Silvera Tawill et al. [33] |
AI-driven socially-assistive robots for teaching support |
Deng et al. [34] |
AI-powered sensory management recommendation system for children with ASD. |
Wan et al. [35] |
AI-based system for improving emotion recognition in children with ASD. |
Kumar et al. [36] |
Automation of ASD diagnosis using machine learning techniques. |
Jain et al. [37] |
AI-driven models for recognizing and responding to user engagement in robot interventions. |
Keshav et al. [38] |
AI-driven models for recognizing and responding to user engagement in robot interventions. |
Vahabzadeh et al. [39] |
AI-driven smartglasses intervention for improving socio-emotional behaviors in students with ASD. |
Cooper et al. [40] |
AAC software program with an embedded artificial conversational agent for children with autism. |
Huijnen et al. [41] |
Roles, strengths, and challenges of AI-equipped robots in interventions for children with ASD. |
Keshav et al. [42] |
Tolerability and usability of AI-driven smartglasses for individuals with ASD. |
Linstead et al. [43] |
Usefulness in perspective of AI in the treatment dosage and in providing insights into its varied effects across different domains. |
Desideri et al. [44] |
Exploration of humanoid robots’ potential to enhance educational interventions for children with ASD. |
Huijnen et al. [45] |
Practical implementation of robots (implementing AI based algorithms), particularly robot KASPAR, in education and therapy interventions for children with ASD. |
Bekele et al. [46] |
Pilot study on an AI-driven robot-mediated system administering joint attention prompts to children with ASD with a demonstration of AI’s potential to enhance engagement and learning in educational activities for children with ASD. |
Williams et al. [47] |
Highlighting AI-like systems’ (with speech synthesizer) role in improving speech recognition and training for individuals with ASD. |