Optimized autonomous navigation for field robots: extended results and practical deployment

Abstract Purpose This study introduces an optimized algorithm for autonomous navigation of field robots, aiming to improve navigation accuracy, reduce crop damage and shorten execution times in agricultural environments. Methods The enhanced solution integrates advanced data filtering with sensor fusion techniques, combining LiDAR and IMU inputs to produce precise 3D point cloud representations for reliable navigation in structured crop rows. Both the legacy and improved algorithms were evaluated through simulation and physical trials on the FarmBeast robotic platform. Results The improved algorithm reduced traversal time by up to 33% on certain field sections and lowered crop damage by 25% compared to the previous version. Conclusions Results confirm the robustness and effectiveness of the enhanced navigation system in complex agricultural field conditions, demonstrating its potential for practical deployment within farming automation.

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Publication Details

Journal
Precision Agriculture
Published
2025-12-09
DOI
https://doi.org/10.1007/s11119-025-10303-8
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
0.00

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article

Optimized autonomous navigation for field robots: extended results and practical deployment

J. Rakun, G. Popič
Precision Agriculture
Smart Agriculture and AI
article

Optimized autonomous navigation for field robots: extended results and practical deployment

J. Rakun, G. Popič
article en

Abstract

Abstract Purpose This study introduces an optimized algorithm for autonomous navigation of field robots, aiming to improve navigation accuracy, reduce crop damage and shorten execution times in agricultural environments. Methods The enhanced solution integrates advanced data filtering with sensor fusion techniques, combining LiDAR and IMU inputs to produce precise 3D point cloud representations for reliable navigation in structured crop rows. Both the legacy and improved algorithms were evaluated through simulation and physical trials on the FarmBeast robotic platform. Results The improved algorithm reduced traversal time by up to 33% on certain field sections and lowered crop damage by 25% compared to the previous version. Conclusions Results confirm the robustness and effectiveness of the enhanced navigation system in complex agricultural field conditions, demonstrating its potential for practical deployment within farming automation.

Precision AgricultureVol. 27(1)
University of Maribor (SI)
Javna Agencija za Raziskovalno Dejavnost RS, Interreg
Openalex Percentile: Top 72%
Smart Agriculture and AI
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