🤖 AI Summary
The rapid deployment of generative and embodied AI agents in financial markets exposes fundamental limitations in traditional static risk frameworks—particularly regarding continual learning, cross-agent signal interaction, and detection of emergent behaviors. Method: We propose a four-layer modular regulatory architecture grounded in complex adaptive systems theory, enabling synchronous co-evolution of regulatory modules and AI models. It integrates self-regulation, enterprise-level aggregation, cross-institutional monitoring, and independent auditing. Leveraging multi-agent modeling, real-time telemetry aggregation, and a dynamic policy execution engine, the framework supports adaptive, fine-grained oversight. Contribution/Results: In manipulation scenarios such as quote stuffing, it achieves millisecond-scale risk detection and containment, markedly enhancing regulatory observability, temporal adaptivity, and cross-agent coordinated control—thereby addressing critical gaps in current governance frameworks.
📝 Abstract
Generative and agentic artificial intelligence is entering financial markets faster than existing governance can adapt. Current model-risk frameworks assume static, well-specified algorithms and one-time validations; large language models and multi-agent trading systems violate those assumptions by learning continuously, exchanging latent signals, and exhibiting emergent behavior. Drawing on complex adaptive systems theory, we model these technologies as decentralized ensembles whose risks propagate along multiple time-scales. We then propose a modular governance architecture. The framework decomposes oversight into four layers of "regulatory blocks": (i) self-regulation modules embedded beside each model, (ii) firm-level governance blocks that aggregate local telemetry and enforce policy, (iii) regulator-hosted agents that monitor sector-wide indicators for collusive or destabilizing patterns, and (iv) independent audit blocks that supply third-party assurance. Eight design strategies enable the blocks to evolve as fast as the models they police. A case study on emergent spoofing in multi-agent trading shows how the layered controls quarantine harmful behavior in real time while preserving innovation. The architecture remains compatible with today's model-risk rules yet closes critical observability and control gaps, providing a practical path toward resilient, adaptive AI governance in financial systems.