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TinyDINO VHaar based Bi-directional Chameleon optimized LightASDNet for autism spectrum disorder detection
Meera K Chandran1, G Sudhamathy1
1Avinashilingam Institute for Home Science and Higher Education for Women, Bharathi Park Rd, near Forest College Campus, Saibaba Colony, Coimbatore, Tamil Nadu, 641043, India.
None:
Autism Spectrum Disorder (ASD) in toddlers is characterized by neurodevelopmental deficits while its early detection remains challenging due to the lack of specific biomarkers and developmental variability. Therefore, a TinyDINO VHaar based Bi-directional Factorization with Chameleon optimized LightASDNet (TiDI-ASDNet) is proposed. In this framework, input images are initially pre-processed using Optimized Hierarchical Guided Image Filter (OHGF) to denoise and outlier removal, while Self-Distillation with No Labels version 2-Network Vector of Locally Aggregated Descriptors (DINOv2-NetVLAD) extracts the global visual patterns. Simultaneously, the input texts are pre-processed using One-Hot SMOTE (OHS) for easier interpretation. Besides, the standard structures interrupt syntactic/structural parsing due to autistic language corpora which clusters n-gram pattern, weakening the pragmatic deficits. To address these issues a Hybrid Tiny Encoder based HaarNet (TE-HNet) that extracts discriminative questionnaire features and maintains the lexical stringency. Since, the manifold torsion occurs due to discrepancy in encoding levels from non-isomorphic latent structures with non-diffeomorphic mapping, Bi-directional Encoder based Cross Factorization (BiE-xF) is employed and it learns about the shared semantics of visual features and behavioral linguistic features, which reduces Heteroscedastic Ambiguity. Besides, the motor stimming behaviour produces recurring self-stimulatory motor patterns that confound temporal alignment in vision-based ASD models. Thus, Modified Chameleon optimized LightASDNet (MC-LAN) is presented for classifying ASD and non-ASD thereby mitigates Dyspraxic Gait Aberrations. Simulations revealed the robustness of the framework with 99.2% AUC and 98.2% accuracy.
