control, mirroring, and simulation can enable distinctively human cognitive capacities for imitation, deliberation, and mindreading. (shrink)

Imitation, deliberation, and mindreading are characteristically human sociocognitive skills. Research on imitation and its role in social cognition is flourishing across various disciplines; it is here surveyed under headings of behavior, subpersonal mechanisms, and functions of imitation. A model is then advanced within which many of the developments surveyed can be located and explained. The shared circuits model explains how imitation, deliberation, and mindreading can be enabled by subpersonal mechanisms of control, mirroring and simulation. It is cast at a middle, (...) functional level of description, between the level of neural implementation and the level of conscious perceptions and intentional actions. The shared circuits model connects shared informational dynamics for perception and action with shared informational dynamics for self and other, while also showing how the action/perception, self/other and actual/possible distinctions can be overlaid on these shared informational dynamics. It avoids the common conception of perception and action as separate and peripheral to central cognition. Rather, it contributes to the situated cognition movement by showing how mechanisms for perceiving action can be built on those for active perception. (shrink)

The same neural structures involved in the unconscious modeling of our acting body in space also contribute to our awareness of the lived body and of the objects that the world contains. Neuroscientific research also shows that there are neural mechanisms mediating between the multi-level personal experience we entertain of our lived body, and the implicit certainties we simultaneously hold about others. Such personal and body-related experiential knowledge enables us to understand the actions performed by others, and to directly decode (...) the emotions and sensations they experience. A common functional mechanism is at the basis of both body awareness and basic forms of social understanding: embodied simulation. It will be shown that the present proposal is consistent with some of the perspectives offered by phenomenology. (shrink)

Current theories of social cognition are mainly based on a representationalist view. Moreover, they focus on a rather sophisticated and limited aspect of understanding others, i.e. on how we predict and explain others’ behaviours through representing their mental states. Research into the ‘social brain’ has also favoured a third-person paradigm of social cognition as a passive observation of others’ behaviour, attributing it to an inferential, simulative or projective process in the individual brain. In this paper, we present a concept of (...) social understanding as an ongoing, dynamical process of participatory sense-making and mutual incorporation. This process may be described (1) from a dynamical agentive systems point of view as an interaction and coordination of two embodied agents; (2) from a phenomenological approach as a mutual incorporation, i.e. a process in which the lived bodies of both participants extend and form a common intercorporality. Intersubjectivity, it is argued, is not a solitary task of deciphering or simulating the movements of others but means entering a process of embodied interaction and generating common meaning through it. This approach will be further illustrated by an analysis of primary dyadic interaction in early childhood. (shrink)

Der Körper hat Konjunktur. Als ausgestellter, verfüg- und verführbarer begegnet er uns täglichim Übermaß. Es war nur eine Frage der Zeit, bis im Spiel der sich in den Wissenschafteneinander ablösenden turns auch ein corporeal (oder body) turn ausgerufen würde. Dabeibleibt im genannten turn der Gegenstand der Untersuchung nicht selten reduziert auf das, wasman im deutschen Sprachgebrauch »Körper« nennt: ein physisches Substrat, das wie ein Dingunter Dingen beschreibbar ist. Gegen diese Verkürzung stellt der Begri des »Leibes«,spätestens seit Edmund Husserl, eine präzise (...) theoretische Intervention in die wissenschaftlicheund philosophische Diskussion um Körper und Körperlichkeit dar: Dem objektiv beobachtbaren Körper, den wir haben, wird der lebendige Leib, der wir sind, gegenübergestellt. Diesem »Leib«, seiner Geschichte, seinen Varianten und seinem Versprechen gehen dieAutoren der vorliegenden Beiträge nach. Inhaltsübersicht Emmanuel Alloa/Thomas Bedorf/Christian Grüny/Tobias Nikolaus Klass: Einleitung I. Der Leibbegriff in der Phänomenologie Emmanuel Alloa / Natalie Depraz: Edmund Husserl – „Ein merkwürdig unvollkommenkonstituiertes Ding“ – Stefan Kristensen: Maurice Merleau-Ponty I – Körperschema undleibliche Subjektivität – Emmanuel Alloa: Maurice Merleau-Ponty II – Fleisch und Dierenz – David Espinet: Martin Heidegger – Der leibliche Sinn von Sein – Thomas Bedorf: EmmanuelLevinas – Der Leib des Anderen – Karel Novotný: Körper, Leib, Aektivität in Jan Pato č kasPhänomenologie der natürlichen Welt – Julia Scheidegger: Michel Henry – TranszendentaleLeiblichkeit – Jörg Sternagel: Bernhard Waldenfels – Responsivität des Leibes – Kerstin Andermann: Hermann Schmitz – Leiblichkeit als kommunikatives Selbst- und Weltverhältnis II. Zur Geschichte des Leibbegris Emmanuel Alloa: Archaische Leiblichkeit. Die griechische Antike und die Entdeckung desKörpers – Theresia Heimerl: Der Leib Christi und der Körper des Christen: Körper und Leib alszentrale Problemzonen des Christentums – Marc Rölli: Philosophische Anthropologie im 19. Jahrhundert – Zwischen Leib und Körper – Tobias Nikolaus Klass: Friedrich Nietzsche – Denkenam „Leitfaden des Leibes“ – Andreas Cremonini: Sigmund Freud – Der gelebte vs. derphantasmatische Leib – Uta Noppeney: Kurt Goldstein und Frederik Buytendijk – Der Leib-Begri in der organismischen Biologie – Volker Schürmann: Max Scheler und Helmuth Plessner– Leiblichkeit in der Philosophischen Anthropologie – Marion Lauschke: Ernst Cassirer und AbyWarburg – Kulturanthropologie III. Grenzen und Kritik des Leibbegris Christian Grüny: Theodor W. Adorno – Soma und Sensorium – Ulrich Johannes Schneider: Michel Foucault – Der Körper und die Körper – Burkhard Liebsch: Paul Ricoeur – Das leiblicheSelbst begegnet dem Widerstand des Anderen – Mirjam Schaub: Gilles Deleuze – Was weiß ein„Körper ohne Organe“ vom Leib? – Kathrin Busch: Jean-Luc Nancy – Exposition und Berührung– Shaun Gallagher: Embodiment: Leiblichkeit in den Kognitionswissenschaften – Marie-Luise Angerer: Gender und Performance – Ist leibliche Identität ein Konstrukt? – Thomas Bedorf/Selin Gerlek: Praxistheorien – Leibkörperliche Praktiken im Vollzug. (shrink)

Humans, being highly social creatures, rely heavily on the ability to perceive what others are doing and to infer from gestures and expressions what others may be intending to do. These perceptual skills are easily mastered by most, but not all, people, in large part because human action readily communicates intentions and feelings. In recent years, remarkable advances have been made in our understanding of the visual, motoric, and affective influences on perception of human action, as well as in the (...) elucidation of the neural concomitants of perception of human action. This article reviews those advances and, where possible, draws links among those findings.Acronyms and DefinitionsApparent motion: perception of smooth motion from brief, successive exposures of static imagesChameleon effect: tendency for people to mimic the actions of others without even knowing itCommon coding principle: theory that perceiving and acting share common mental representationsDynamic noise: an array of randomly positioned dots that can camouflage perception of PL animations when the noise dots are sufficiently denseEvent-related potential : electrical brain activity registered from the scalpExtrastriate body area : brain region activated when a person views a human body or body partsFunctional magnetic resonance imaging : widely used technique that reveals brain activation patterns based on hemodynamic responses to neural activityInversion effect: difficulty of perceiving PL animations when they are shown upside downKinematics: analysis of the motions of objects without regard to the forces producing themMirror neurons: brain cells responsive when an animal engages in an activity or when it watches another animal engaged in that activityPoint-light animations: biological activity portrayed by small light tokens placed on the major body parts of an actorPositron emission tomography : brain imaging technique that uses radioactively labeled tracers to allow visualization of active brain areasSpatiotemporal jitter: means of degrading perception of PL animations, where the relative timing and positions of the moving dots are perturbedSuperior temporal sulcus : region of the cortex the posterior portion of which contains neurons selectively responsive to human activityTemplate-matching model: theory that perception of biological motion results from concatenation of static views of the bodyTranscranial magnetic stimulation : technique producing a brief disruption of neural processing. (shrink)

In this theoretical study we explore the concept of intentional-ity. Intentionality is the specific reference that mental phenomena have with respect to objects, also termed the 'aboutness' of cognitive acts. We discuss intentionality on the basis of self-organized pattern formation, a ubiquitous phenomenon in complex open systems. Dynamical systems theory provides an understanding of how emergent variables originate from microscopic variables. Control parameters comprise those external parameters and gradients that drive the systems they represent environmental inuences. The relationship between pattern (...) formation and control parameters therefore addresses the functioning of a system in its environment. Our hypothesis is that self-organizing systems exhibit intentionality-like capabilities in their responses to environmental inuences. This is modelled using differential calculus, by which we demonstrate how pattern formation reduces control parameters in an efficient manner. These ideas are applied to the complex system brain, using the Wilson-Cowan equations of axonal pulse rates in neural networks. (shrink)