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From Principles to Practice: Engineering Responsible AI for Geospatial Intelligence
Muhammad Hassan1, Bilal Sardar1, Shareeful Islam1
1School of Computing and Information Science, Anglia Ruskin University, East Road, Cambridge, UK.
Summary
This study introduces a methodology to integrate responsible AI (R-AI) characteristics like privacy and fairness into geospatial AI models. The approach successfully balances R-AI compliance with over 97% of predictive accuracy in crop and flood risk assessments.
Area of Science:
- Geospatial Artificial Intelligence (AI)
- Responsible AI (R-AI)
- Machine Learning Model Development
Background:
- Current AI in geospatial applications prioritizes predictive accuracy over responsible AI (R-AI) principles.
- High-stakes decisions in areas like crop classification and flood risk assessment require robust R-AI integration.
- Lack of standardized methodologies for embedding R-AI into geospatial AI lifecycles.
Purpose of the Study:
- To operationalize R-AI practices within geospatial AI development.
- To propose a conceptual framework and a four-phase methodology for embedding R-AI characteristics.
- To demonstrate the compatibility of R-AI with high predictive accuracy in geospatial tasks.
Main Methods:
- Development of a conceptual R-AI view across data, model, and prediction levels.
- Implementation of a four-phase methodology with concrete techniques and quantifiable acceptance criteria.
- Utilization of the Pareto-Adaptive R-AI Compliance (PARC) algorithm to govern thresholds and interactions between R-AI characteristics.
- Evaluation using the Temporal-Spatial Vision Transformer (TSViT) on crop type and urban flood risk classification tasks.
Main Results:
- All twelve R-AI acceptance criteria were satisfied across both experiments.
- Privacy protection reduced membership inference attack accuracy significantly.
- Fairness interventions narrowed the geographic performance gap.
- Transparency verification reduced physically inconsistent model behavior.
- Explainability mechanisms improved temporal attribution consistency.
- Over 97% of baseline predictive utility was retained.
Conclusions:
- Responsible AI and predictive accuracy are achievable simultaneously in geospatial deep learning.
- The proposed methodology offers a replicable and measurable pathway for embedding R-AI into geospatial AI.
- The approach is validated across diverse real-world geospatial tasks, including crop classification and flood risk assessment.
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