Modeling of ASD/TD Children's Behaviors in Interaction with a Virtual Social Robot During a Music Education Program Using Deep Neural Networks

arXiv cs.AI / 4/20/2026

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Key Points

  • The study proposes an intelligent system that uses deep neural networks to evaluate behavior in children with ASD and neurotypical (TD) children during a music education program with a virtual social robot.
  • The system can classify children as ASD or TD from behavioral impact data and motion signals, achieving 81% accuracy and 96% sensitivity based on a dataset from a prior Sharif University of Technology study.
  • A transformer-based model was also built to generate/reproduce child behaviors in similar situations, producing behavior that experts found hard to distinguish from real behaviors.
  • Expert evaluation showed 53.5% accuracy and 68% agreement when judging whether behaviors were real or reproduced, suggesting the generated behaviors are realistic enough to be plausibly simulated.
  • The authors argue that such modeling and simulation could support diagnosis assistance, therapist training, and better understanding of ASD-related behavioral patterns.

Abstract

This research aimed to develop an intelligent system to evaluate performance and extract behavioral models for children with ASD and neurotypical (TD) children by interacting with a virtual social robot in a music education program using deep neural networks. The system has two main features: 1) it distinguishes between neurotypical children and those with ASD based on their behavior, and 2) generates behaviors resembling those of neurotypical or ASD children in similar situations using deep learning. Intelligent systems that identify complex patterns and simulate behavior can aid in diagnosis, therapist training, and understanding the disorder. Using data from a previous study at the Social and Cognitive Robotics Laboratory of Sharif University of Technology (including the usable data of 9 ASD and 21 TD participants), the system achieved an accuracy of 81% and sensitivity of 96% in distinguishing neurotypical children from those with ASD using both impact data and motion signals. A transformer-based network was designed to reproduce children's behaviors. Experts in the field struggled to differentiate real behaviors from reproduced ones, with an accuracy of 53.5% and agreement of 68%, indicating the model's success in simulating realistic behaviors.