In this session, participants will explore how interdisciplinary learning can be applied to solve real-world challenges through technology. They will engage with the development of a portable assistive device that uses artificial vision and AI to detect hazards for visually impaired individuals. The content will include key concepts from programming, applied mathematics, computer vision, and English narrative, all framed within a cyclical design process.
Audience engagement will be continuous through peer-to-peer interaction, and hands-on prototyping.
This session empowers educators and innovators to explore how interdisciplinary learning can drive meaningful, real-world impact through technology. Participants will engage in the design and development of a portable assistive device that uses artificial vision and AI to detect environmental hazards for visually impaired individuals. By integrating mathematics, programming, computer vision, and English narrative, attendees will experience a full design cycle—from problem identification to prototype refinement—while cultivating empathy, resilience, and innovation.
This session emphasizes iterative design, tolerance for ambiguity, and the ability to solve open-ended problems. Participants will leave with practical skills in prototyping, data analysis, and technical communication, as well as a deeper understanding of how to foster inclusive, socially responsible learning environments through technology.
The transformative impact of technology in improving the quality of life for individuals who are blind or visually impaired. According to the World Health Organization and various accessibility studies, assistive technologies—particularly those integrating artificial intelligence and computer vision—can significantly enhance autonomy, safety, and social inclusion. Devices that help users identify obstacles or navigate environments reduce dependence and increase confidence, contributing to better mental health and overall well-being.
For students, developing such a project fosters deep learning and professional growth. It challenges them to apply interdisciplinary knowledge—mathematics, programming, AI, and communication—in a meaningful context. Moreover, it cultivates empathy, ethical reasoning, and problem-solving skills, which are essential in any career path. Engaging in socially impactful innovation prepares students to become responsible professionals who use technology not just for advancement, but for inclusion and equity. This kind of project-based learning aligns with global educational goals and equips students with both technical expertise and a human-centered mindset.
https://www.mdpi.com/1424-8220/24/15/4834
https://arxiv.org/html/2503.15494v1
https://www.mdpi.com/2227-7102/14/11/1154
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