| 英文摘要 |
Visually impaired individuals face numerous challenges while walking, affecting their daily lives and mobility. Environmental obstacles are one of the primary difficulties, and they rely on traditional white canes to detect the position, type, and distance of obstacles. This tool has been in use for nearly a century, with its basic design remaining largely unchanged since its invention in 1921. Although public spaces such as sidewalks, underpasses, high-speed rail, and metro stations have been equipped with tactile paving to enhance walking safety, and modern electronic white canes incorporate high-tech features such as fall alarms, voice navigation, radios, and even water depth measurement and traffic light recognition, visually impaired individuals still rarely use these advanced devices and continue to rely on traditional white canes. Therefore, the objective of this study is to develop a new AI-assisted smart guiding cane to enhance the safety and autonomy of visually impaired individuals. This system is built using the ESP32 development board and programmed with Arduino IDE to control and sense basic components, including ultrasonic sensors, vibration sensors, and LED lights. By utilizing ultrasonic waves to detect surrounding obstacles and providing distance information to the user through vibration feedback, this design helps improve walking safety and independence, allowing visually impaired individuals to integrate more smoothly into society and enhance their quality of life. Additionally, this study incorporates market analysis and consumer demand research. Through semi-structured interviews and data collection, the gathered information is analyzed and used to establish a business model based on the interview findings. |