A set of guidelines is presented for the responsible development and deployment of artificial intelligence in Advanced Air Mobility, space systems, and space-based Earth Observation. AI applications are examined across onboard and ground-based environments, including perception, detect-and-avoid, guidance and control, autonomous decision-making, satellite data processing, change detection, and geospatial foundation models. The principal barriers to operational adoption are identified, demonstrating that technical performance alone is insufficient without explainability, traceability, uncertainty quantification, physical consistency, representative datasets, domain-shift evaluation, human oversight, and deterministic fallback mechanisms. Drawing on evolving EASA and FAA guidance, the EU AI Act, and relevant aerospace assurance standards, recommendations are provided for early regulatory engagement, incremental deployment, rigorous simulation and validation, runtime monitoring, and comprehensive model and data documentation. The analysis concludes by highlighting the technical, transparency, accuracy, and trust challenges involved in deploying AI across space, urban air mobility, and Earth observation. It emphasizes that early compliance with evolving regulations and sustained collaboration among industry, researchers, and authorities are essential for responsible, effective real-world adoption.
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Vidal-Franco et al. (2026) studied this question.
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