Land use classification plays a crucial role in policy development, urban and rural planning, land valuation, energy planning, and forest cover monitoring, among various other applications. The chapter uses Convolutional Neural Networks, Residual Networks, Visual Geometry, Vision Transformers and the GoogleNets for land use classification tasks. Precision was chosen as the primary evaluation metric, and the Vision Transformers emerged best for land use classification with the highest precision and recall. It attained a validation accuracy, F1 score, precision and recall of 98, 98, 98 and 98% respectively. Visual explainers of the models were derived based on model-agonistic shapely values, class activation maps with layer-wise relevance backward propagation to establish the most and least relevant feature class determinants used informing the classification decisions. With deep transfer learning, we improved the model peformance before deplying the best model in on various platforms for real-time analysis. This work provides benchmarks for building more realtime responsible software systems with geo-intelligence for geospatial predictive monitoring.

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Explainable Machine Vision Techniques for Geo-spatial Land Use Classification

  • Owiny-Dollo Marvin,
  • Natukunda Phionah,
  • Magino Daniel,
  • Rose Nakibuule,
  • Halimu Chongomweru,
  • Nakayiza Hellen,
  • Ggaliwango Marvin

摘要

Land use classification plays a crucial role in policy development, urban and rural planning, land valuation, energy planning, and forest cover monitoring, among various other applications. The chapter uses Convolutional Neural Networks, Residual Networks, Visual Geometry, Vision Transformers and the GoogleNets for land use classification tasks. Precision was chosen as the primary evaluation metric, and the Vision Transformers emerged best for land use classification with the highest precision and recall. It attained a validation accuracy, F1 score, precision and recall of 98, 98, 98 and 98% respectively. Visual explainers of the models were derived based on model-agonistic shapely values, class activation maps with layer-wise relevance backward propagation to establish the most and least relevant feature class determinants used informing the classification decisions. With deep transfer learning, we improved the model peformance before deplying the best model in on various platforms for real-time analysis. This work provides benchmarks for building more realtime responsible software systems with geo-intelligence for geospatial predictive monitoring.