Interactive Motion & Sound-Based Dynamic Lighting System
CONCEPT
- SensoryGlow is an innovative and dynamic lighting system designed to respond to human motion, sound, temperature, and environmental interactions. This system creates a visually engaging and interactive experience, seamlessly blending aesthetics with functionality. By utilizing advanced sensors and RGB lighting, SensoryGlow adapts in real time to its surroundings, offering tailored light patterns and colors that enhance ambiance and energy efficiency. With its modular design and responsive capabilities, the system integrates effortlessly into interior and exterior spaces, transforming them into adaptable environments that prioritize user interaction, sustainability, and cutting-edge design.
SCHEMATCIS
Flowchart
Hardware Components:
- Ultrasonic Sensor: Detects the distance of objects in the environment, triggering specific LEDs based on proximity.
- Loudness Sensor: Measures ambient noise levels and adjusts the brightness of LEDs accordingly.
- LEDs: A series of 7 LEDs, each controlled individually to respond to inputs from the sensors.
Arduino Integration:
- The ultrasonic sensor provides real-time distance data, allowing the system to determine which LED to activate based on how close an object is.
- The loudness sensor maps sound levels to LED brightness, creating a dynamic visual response to changes in ambient noise.
- The Arduino processes inputs from these sensors and controls the LEDs accordingly, ensuring precise and synchronized responses.
Functionality:
- When an object is detected within a specified distance range, the corresponding LED lights up momentarily.
- The system deactivates all LEDs before activating the next one, ensuring clean transitions and avoiding overlap.
- The brightness of the LEDs dynamically adjusts based on noise levels, providing an additional layer of interaction.
Output:
- The result is a responsive and engaging lighting system that reacts to environmental changes, creating an immersive and visually appealing experience.
Circuit Diagram
Final Prototype
