about
Direction-dependent control of balance during walking and standing.Fatiguing exercise intensity influences the relationship between parameters reflecting neuromuscular function and postural control variablesHuman-centred approaches in slipperiness measurement.The Relationship between Physical Function and Postural Sway during Local Vibratory Stimulation of Middle-aged People in the Standing Position.Long-term effects from bacterial meningitis in childhood and adolescence on postural control.Is There a Link Between Chronic Ankle Instability and Postural Instability?Test-retest reliability of postural stability on two different foam pads.Sensory adaptation in human balance control: lessons for biomimetic robotic bipedsA mechanism for sensory re-weighting in postural control.Standard values of the upper body posture and postural control: a study protocol.Assessing postural stability via the correlation patterns of vertical ground reaction force componentsThe effects of high frequency subthalamic stimulation on balance performance and fear of falling in patients with Parkinson's disease.Decreased postural control in adult survivors of childhood cancer treated with chemotherapy.Reliability of the good balance system(®) for postural sway measurement in poststroke patientsPostural compensation strategy depends on the severity of vestibular damage.The sensorimotor system, part I: the physiologic basis of functional joint stability.Body Sway Increases After Functional Inactivation of the Cerebellar Vermis by cTBS.Comparison of intra individual physiological sway complexity from force plate and inertial measurement unit - biomed 2013High lateral plantar pressure is related to an increased tibialis anterior/fibularis longus activity ratio in patients with recurrent lateral ankle sprain.Sensory reweighting dynamics following removal and addition of visual and proprioceptive cues.The effects of core stability strength exercise on muscle activity and trunk impairment scale in stroke patients.An Engineering Model to Test for Sensory Reweighting: Nonhuman Primates Serve as a Model for Human Postural Control and Vestibular Dysfunction.Evidence in Support of the Independent Channel Model Describing the Sensorimotor Control of Human Stance Using a Humanoid Robot.
P2860
Q30490312-C14BDDF2-F106-402B-98DF-BE1220D3E5D6Q31132986-44CB1209-CD22-46DC-A482-98BD8C14A9F7Q33953846-960EC70C-E13A-4300-9660-EF2105A22F37Q34409568-5A02ED82-018D-4E92-A185-4FB10BC2A19FQ34535354-0B2FB9AB-C489-45BB-9EE0-8992C18E1358Q35141399-0AFAD568-6DF2-46E2-B57B-4E7C06185D23Q35230011-77B70CEB-CA24-4118-B543-D3DEA4D74EACQ36794030-31D44A68-2BE1-4948-8452-05EC11DC8825Q36986344-1B397A7B-C11E-497A-999A-DC72052FA72BQ37099689-E2A525A2-E71F-4426-A577-BC642355DACBQ37145161-10620CE3-AFB3-4763-B794-FEDC00A5FF1CQ37196509-76D245C4-1754-445A-89E4-28C9FDF115F0Q37405604-3F15D0F0-6818-413A-8146-7161715B84A1Q37589452-0F982DB8-7163-4932-B8A6-179F6690B552Q37723041-64DFC649-FE3A-464A-A4A6-E8835D30164DQ39785894-C54782A0-8A4E-4043-9081-9184EABE1C1EQ40094285-3BC30F20-8027-47C6-8951-A97D9C6F3D22Q41941669-B9EA3953-4E86-4D8B-9380-22F071A3107CQ42219311-0ADB8973-2430-4065-9D17-B4B938DFE184Q42388453-CB3E1D8E-DBAD-4712-AF58-CB2522F7BC74Q42873798-0DB38418-93EE-4057-B0B6-843372B309F2Q47429493-A37C6C7E-D903-427D-9E35-28EDC0541076Q54936325-EF2D4420-BD39-4B62-A141-31BBF61F4C60
P2860
description
article científic
@ca
article scientifique
@fr
articolo scientifico
@it
artigo científico
@pt
bilimsel makale
@tr
scientific article published on January 1991
@en
vedecký článok
@sk
vetenskaplig artikel
@sv
videnskabelig artikel
@da
vědecký článek
@cs
name
Human postural dynamics.
@en
Human postural dynamics.
@nl
type
label
Human postural dynamics.
@en
Human postural dynamics.
@nl
prefLabel
Human postural dynamics.
@en
Human postural dynamics.
@nl
P1476
Human postural dynamics.
@en
P2093
Johansson R
Magnusson M
P304
P577
1991-01-01T00:00:00Z