| Literature DB >> 35817988 |
Ioannis Bargiotas1,2, Danping Wang3,4, Juan Mantilla3,4, Flavien Quijoux3,4,5, Albane Moreau3,4, Catherine Vidal3,4,6, Remi Barrois3,4, Alice Nicolai3,4, Julien Audiffren7, Christophe Labourdette3,4, François Bertin-Hugaul5, Laurent Oudre3,4, Stephane Buffat8, Alain Yelnik3,4,9, Damien Ricard3,4,10,11, Nicolas Vayatis3,4, Pierre-Paul Vidal3,4,12.
Abstract
Nowadays, it becomes of paramount societal importance to support many frail-prone groups in our society (elderly, patients with neurodegenerative diseases, etc.) to remain socially and physically active, maintain their quality of life, and avoid their loss of autonomy. Once older people enter the prefrail stage, they are already likely to experience falls whose consequences may accelerate the deterioration of their quality of life (injuries, fear of falling, reduction of physical activity). In that context, detecting frailty and high risk of fall at an early stage is the first line of defense against the detrimental consequences of fall. The second line of defense would be to develop original protocols to detect future fallers before any fall occur. This paper briefly summarizes the current advancements and perspectives that may arise from the combination of affordable and easy-to-use non-wearable systems (force platforms, 3D tracking motion systems), wearable systems (accelerometers, gyroscopes, inertial measurement units-IMUs) with appropriate machine learning analytics, as well as the efforts to address these challenges.Entities:
Keywords: Fall prediction; Force-platform; Frailty; Longitudinal follow-up; Machine learning; Wearables
Year: 2022 PMID: 35817988 DOI: 10.1007/s00415-022-11251-3
Source DB: PubMed Journal: J Neurol ISSN: 0340-5354 Impact factor: 6.682