Deep Learning Applications in Remote Sensing for Mining Systems

Deep learning has transformed the analysis of remote sensing data in mining systems by enabling automated, high-precision monitoring of surface operations, environmental impact and resource distribution. Convolutional neural networks and attention-based architectures have been applied to satellite and UAV imagery to segment open-pit boundaries, classify land use within extraction zones and detect unauthorised mining activities. Advances in lightweight model design and edge-cloud systems have reduced computational demands, allowing real-time inference at scale. Spectral indices tailored to mining materials, when coupled with multiscale feature extraction and decision-level fusion, enhance the delineation of small or spectrally ambiguous sites. Global deployments demonstrate the capacity of these methods to support regulatory compliance, mitigate environmental risks and optimise operational planning across diverse geological settings.

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Deep Learning Applications in Remote Sensing for Mining Systems publication trend

The graph below shows the total number of articles in deep learning applications in remote sensing for mining systems across all publications each year (not limited to Nature Index journals).

Technical terms

Convolutional Neural Network: A deep learning model using convolutional layers to extract spatial hierarchies of features from imagery.

Spectral index: A computed ratio or combination of pixel values in specific spectral bands to highlight particular surface materials.

Normalized Difference Mining Area Index (NDMAI): A spectral index designed to enhance the detection of mining zones by exploiting characteristic band differences.

Transformer: A neural architecture employing self-attention to model long-range dependencies within feature maps.

Edge-cloud architecture: A distributed computing paradigm splitting data processing between central cloud servers and local edge devices to reduce latency and bandwidth usage.

Object-based analysis: A methodology that segments imagery into discrete objects prior to feature extraction and classification.

Dempster-Shafer evidence theory: A decision-level fusion technique combining multiple classification outputs to improve overall reliability.

References

1. A lightweight convolutional neural network based on dense connection for open-pit coal mine service identification using the edge-cloud architecture. Journal of Cloud Computing (2023).
2. A Stepwise Framework for Fine-Scale Mining Area Types Recognition in Large-Scale Scenes by GF-5 and GF-2 Images. IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing (2023).
3. A classification framework with multi-level fusion of object-based analysis and convolutional neural network: a case study for land use classification in mining areas. Geo-spatial Information Science (2024).