Automated detection of genetic relatedness from fundus photographs using Siamese Neural Networks
Bhandari, S. M.; Singh, P.; Arun, N.; Sekimitsu, S.; Raghu, V.; Rauscher, F. G.; Elze, T.; Horn, K.; Kirsten, T.; Scholz, M.; Segre, A. V.; Wiggs, J. L.; Kalpathy-Cramer, J.; Zebardast, N.
Show abstract
Heritability of common eye diseases and ocular traits are relatively high. Here, we develop an automated algorithm to detect genetic relatedness from color fundus photographs (FPs). We estimated the degree of shared ancestry amongst individuals in the UK Biobank using KING software. A convolutional Siamese neural network-based algorithm was trained to output a measure of genetic relatedness using 7224 pairs (3612 related and 3612 unrelated) of FPs. The model achieved high performance for prediction of genetic relatedness; when computed Euclidean distances were used to determine probability of relatedness, the area under the receiver operating characteristic curve (AUROC) for identifying related FPs reached 0.926. We performed external validation of our model using FPs from the LIFE-Adult study and achieved an AUROC of 0.69. An occlusion map indicates that the optic nerve and its surrounding area may be the most predictive of genetic relatedness. We demonstrate that genetic relatedness can be captured from FP features. This approach may be used to uncover novel biomarkers for common ocular diseases.
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