The curvature of human arm movements in the absence of visual experience

scientific article published on 01 January 1995

The curvature of human arm movements in the absence of visual experience is …
instance of (P31):
scholarly articleQ13442814

External links are
P356DOI10.1007/BF00241501
P698PubMed publication ID7789448

P50authorR. Chris MiallQ25855463
Patrick HaggardQ30118490
P2860cites workThe coordination of arm movements: an experimentally confirmed mathematical modelQ28235524
Spatial control of arm movementsQ30458661
Neural dynamics of planned arm movements: emergent invariants and speed-accuracy properties during trajectory formationQ39634775
The control of hand equilibrium trajectories in multi-joint arm movementsQ41466965
Perceptual distortion contributes to the curvature of human reaching movementsQ48216402
The reach to grasp movement of blind subjectsQ48380407
Proprioceptive guidance and motor planning of reaching movements to unseen targetsQ48381571
Tactile discrimination of curvature by humans using only cutaneous information from the fingerpadsQ48808738
Finger pressure during tracking of curved contours: implications for a visual dominance phenomenon.Q50849935
Formation and control of optimal trajectory in human multijoint arm movement. Minimum torque-change model.Q52543622
An organizing principle for a class of voluntary movements.Q52686002
Are arm trajectories planned in kinematic or dynamic coordinates? An adaptation studyQ57398620
Automatic control during hand reaching at undetected two-dimensional target displacementsQ68101511
Misdirections in slow goal-directed arm movements and pointer-setting tasksQ70221135
Binocular distance perceptionQ71314866
Control of Three- and Four-Joint Arm Movement: Strategies for a Manipulator With Redundant Degrees of FreedomQ78969186
P433issue3
P1104number of pages8
P304page(s)421-428
P577publication date1995-01-01
P1433published inExperimental Brain ResearchQ13358841
P1476titleThe curvature of human arm movements in the absence of visual experience
P478volume103

Reverse relations

cites work (P2860)
Q47616177Apparent and Actual Trajectory Control Depend on the Behavioral Context in Upper Limb Motor Tasks
Q48333981Bias and sensitivity in the haptic perception of geometry.
Q48411142Controlling reaching movements with predictable and unpredictable target motion in 10-year-old children and adults
Q49053938Developmental lesions of visual cortex influence control of reaching
Q47750962Differences in curvature between constrained and unconstrained goal-directed movements to haptic targets
Q48901869Differential influence of the visual framework on end point accuracy and trajectory specification of arm movements
Q73375110Effects of kinematics constraints on hand trajectory during whole-body lifting tasks
Q51030877Is tracing or copying better when learning to reproduce a pattern?
Q33910873Linking perception, cognition, and action: psychophysical observations and neural network modelling.
Q61630242Local learning of inverse kinematics in human reaching movement
Q37339873Motor origins of tool use.
Q36916307Movement trajectory smoothness is not associated with the endpoint accuracy of rapid multi-joint arm movements in young and older adults
Q60465037Patterns of coordinated multi-joint movement
Q57743810Reaching movements may reveal the distorted topography of spatial representations after neglect
Q35976558Sensory Agreement Guides Kinetic Energy Optimization of Arm Movements during Object Manipulation
Q48529095The time course for kinetic versus kinematic planning of goal-directed human motor behavior
Q48611556Visual control of hand action
Q33311285Visual feedback is not necessary for the learning of novel dynamics.
Q57794227Visual feedback of hand and target location does not explain the tendency for straight adapted reaches
Q41318667Visuomotor functions of the lateral pre-motor cortex

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