✨ New Arrivals Just Dropped!Explore
HomeStore

Smart Walking Shoes for Blind | Best Science Project Kit for STEM & Assistive Tech

Product image 1

Smart Walking Shoes for Blind | Best Science Project Kit for STEM & Assistive Tech

Technical Specifications

  • Project Name: Smart Walking Shoes for Blind
  • Technology: Ultrasonic Obstacle Detection System
  • Microcontroller: Arduino Nano (or similar)
  • Sensors: Ultrasonic Distance Sensor (HC-SR04 or equivalent)
  • Feedback Output: Buzzer / Vibrator Alert System
  • Power Source: 9V Non-Rechargeable Battery 
  • Shoe Platform: Single Shoes 
  • Interface: Wired Sensor Connections
  • Application: Obstacle Alert
  • Kit Includes: Sensor, Arduino, Wires, Battery (full working kit)

Product Description

The Smart Walking Shoes for Blind is an innovative science project kit designed to help students and makers build a wearable assistive device that enhances mobility for visually impaired users. By integrating ultrasonic sensors with an Arduino microcontroller, this project detects nearby obstacles and provides alerts through a buzzer or vibration feedback, helping a user sense barriers ahead.

This kit is ideal for STEM learning, school and college exhibitions, science fairs, and assistive technology demonstrations. It encourages hands-on learning in electronics, programming, sensors, and wearable robotics, while highlighting real-world problem solving. With clear component lists, code examples, and assembly guidance, learners can quickly prototype and test a functional model that demonstrates practical assistive technology.

Technical Specifications

  • Project Name: Smart Walking Shoes for Blind
  • Technology: Ultrasonic Obstacle Detection System
  • Microcontroller: Arduino Nano (or similar)
  • Sensors: Ultrasonic Distance Sensor (HC-SR04 or equivalent)
  • Feedback Output: Buzzer / Vibrator Alert System
  • Power Source: 9V Non-Rechargeable Battery 
  • Shoe Platform: Single Shoes 
  • Interface: Wired Sensor Connections
  • Application: Obstacle Alert
  • Kit Includes: Sensor, Arduino, Wires, Battery (full working kit)

Product Description

The Smart Walking Shoes for Blind is an innovative science project kit designed to help students and makers build a wearable assistive device that enhances mobility for visually impaired users. By integrating ultrasonic sensors with an Arduino microcontroller, this project detects nearby obstacles and provides alerts through a buzzer or vibration feedback, helping a user sense barriers ahead.

This kit is ideal for STEM learning, school and college exhibitions, science fairs, and assistive technology demonstrations. It encourages hands-on learning in electronics, programming, sensors, and wearable robotics, while highlighting real-world problem solving. With clear component lists, code examples, and assembly guidance, learners can quickly prototype and test a functional model that demonstrates practical assistive technology.

$6.96

Original: $19.89

-65%
Smart Walking Shoes for Blind | Best Science Project Kit for STEM & Assistive Tech

$19.89

$6.96

Description

Technical Specifications

  • Project Name: Smart Walking Shoes for Blind
  • Technology: Ultrasonic Obstacle Detection System
  • Microcontroller: Arduino Nano (or similar)
  • Sensors: Ultrasonic Distance Sensor (HC-SR04 or equivalent)
  • Feedback Output: Buzzer / Vibrator Alert System
  • Power Source: 9V Non-Rechargeable Battery 
  • Shoe Platform: Single Shoes 
  • Interface: Wired Sensor Connections
  • Application: Obstacle Alert
  • Kit Includes: Sensor, Arduino, Wires, Battery (full working kit)

Product Description

The Smart Walking Shoes for Blind is an innovative science project kit designed to help students and makers build a wearable assistive device that enhances mobility for visually impaired users. By integrating ultrasonic sensors with an Arduino microcontroller, this project detects nearby obstacles and provides alerts through a buzzer or vibration feedback, helping a user sense barriers ahead.

This kit is ideal for STEM learning, school and college exhibitions, science fairs, and assistive technology demonstrations. It encourages hands-on learning in electronics, programming, sensors, and wearable robotics, while highlighting real-world problem solving. With clear component lists, code examples, and assembly guidance, learners can quickly prototype and test a functional model that demonstrates practical assistive technology.