Cross-Market Representation Learning for Regime-Aware Risk Forecasting

Authors

  • Galur Narpati Department of Computer Science, University of North Texas, Denton, TX, USA.
  • Roisin Rhatigan Department of Computer Science, University of New Hampshire, Durham, NH, USA.
  • Anastasie Launay Department of Computer Science, Colorado State University, Fort Collins, CO, USA.

Keywords:

cross-market learning, regime shifts, risk forecasting, representation learning, financial infrastructure, robustness, governance, fairness, systemic risk

Abstract

Cross-market representation learning for regime-aware risk forecasting addresses a central problem in contemporary financial infrastructure: how to construct predictive systems that remain useful when the statistical relationships among assets, markets, and macroeconomic conditions shift abruptly. Traditional risk models often assume stable distributions or rely on narrow asset-specific histories, which limits their capacity to generalize during liquidity shocks, policy pivots, geopolitical fractures, and correlated sell-offs. This paper examines the system-level architecture and governance implications of representation learning methods that combine information from multiple markets while explicitly modeling regime transitions. It argues that cross-market learning is not merely a modeling technique but an infrastructural commitment involving data sharing, feature alignment, latency management, model interpretability, and institutional accountability. The analysis considers structural trade-offs among predictive accuracy, robustness, transparency, fairness, and operational sustainability. It reviews conceptual foundations from domain adaptation, invariant learning, temporal sequence modeling, graph representation learning, and multi-agent decision intelligence. The paper then explores deployment challenges in regulated financial environments, including data quality, feedback loops, adversarial adaptation, systemic risk concentration, and cross-jurisdictional policy fragmentation. It also compares financial risk forecasting with adjacent domains such as energy systems, supply chains, and public health surveillance, where regime shifts create similar tensions between local specificity and global generalization. The conclusion emphasizes that regime-aware cross-market systems require hybrid governance, continuous validation, human oversight, and resilience-oriented design rather than purely predictive optimization. Such systems can improve risk anticipation, but only if their socio-technical dependencies are made explicit and their limits are institutionally recognized.

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Published

2026-06-16