Reference : Machine learning-based prediction of frailty in elderly people : Data from the Berlin... |
Scientific congresses, symposiums and conference proceedings : Poster | |||
Human health sciences : Geriatrics | |||
Systems Biomedicine | |||
http://hdl.handle.net/10993/54555 | |||
Machine learning-based prediction of frailty in elderly people : Data from the Berlin Aging Study II (BASE-II) | |
English | |
Didier, Jeff ![]() | |
de Landtsheer, Sébastien ![]() | |
Pires Pacheco, Maria Irene ![]() | |
Kishk, Ali ![]() | |
Schneider, Jochen ![]() | |
Demuth, Ilja ![]() | |
Sauter, Thomas ![]() | |
9-Oct-2022 | |
A0 | |
No | |
International | |
21st International Conference on Systems Biology | |
from 08-10-2022 to 12-10-2022 | |
Humboldt-Universität zu Berlin | |
Berlin | |
Germany | |
[en] frailty ; aging ; machine learning ; prediction ; biomarker ; risk factors | |
[en] Frailty is a geriatric medical condition that is highly associated with age and age-related diseases. The multidimensional
consequences of frailty are heavily impacting the quality of life, and will inevitably increase the burden on healthcare systems in the future. Most importantly, the lack of a universal standard to describe, diagnose, or let alone treat frailty, is further complicating the situation in the long-term. Nowadays, more and more frailty assessment tools are being developed on a regional and institutional basis, which is continuing to drive the heterogeneity in the characterization of frailty further apart. Gaining better insights into the underlying causes and pathophysiology of frailty, and how it is developing in patients is, therefore, required to establish strong and accurately tailored response schemes for frail patients, where currently only symptoms are treated. Thus, in this study, we deployed machine learning-based classification and optimization techniques to predict frailty in the Berlin Aging Study II (BASE-II, N=1512, frail=484) and revealed some of the most informative biomedical information to characterize frailty, including new potential biomarkers. Frailty in BASE-II was measured by the Fried et al. 5-item frailty index, composed of the clinical variables grip strength, weight loss, exhaustion, physical activity, and gait. The level of frailty in BASE-II was adapted for binary classification purposes by merging the pre-frail and frail levels as frail. A configurable in-house pipeline was developed for pre-processing the clinical data, predicting the target disease, and determining the most informative subgroup of clinical measurements with regards to frailty. The best prediction power was yielded with resampling and dimensionality reduction techniques using the F-beta-2 score, and was further increased by adding one item of the Fried et al. frailty index. We suggest that a combination of the easy-to-obtain biomedical information on frailty risk factors together with one Fried et al. phenotype information provided by i.e. smart wearable devices (gait, grip strength, . . . ) could significantly improve the frailty prediction power. | |
Researchers ; Professionals ; Students ; General public ; Others | |
http://hdl.handle.net/10993/54555 | |
FnR ; FNR12252781 > Andreas Zilian > DRIVEN > Data-driven Computational Modelling And Applications > 01/09/2018 > 28/02/2025 > 2017 |
File(s) associated to this reference | ||||||||||||||||||||||||
Fulltext file(s):
Additional material(s):
| ||||||||||||||||||||||||
All documents in ORBilu are protected by a user license.