Survival-Oriented Embeddings for Improving Accessibility to Complex Data Structures
MCML Authors
Tobias Weber
* Former Member
Abstract
Tobias Weber
* Former Member
Abstract
Deep learning excels in the analysis of unstructured data and recent advancements allow to extend these techniques to survival analysis. In the context of clinical radiology, this enables, e.g., to relate unstructured volumetric images to a risk score or a prognosis of life expectancy and support clinical decision making. Medical applications are, however, associated with high criticality and consequently, neither medical personnel nor patients do usually accept black box models as reason or basis for decisions. Apart from averseness to new technologies, this is due to missing interpretability, transparency and accountability of many machine learning methods. We propose a hazard-regularized variational autoencoder that supports straightforward interpretation of deep neural architectures in the context of survival analysis, a field highly relevant in healthcare. We apply the proposed approach to abdominal CT scans of patients with liver tumors and their corresponding survival times.
inproceedings WIF+21
Bridging the Gap: from ML Research to Clinical Practice @NeurIPS 2021
Workshop on Bridging the Gap: from Machine Learning Research to Clinical Practice at the 35th Conference on Neural Information Processing Systems. Virtual, Dec 06-14, 2021.Authors
T. Weber • M. Ingrisch • M. Fabritius • B. Bischl • D. RügamerLinks
arXivResearch Areas
BibTeXKey: WIF+21