| Q52107428 | A developmental approach to visually-guided reaching in artificial systems. |
| Q47306811 | Additional weight influences the reaching behavior of low-risk preterm infants |
| Q55301681 | Age-related changes in upper limb motion during typical development. |
| Q48376462 | Age-related differences in the reaching and grasping coordination in children: unimanual and bimanual tasks |
| Q92214111 | Aimed limb movements in a hemimetabolous insect are intrinsically compensated for allometric wing growth by developmental mechanisms |
| Q52175889 | An unlearned principle for controlling natural movements. |
| Q51988051 | Assessment of motor control using kinematics analysis in preschool children born very preterm. |
| Q43077365 | Autism: the micro-movement perspective |
| Q59629417 | Bimanual strategies for object retrieval in infants and young children |
| Q48892966 | Braking of elbow extension in fast overarm throws made by skilled and unskilled subjects |
| Q48146489 | Changes in object-oriented arm movements that precede the transition to goal-directed reaching in infancy |
| Q28390137 | Characteristics of bilateral hand function in individuals with unilateral dystonia due to perinatal stroke: sensory and motor aspects |
| Q30403700 | Children do not recalibrate motor-sensory temporal order after exposure to delayed sensory feedback |
| Q34245648 | Control of Human Limb Movements: The Leading Joint Hypothesis and Its Practical Applications |
| Q48411142 | Controlling reaching movements with predictable and unpredictable target motion in 10-year-old children and adults |
| Q79783050 | Coordinating degrees of freedom during interceptive actions in children |
| Q47942114 | Development of Force Adaptation During Childhood |
| Q52031874 | Development of reaching in infancy. |
| Q50420447 | Developmental Trajectories of Hand Movements in Typical Infants and Those at Risk of Developmental Disorders: An Observational Study of Kinematics during the First Year of Life |
| Q36860161 | Distinct Thalamo-Cortical Controls for Shoulder, Elbow, and Wrist during Locomotion |
| Q37348879 | Effects of postural support on eye hand interactions across development |
| Q77666769 | Facilitating postural control: effects on the reaching behavior of 6-month-old infants |
| Q36193469 | From the reaching behavior at 5 months of age to hand preference at preschool age |
| Q48121942 | Handedness and Reach-to-Place Kinematics in Adults: Left-Handers Are Not Reversed Right-Handers. |
| Q48693222 | Haptic grasping configurations in early infancy reveal different developmental profiles for visual guidance of the Reach versus the Grasp |
| Q48749290 | Infants and adults reaching in the dark |
| Q37362787 | Influence of specific training on spatio-temporal parameters at the onset of goal-directed reaching in infants. |
| Q50697428 | Intersegmental dynamics shape joint coordination during catching in typically developing children but not in children with developmental coordination disorder. |
| Q34018473 | Iron deficiency anemia in infancy and reach and grasp development |
| Q57868766 | Kinematic Strategies in Newly Walking Toddlers Stepping Over Different Support Surfaces |
| Q48962416 | Kinematic characteristics of reaching movements in preterm children with cerebral palsy |
| Q57868838 | Kinematics in Newly Walking Toddlers Does Not Depend Upon Postural Stability |
| Q33685772 | Kinematics of reaching and implications for handedness in rhesus monkey infants |
| Q36178857 | Longitudinal changes in muscle activity during infants' treadmill stepping |
| Q39169587 | Mapping the feel of the arm with the sight of the object: on the embodied origins of infant reaching |
| Q47950549 | Motor commands in children interfere with their haptic perception of objects. |
| Q50344717 | Motor control and children with autism: deficit of anticipatory function? |
| Q30429915 | Movement planning reflects skill level and age changes in toddlers |
| Q37089653 | Movement planning with probabilistic target information |
| Q33801725 | Neural control of human motor development |
| Q50202450 | Ontogeny of tool use: how do toddlers use hammers? |
| Q35541528 | Optic ataxia as a deficit specific to the on-line control of actions |
| Q51998556 | Phased-array processing for spike discrimination. |
| Q51373249 | Postnatal development of the motor representation in primary motor cortex. |
| Q51952350 | Prehension in young children with Down syndrome. |
| Q35902637 | Pyramidal tract neurons receptive to different forelimb joints act differently during locomotion |
| Q30440215 | Respiratory kinematics during vocalization and nonspeech respiration in children from 9 to 48 months |
| Q80338623 | Shoulder and elbow joint power differ as a general feature of vertical arm movements |
| Q36793927 | Signatures of movement variability anticipate hand speed according to levels of intent |
| Q47618537 | Specialization of the motor system in infancy: from broad tuning to selectively specialized purposeful actions |
| Q38777287 | Strategy of arm movement control is determined by minimization of neural effort for joint coordination |
| Q37667407 | Synergy Repetition Training versus Task Repetition Training in Acquiring New Skill |
| Q41111451 | Task Complexity Modulates Sleep-Related Offline Learning in Sequential Motor Skills |
| Q36469717 | Testing the concurrent validity of a naturalistic upper extremity reaching task |
| Q39025642 | The development of motor behavior |
| Q35063824 | The development of upper limb movements: from fetal to post-natal life |
| Q48398505 | The effect of removing visual information on reach control in young children |
| Q36245238 | The internal model and the leading joint hypothesis: implications for control of multi-joint movements |
| Q38101648 | The nature and nurture of human infant hand preference |
| Q47910333 | To throw or to place: does onward intention affect how a child reaches for an object? |
| Q41245814 | Too Good to be True? Ideomotor Theory from a Computational Perspective |
| Q48805311 | Two classes of movements in motor control. |
| Q92036066 | Two-step actions in infancy-the TWAIN model |