
Research Article
AI-Driven Pupillometric Biomarker Analysis for Early Detection of Genetic Disorders in Children
@INPROCEEDINGS{10.4108/eai.28-4-2025.2358106, author={Boya Nehasree and Doule Venkata Srilakshmi Prudhvija Bai and G.H. Anusha and B. Lakshmi Parvathi and U. Premsagar}, title={AI-Driven Pupillometric Biomarker Analysis for Early Detection of Genetic Disorders in Children}, proceedings={Proceedings of the 4th International Conference on Information Technology, Civil Innovation, Science, and Management, ICITSM 2025, 28-29 April 2025, Tiruchengode, Tamil Nadu, India, Part II}, publisher={EAI}, proceedings_a={ICITSM PART II}, year={2025}, month={10}, keywords={pupillometry deep learning genetic disorders pediatric screening biomarkers multi-class classification}, doi={10.4108/eai.28-4-2025.2358106} }
- Boya Nehasree
Doule Venkata Srilakshmi Prudhvija Bai
G.H. Anusha
B. Lakshmi Parvathi
U. Premsagar
Year: 2025
AI-Driven Pupillometric Biomarker Analysis for Early Detection of Genetic Disorders in Children
ICITSM PART II
EAI
DOI: 10.4108/eai.28-4-2025.2358106
Abstract
Genetic disorders in children, such as Autism Spectrum Disorder (ASD), Fragile X Syndrome, and Rett Syndrome, often go undetected during early developmental stages due to overlapping clinical features and limited access to specialized diagnostics. Early identification is crucial for timely intervention, yet current diagnostic workflows remain resource-intensive and inaccessible in many settings. This study proposes an artificial intelligence (AI)-driven approach for multi-disorder screening using pupillometry—a non-invasive method for measuring pupil responses to light stimuli. The primary objective is to develop a deep learning model capable of distinguishing between multiple pediatric genetic conditions based on pupillometric features. A synthetic dataset was constructed to simulate pupil light reflex (PLR) data for four classes: ASD, Fragile X Syndrome, Rett Syndrome, and neurotypical controls. Features such as latency, constriction velocity, and recovery time were extracted and standardized before model training. A fully connected deep neural network (DNN) was implemented and benchmarked against conventional classifiers, including Random Forest, Support Vector Machine (SVM), and Logistic Regression. The proposed DNN achieved an overall accuracy of 89%, with a macro-averaged F1-score of 0.87, outperforming the best baseline (Random Forest, 82% accuracy, 0.79 F1-score).