Footprint Reduction of Sensor Control Modules for Remote Portable Laboratories

Area of Science:

• Environmental Science
• Robotics
• Sensor Technology

Background:

• Increasing automation in environmental monitoring necessitates greater autonomy for field robots.
• Robot payload capacity is a critical factor for comprehensive environmental analysis, requiring a balance between lab size, weight, complexity, and robot autonomy.
• Current technology limitations in autonomous battery charging cycles further emphasize the need for efficient mobile laboratory designs.

Purpose of the Study:

• To develop a microcontroller-based architecture for a mobile laboratory control system.
• To design a system adaptable for both aerial and aquatic mobile robotic platforms.
• To reduce the physical footprint of mobile laboratories for enhanced robotic deployment.

Main Methods:

• Development of a microcontroller-based control system architecture.
• Design for integration onto aerial and aquatic mobile robotic vectors.
• Evaluation of system adaptability for diverse sensor types and configurations.

Main Results:

• The proposed microcontroller-based system architecture is adaptable for various sensor configurations.
• The system significantly reduces the space required compared to existing embedded products.
• The design is suitable for deployment on both aerial and aquatic mobile platforms.

Conclusions:

• A versatile and compact mobile laboratory control system can be achieved using a microcontroller-based architecture.
• This approach offers a scalable solution for environmental monitoring robots, improving payload efficiency.
• The system's adaptability supports diverse sensing needs in pollution monitoring across different environments.