METHODOLOGY
The robot employs a CNN model trained on a dataset of weed and crop images for accurate weed detection. A Arduino-based system controls robot movement, weed cutting mechanism, and communication. Bluetooth enables remote control and monitoring via a mobile app.
GOALS
RESULTS
The robot demonstrated effective weed detection (95% accuracy) and removal (90% efficiency) in field tests. It successfully reduced manual labor and herbicide usage while minimizing crop damage.
CONCLUSION
The Agriculture Weeding Robot effectively addresses the challenges of traditional weed management by combining machine learning and robotics. The robot accurately detects and removes weeds, significantly reducing manual labor and herbicide use. Field trials demonstrate its potential to enhance crop yield and contribute to sustainable agriculture. While this research represents a promising step forward, future improvements, such as adaptability to diverse conditions and advanced machine learning integration, are necessary to fully realize the robot's potential for widespread agricultural application.