about
The uncontrolled manifold concept: identifying control variables for a functional taskDynamic pattern generation in behavioral and neural systemsDeveloping Dynamic Field Theory Architectures for Embodied Cognitive Systems with cedar.The distribution of neuronal population activation (DPA) as a tool to study interaction and integration in cortical representations.Dynamic interactions between visual working memory and saccade target selectionSensorimotor learning biases choice behavior: a learning neural field model for decision makingMoving toward a grand theory of development: in memory of Esther Thelen.Redundancy, self-motion, and motor control.Motor equivalence during multi-finger accurate force production.Temporal Asymmetry in Dark-Bright Processing Initiates Propagating Activity across Primary Visual Cortex.Analyzing variance in multi-degree-of-freedom movements: uncovering structure versus extracting correlations.A dynamic neural field model of visual working memory and change detection.Coordination of muscle torques stabilizes upright standing posture: an UCM analysis.A novel technology for investigating the dynamics of infant perseverative reaching.Timing, clocks, and dynamical systems.Swing it to the left, swing it to the right: enacting flexible spatial language using a neurodynamic framework.Moving to higher ground: The dynamic field theory and the dynamics of visual cognitionA layered neural architecture for the consolidation, maintenance, and updating of representations in visual working memory.A multi-joint model of quiet, upright stance accounts for the "uncontrolled manifold" structure of joint variance.A counterchange mechanism for the perception of motion.Motor equivalent control of the center of mass in response to support surface perturbations.Effect of accuracy constraint on joint coordination during pointing movements.Naturalistic arm movements during obstacle avoidance in 3D and the identification of movement primitives.Finger coordination during discrete and oscillatory force production tasks.Coupling of fingertip somatosensory information to head and body sway.The temporal dynamics of global-to-local feedback in the formation of hierarchical motion patterns: psychophysics and computational simulations.An embodied account of serial order: how instabilities drive sequence generation.Learning to recognize objects on the fly: a neurally based dynamic field approach.Using dynamic field theory to rethink infant habituation.A synergetic theory of environmentally-specified and learned patterns of movement coordination. II. Component oscillator dynamics.A synergetic theory of environmentally-specified and learned patterns of movement coordination. I. Relative phase dynamics.The influence of adaptation and stochastic fluctuations on spontaneous perceptual changes for bistable stimuli.Identification of the nonlinear state-space dynamics of the action-perception cycle for visually induced postural sway.Perceptual stability and the selective adaptation of perceived and unperceived motion directions.Shorter latencies for motion trajectories than for flashes in population responses of cat primary visual cortex.Self-organized pattern formation: experimental dissection of motion detection and motion integration by variation of attentional spread.Understanding finger coordination through analysis of the structure of force variabilityA Software Framework for Cognition, Embodiment, Dynamics, and Autonomy in Robotics: CedarA process account of the uncontrolled manifold structure of joint space variance in pointing movementsFrequency dependence of the action-perception cycle for postural control in a moving visual environment: relative phase dynamics
P50
Q28138160-D9B4F33B-3226-433B-898F-206DBC784A39Q28294684-07D7CA6C-43A1-4517-81CB-2A51555E950FQ30827065-3599E7C5-F3A3-4430-9842-5E8C2A655E14Q33819553-007DFF52-E41C-4B61-AC18-51328F31C071Q34197584-C56415E8-AFA8-4F7E-9FD0-7A45D84A5386Q34481816-8FEF5D01-98C5-49BF-99C4-6A8F71B91460Q34581851-798F744E-B662-430E-A319-B58549BA2F96Q34916554-A8062967-898B-4F90-BC26-0734E6E550C6Q34978428-1BB52CF3-94C5-4726-AA73-6E75CC0A2980Q36564553-F3DE76C1-BAC3-4E7D-AD48-8F93AF6285F3Q36917498-10F016CF-1E21-4C37-BB58-96B9C671483CQ37434937-D68571A1-8B9E-4A68-9E8B-7840D700CEDAQ39995119-AED13361-F676-4039-A60D-C9FC6251ACB5Q40135784-5AA20C03-8243-4306-A0D6-E0C1BCF3A2F9Q40664056-40E225ED-B001-4D54-AE3E-D593D9E1C20BQ41862665-9750396A-4854-4ED6-8165-363CC238EB8FQ42124809-60DF7FA7-531C-4B76-9EBC-5435201E4403Q42666054-1DA5C4D9-DDAF-44EA-B9C4-67B863F5E6E7Q45781308-9B458BE7-2DD4-4814-B761-32B483EE6415Q45914530-1BA425CE-7AEF-4CC8-9332-7394081F75D5Q48296727-68E8B214-709F-4F7E-9F09-272529F604C3Q48366837-514E809F-DA14-401D-AA82-7280F8660E4CQ48368782-A70C9DBE-BB39-4F19-AF10-854B39F87363Q48478173-9B8C74CE-EC32-4958-868E-1E6F9810B2D1Q48778761-2DCAAC7F-1CF5-4897-9708-A1D588C987A1Q51599551-6BF5FDEF-1DB5-4981-95FE-451333251D3DQ51666152-301D62C5-49F6-4249-80EA-51BF5999A0CAQ51878075-E56F002C-965E-42B5-B341-68770E15F355Q52019731-E41E340E-9F16-46E8-BEBF-78F534F8DBE5Q52126062-3C48898C-5F0B-41B7-A2D1-7DDAD0A6931DQ52126067-5D5329EA-1A68-4ED7-B33B-7179F4618632Q52194897-E5698BEB-6F3A-4159-96FD-39B7AC589A61Q52305280-CD49C466-397C-4B2E-B926-4890079E6164Q52891465-13CE1126-F08B-42C2-B39F-882D47BD6FCCQ52959616-0C5D041B-511E-47BF-84A2-7356BB5A2E50Q53671650-AE551C27-4BF7-408C-9FA2-A45E8E9F15DFQ56873583-0533C596-CB6C-48BD-9D90-7CA58B6FBC8BQ59121656-8FA70BA5-7CA2-44FC-9CEF-2513A836A47DQ64246081-EF7ED59F-0836-4089-9F1B-A4D0BAC5B3ABQ72905483-AD19D5C3-3531-405C-BB80-25B819AB57B1
P50
description
natuurkundige
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researcher ORCID ID = 0000-0002-4776-9998
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name
Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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Gregor Schöner
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P214
P227
P21
P214
P227
P2456
s/GregorSchoner
P31
P496
0000-0002-4776-9998
P7859
viaf-165739727