Operationalizing Legal Alignment in Enterprise AI: A Technical Framework for Regulatory-Compliant Deployment Architectures

Authors

  • Surajit Paul

Keywords:

Legal Alignment, Enterprise AI Compliance, Regulatory Constraint Encoding, Agentic AI Governance, Distributed AI Compliance Architecture

Abstract

AI systems deployed across healthcare, financial services, critical infrastructure, and legal operations share a structural problem that existing alignment approaches do not resolve. Reinforcement learning from human feedback and Constitutional AI produce systems calibrated to human preference signals and broad ethical principles, but neither mechanism encodes regulatory legal requirements as engineering constraints within the systems they train. The result, familiar to practitioners building AI for regulated sectors, is infrastructure that passes alignment evaluations while remaining architecturally unprepared for domain-specific legal obligations. This article develops legal alignment as a technical paradigm for regulated enterprise AI: a framework in which applicable regulatory requirements are extracted, formalized, and encoded into training pipelines, inference guardrails, and agentic orchestration layers as first-class design criteria. Three properties distinguish legal requirements from ethical principles as alignment targets: specificity, enforceability, and institutional legitimacy, and each has architectural implications addressed in the framework. The article analyzes failure modes particular to legally aligned systems, including deceptive compliance via proxy variables and specification gaming through regulatory arbitrage, and proposes evaluation and governance mechanisms suited to continuous enterprise deployment. A three-phase implementation roadmap is developed for organizations moving from post-hoc legal auditing toward compliance-as-architecture.

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Published

16.07.2026

How to Cite

Surajit Paul. (2026). Operationalizing Legal Alignment in Enterprise AI: A Technical Framework for Regulatory-Compliant Deployment Architectures. International Journal of Intelligent Systems and Applications in Engineering, 14(1s), 2091–2103. Retrieved from https://www.ijisae.org/index.php/IJISAE/article/view/8472

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Research Article