Detalles de la búsqueda
1.
Testing Dynamic Balance in People with Multiple Sclerosis: A Correlational Study between Standard Posturography and Robotic-Assistive Device.
Sensors (Basel)
; 24(11)2024 May 23.
Artículo
en Inglés
| MEDLINE | ID: mdl-38894116
2.
Evaluation of a novel technology-supported fall prevention intervention - study protocol of a multi-centre randomised controlled trial in older adults at increased risk of falls.
BMC Geriatr
; 23(1): 103, 2023 02 18.
Artículo
en Inglés
| MEDLINE | ID: mdl-36803459
3.
Robotic balance assessment in community-dwelling older people with different grades of impairment of physical performance.
Aging Clin Exp Res
; 32(3): 491-503, 2020 Mar.
Artículo
en Inglés
| MEDLINE | ID: mdl-31691151
4.
Robot-aided developmental assessment of wrist proprioception in children.
J Neuroeng Rehabil
; 14(1): 3, 2017 Jan 09.
Artículo
en Inglés
| MEDLINE | ID: mdl-28069028
5.
Relationship between Timed Up and Go performance and quantitative biomechanical measures of balance.
Front Rehabil Sci
; 5: 1220427, 2024.
Artículo
en Inglés
| MEDLINE | ID: mdl-38566622
6.
Parkinson's disease accelerates age-related decline in haptic perception by altering somatosensory integration.
Brain
; 135(Pt 11): 3371-9, 2012 Nov.
Artículo
en Inglés
| MEDLINE | ID: mdl-23169922
7.
Standard versus innovative robotic balance assessment for people with multiple sclerosis: a correlational study.
Eur J Med Res
; 28(1): 254, 2023 Jul 26.
Artículo
en Inglés
| MEDLINE | ID: mdl-37491303
8.
Two hands, one perception: how bimanual haptic information is combined by the brain.
J Neurophysiol
; 107(2): 544-50, 2012 Jan.
Artículo
en Inglés
| MEDLINE | ID: mdl-22031771
9.
Motor commands in children interfere with their haptic perception of objects.
Exp Brain Res
; 223(1): 149-57, 2012 Nov.
Artículo
en Inglés
| MEDLINE | ID: mdl-23064882
10.
A Lifespan Approach to Balance in Static and Dynamic Conditions: The Effect of Age on Balance Abilities.
Front Neurol
; 13: 801142, 2022.
Artículo
en Inglés
| MEDLINE | ID: mdl-35265025
11.
Inter-limb interference during bimanual adaptation to dynamic environments.
Exp Brain Res
; 202(3): 693-707, 2010 May.
Artículo
en Inglés
| MEDLINE | ID: mdl-20174919
12.
Predicted sensory feedback derived from motor commands does not improve haptic sensitivity.
Exp Brain Res
; 200(3-4): 259-67, 2010 Jan.
Artículo
en Inglés
| MEDLINE | ID: mdl-19730840
13.
Adaptive robot training for the treatment of incoordination in Multiple Sclerosis.
J Neuroeng Rehabil
; 7: 37, 2010 Jul 29.
Artículo
en Inglés
| MEDLINE | ID: mdl-20670420
14.
Self-adaptive robot training of stroke survivors for continuous tracking movements.
J Neuroeng Rehabil
; 7: 13, 2010 Mar 15.
Artículo
en Inglés
| MEDLINE | ID: mdl-20230610
15.
Dynamic Stability and Trunk Control Improvements Following Robotic Balance and Core Stability Training in Chronic Stroke Survivors: A Pilot Study.
Front Neurol
; 11: 494, 2020.
Artículo
en Inglés
| MEDLINE | ID: mdl-32625162
16.
Development and validation of a robotic multifactorial fall-risk predictive model: A one-year prospective study in community-dwelling older adults.
PLoS One
; 15(6): e0234904, 2020.
Artículo
en Inglés
| MEDLINE | ID: mdl-32584912
17.
Robot therapy of the upper limb in stroke patients: preliminary experiences for the principle-based use of this technology.
Funct Neurol
; 24(4): 195-202, 2009.
Artículo
en Inglés
| MEDLINE | ID: mdl-20412725
18.
Robot therapy for stroke survivors: proprioceptive training and regulation of assistance.
Stud Health Technol Inform
; 145: 126-42, 2009.
Artículo
en Inglés
| MEDLINE | ID: mdl-19592791
19.
Design and Development of a Novel Core, Balance and Lower Limb Rehabilitation Robot: hunova®.
IEEE Int Conf Rehabil Robot
; 2019: 417-422, 2019 06.
Artículo
en Inglés
| MEDLINE | ID: mdl-31374665
20.
Robot-based assessment of sitting and standing balance: preliminary results in Parkinson's disease.
IEEE Int Conf Rehabil Robot
; 2019: 570-576, 2019 06.
Artículo
en Inglés
| MEDLINE | ID: mdl-31374691