Electronics
Electronics
Electronics
Electronics
This project explored the use of Arduino and electronic components to create a responsive wearable system. By integrating sensors, a microcontroller, and actuators, the prototype demonstrated how physical movement can trigger automated mechanical responses. The aim was to gain hands-on experience in building and understanding interactive electronic systems within a product design context.
This project explored the use of Arduino and electronic components to create a responsive wearable system. By integrating sensors, a microcontroller, and actuators, the prototype demonstrated how physical movement can trigger automated mechanical responses. The aim was to gain hands-on experience in building and understanding interactive electronic systems within a product design context.
This project explored the use of Arduino and electronic components to create a responsive wearable system. By integrating sensors, a microcontroller, and actuators, the prototype demonstrated how physical movement can trigger automated mechanical responses. The aim was to gain hands-on experience in building and understanding interactive electronic systems within a product design context.
This project explored the use of Arduino and electronic components to create a responsive wearable system. By integrating sensors, a microcontroller, and actuators, the prototype demonstrated how physical movement can trigger automated mechanical responses. The aim was to gain hands-on experience in building and understanding interactive electronic systems within a product design context.
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problem
There was a need to develop practical skills in working with embedded electronics and understanding how different components such as sensors, circuits, and controllers function together in a real product. Without hands-on experimentation, it is difficult to translate design ideas into working interactive systems.
There was a need to develop practical skills in working with embedded electronics and understanding how different components such as sensors, circuits, and controllers function together in a real product. Without hands-on experimentation, it is difficult to translate design ideas into working interactive systems.
There was a need to develop practical skills in working with embedded electronics and understanding how different components such as sensors, circuits, and controllers function together in a real product. Without hands-on experimentation, it is difficult to translate design ideas into working interactive systems.
solution
An Arduino-based prototype was built to test sensor inputs and control outputs such as an air pump and valve. Through step-by-step circuit building and programming, the project helped develop a foundational understanding of electronics integration and responsive system design.
An Arduino-based prototype was built to test sensor inputs and control outputs such as an air pump and valve. Through step-by-step circuit building and programming, the project helped develop a foundational understanding of electronics integration and responsive system design.
An Arduino-based prototype was built to test sensor inputs and control outputs such as an air pump and valve. Through step-by-step circuit building and programming, the project helped develop a foundational understanding of electronics integration and responsive system design.
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i'm open for projects, feel free to email me at-
aditipmodi@gmail.com
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