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May 18, 20260 citationsOpen Access

AIKernel: Formal Foundations for Trajectory Governance and the AIKernel.NET Runtime

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TSTakuya Sogawa

Key Points

  • This project aims to establish a formal framework for trajectory governance in AI, ensuring deterministic safety for models.
  • Develops a trajectory governance model for large language models and AI agents.
  • Introduces a governance system using PDP/PEP/PIP architectures and SGP pipelines.
  • Proposes a multi-phase experimental validation plan targeting key components of AI context and safety.
  • The framework enforces a fail-closed perimeter that halts execution on policy violations.
  • Demonstrated potential for improved context sovereignty and safety in enterprise-grade AI systems.

Abstract

**Abstract / Description** The AIKernel project introduces a formalized Trajectory Governance Model_ designed to establish a deterministic safety boundary around the inherently stochastic reasoning processes of Large Language Models (LLMs) and AI agents. To address critical challenges such as context contamination, opacity of state transitions, and goal drift, this research models AI inference as a continuous dynamical trajectory rather than as isolated text-generation events. The system architecture incorporates a standard access control model (PDP / PEP / PIP) and an SGP (Structure, Generation, Polish) pipeline that structurally decouples logical reasoning from linguistic expression. By representing inference states geometrically as Semantic Ellipsoids_ and calculating normalized Convergence (Ct) and Anomaly (At) scores, the framework dynamically enforces an auditable Fail-Closed_ control perimeter that halts execution upon policy violation. This theoretical model is mapped to `AIKernel. NET`, an OS-like architecture that provides a governed AI runtime design focusing on semantic context, virtual file systems, provider abstraction, deterministic execution, and Fail-Closed governance. To empirically assess this framework, a comprehensive multi-phase experimental validation plan has been proposed, targeting candidate filtering, approval routing, and replay-based calibration. This research contributes the mathematical foundations required to advance verifiable context sovereignty and safety in enterprise-grade autonomous AI systems (DOI: 10. 5281/zenodo. 20223205).

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Cite This Study

Takuya Sogawa (2026) studied this question.

synapsesocial.com/papers/6a0aad145ba8ef6d83b70804https://doi.org/10.5281/zenodo.20223204
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