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Deep Learning-Based Analysis of Face Images as a Screening Tool for Genetic Syndromes
Maciej Geremek1, Krzysztof Szklanny2
1Department of Medical Genetics, Institute of Mother and Child, 01-211 Warsaw, Poland.
Sensors (Basel, Switzerland)
|October 13, 2021
Summary
Deep learning face recognition accurately detects dysmorphic features in rare genetic disorders. This AI tool shows promise for screening patients, even identifying previously unknown genetic syndromes.
Area of Science:
- Medical Genetics
- Artificial Intelligence
- Computer Vision
Background:
- Rare genetic disorders affect approximately 4% of the global population, with most having a genetic basis.
- Identifying novel genetic syndromes and improving diagnostic yields are crucial due to the growing number of identified disease-associated genes.
- Accurate patient selection for genetic testing is vital given limited resources like clinical geneticists.
Purpose of the Study:
- To evaluate the performance of deep learning face recognition models in detecting dysmorphic features associated with genetic disorders.
- To assess the utility of these models in both multiclass (15 disorders vs. controls) and binary (disease vs. controls) classification tasks.
- To determine if the models can generalize and detect abnormalities in previously unknown or uncatalogued genetic disorders.
Main Methods:
- Utilized deep learning-based face recognition models for image analysis.
- Trained and tested classifiers on two distinct problems: a multiclass classification of 15 genetic disorders against controls, and a binary classification of disease versus controls.
- Evaluated the accuracy and generalization capabilities of the models, particularly their ability to identify novel disease presentations.
Main Results:
- The multiclass classifier achieved a maximum accuracy of 84% in identifying 15 genetic disorders.
- The binary classifier demonstrated a high accuracy of 96% in distinguishing between patients with genetic disorders and controls.
- Crucially, the binary classifier successfully identified dysmorphic features in patients with diseases not included in the training data, indicating strong generalization.
Conclusions:
- Deep learning models employing facial recognition are effective tools for detecting dysmorphic features linked to genetic disorders.
- The developed classifier exhibits the potential to screen for both known and previously unknown genetic syndromes by recognizing generalized facial abnormalities.
- This technology could serve as a valuable pre-screening tool, aiding in the efficient referral of patients to specialized genetic units.

