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International Peer reviewed Engineering Journal || Crossref DOI || Impact Factor 8.6 || ISSN: 2582-5003

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Research & review articles are invited for publication in September 2026 (Vol. 28, Issue 3) || Submission: up to 28th September || Editorial decision: within 48 hrs.

Deploying underground drones for real-time void detection, stope stability assessment, and predictive hazard analysis

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  • Deploying underground drones for real-time void detection, stope stability assessment, and predictive hazard analysis

Lukman A. Alabede 1, * and Samuel Mohammed Maimako 2

1 University of Jos, Jos, Plateau State, Nigeria.
2  ARCO Worldwide Services, Port Harcourt, Rivers State, Nigeria.
 
Research Article
Global Journal of Engineering and Technology Advances, 2021, 09(03), 170-186.
Article DOI: 10.30574/gjeta.2021.9.3.0178
DOI url: https://doi.org/10.30574/gjeta.2021.9.3.0178
Received on 24 November 2021; revised on 28 December 2021; accepted on 30 December 2021
 
Underground mining operations face persistent challenges associated with hidden voids, unstable stopes, and rapidly evolving geomechanically conditions that threaten both safety and productivity. Traditional monitoring methods such as manual inspections, static instrumentation, and periodic geotechnical surveys often lack the spatial reach, temporal frequency, and adaptive responsiveness required to detect early signs of instability. Recent advancements in autonomous drone technologies provide a transformative alternative, enabling real-time spatial intelligence in confined and GPS-denied environments. Equipped with LiDAR, multispectral imaging, thermal sensors, and visual–inertial navigation systems, underground drones can autonomously map complex subsurface geometries, identify hazardous anomalies, and acquire high-density data even in areas inaccessible to human workers. From a broad perspective, drone-enabled void detection enhances mine planning by revealing hidden cavities, unworked pockets, and irregular stopes that may compromise ground stability or disrupt production sequencing. Real-time stope stability assessment further strengthens operational safety by detecting stress-induced deformations, rock-mass deterioration, and early-warning indicators of potential collapses. These insights are critical for implementing timely remediation measures such as backfilling, reinforcement, or controlled re-entry protocols. The integration of drone-derived spatial data into predictive hazard-analysis frameworks represents a major leap toward proactive geotechnical risk management. Machine learning models and digital-twin simulations can now assimilate continuous drone observations to forecast instability progression, quantify risk zones, and support automated decision-making. This convergence of autonomous navigation, advanced sensing, and predictive analytics positions underground drones as essential components of next-generation mine safety systems. By delivering persistent situational awareness and high-resolution diagnostics, drone-based monitoring enables mining enterprises to transition from reactive hazard response to a fully predictive, data-driven operational paradigm.
 
 
Underground Drones; Void Detection; Stope Stability; Predictive Hazard Analysis; Lidar Mapping; Autonomous Navigation
 
https://gjeta.com/sites/default/files/fulltext_pdf/GJETA-2021-0178.pdf

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Lukman A. Alabede and Samuel Mohammed Maimako. Deploying underground drones for real-time void detection, stope stability assessment, and predictive hazard analysis. Global Journal of Engineering and Technology Advances, 2021, 9(3), 170-186. Article DOI: https://doi.org/10.30574/gjeta.2021.9.3.0178

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