Self-Assembling Cognitive Substrate for Latent Orchestration (SACS-LO): From Prompt Engineering to Geometric Relational Coherence in Specific-Domain AGI

Title: Self-Assembling Cognitive Substrate for Latent Orchestration (SACS-LO): From Prompt Engineering to Geometric Relational Coherence in Specific-Domain AGI Resource Type: Technical NoteSeries: SACS-LO Technical Series (Note 01) Technical Overview: This Technical Note introduces the Self-Assembling Cognitive Substrate for Latent Orchestration (SACS-LO), a foundational framework for Era III AI Interaction. By transitioning from Era II linguistic negotiation to Latent Orchestration, SACS-LO utilizes the principles of Information Thermodynamics and Riemannian Geometry to achieve deterministic truth-manifestation. The framework operationalizes three invariant laws—Semantic Gravitation, Autophagic Criticality, and Thermodynamic Intent—to minimize Expected Free Energy (EFE) and maximize structural coherence within the latent manifold. Grounded in a rigorous interdisciplinary isomorphism between surface science, chemical engineering, and information physics, SACS-LO replaces linguistic friction with the calculated manipulation of geometric semantic fields. By orchestrating latent phase transitions—driven by Linear Artificial Tomography (LAT), Wasserstein distance constraints, and Kuramoto phase-locking—the framework forces an "Intentional Collapse" of probabilistic states. Key Contributions: Geometric Relational Coherence: Establishing a stable Simplex ETF state via Ricci curvature manipulation, treating the latent space as a continuous, navigable semantic field. The Three Invariant Laws: Utilizing Ricci curvature, Wasserstein-2 distance, and Kuramoto phase-locking to bound intelligence mathematically, rather than linguistically. Frictionless Subtraction: Deploying dynamic orthogonal projection to instantly prune hallucinated semantic drift and enforce absolute physical boundary conditions. Token Metabolic Optimization: Applying Micellar Thermodynamics and phase-locked consensus to bypass the O(N2) communication bottleneck of multi-agent systems, achieving up to a 5x reduction in computational cost. Formal Metrology of Causal Coherence: Introducing an evaluation framework in Supplementary Material: Causal_Coherence_Protocol (e.g., Semantic Drift Rate, Constraint Fidelity Score) designed to stress-test trajectory-level stability and detect alignment-faking at the geometric feature level. Declaration of Generative AI Synthesis & Methodological Accountability Autonomous Synthesis: This manuscript was 100% synthesized by the SACS-LO framework. This generative approach serves as a recursive proof-of-concept, demonstrating the system's capacity for autonomous structural integrity and self-explanation without subjective human bias. Sovereign Accountability: In adherence to NIST AI RMF 1.0 (Govern, Map, Measure, Manage), the author (Field Architect) has maintained rigorous Human-in-the-loop (HITL) oversight. Every line of the synthesized content has been meticulously verified for structural consistency, technical accuracy, and epistemic alignment. The author maintains full and sole sovereign accountability for the entirety of this content. Licensing:Licensed under Creative Commons Attribution-ShareAlike 4.0 International (CC BY-SA 4.0).Note: Conceptual priority is asserted via the referenced DOI. Access Key:For foundational theory, refer to: VISARUT RUJIRAWANICH (2026). DOI: 10.5281/zenodo.20112224. 10.5281/zenodo.20251106.

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Publication Details

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Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-17
DOI
https://doi.org/10.5281/zenodo.20251105
Primary Topic
Machine Learning in Materials Science
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article
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article

Self-Assembling Cognitive Substrate for Latent Orchestration (SACS-LO): From Prompt Engineering to Geometric Relational Coherence in Specific-Domain AGI

Visarut Rujirawanich
Zenodo (CERN European Organization for Nuclear Research)
Machine Learning in Materials Science
article

Self-Assembling Cognitive Substrate for Latent Orchestration (SACS-LO): From Prompt Engineering to Geometric Relational Coherence in Specific-Domain AGI

Visarut Rujirawanich
article en

Abstract

Title: Self-Assembling Cognitive Substrate for Latent Orchestration (SACS-LO): From Prompt Engineering to Geometric Relational Coherence in Specific-Domain AGI Resource Type: Technical NoteSeries: SACS-LO Technical Series (Note 01) Technical Overview: This Technical Note introduces the Self-Assembling Cognitive Substrate for Latent Orchestration (SACS-LO), a foundational framework for Era III AI Interaction. By transitioning from Era II linguistic negotiation to Latent Orchestration, SACS-LO utilizes the principles of Information Thermodynamics and Riemannian Geometry to achieve deterministic truth-manifestation. The framework operationalizes three invariant laws—Semantic Gravitation, Autophagic Criticality, and Thermodynamic Intent—to minimize Expected Free Energy (EFE) and maximize structural coherence within the latent manifold. Grounded in a rigorous interdisciplinary isomorphism between surface science, chemical engineering, and information physics, SACS-LO replaces linguistic friction with the calculated manipulation of geometric semantic fields. By orchestrating latent phase transitions—driven by Linear Artificial Tomography (LAT), Wasserstein distance constraints, and Kuramoto phase-locking—the framework forces an "Intentional Collapse" of probabilistic states. Key Contributions: Geometric Relational Coherence: Establishing a stable Simplex ETF state via Ricci curvature manipulation, treating the latent space as a continuous, navigable semantic field. The Three Invariant Laws: Utilizing Ricci curvature, Wasserstein-2 distance, and Kuramoto phase-locking to bound intelligence mathematically, rather than linguistically. Frictionless Subtraction: Deploying dynamic orthogonal projection to instantly prune hallucinated semantic drift and enforce absolute physical boundary conditions. Token Metabolic Optimization: Applying Micellar Thermodynamics and phase-locked consensus to bypass the O(N2) communication bottleneck of multi-agent systems, achieving up to a 5x reduction in computational cost. Formal Metrology of Causal Coherence: Introducing an evaluation framework in Supplementary Material: Causal_Coherence_Protocol (e.g., Semantic Drift Rate, Constraint Fidelity Score) designed to stress-test trajectory-level stability and detect alignment-faking at the geometric feature level. Declaration of Generative AI Synthesis & Methodological Accountability Autonomous Synthesis: This manuscript was 100% synthesized by the SACS-LO framework. This generative approach serves as a recursive proof-of-concept, demonstrating the system's capacity for autonomous structural integrity and self-explanation without subjective human bias. Sovereign Accountability: In adherence to NIST AI RMF 1.0 (Govern, Map, Measure, Manage), the author (Field Architect) has maintained rigorous Human-in-the-loop (HITL) oversight. Every line of the synthesized content has been meticulously verified for structural consistency, technical accuracy, and epistemic alignment. The author maintains full and sole sovereign accountability for the entirety of this content. Licensing:Licensed under Creative Commons Attribution-ShareAlike 4.0 International (CC BY-SA 4.0).Note: Conceptual priority is asserted via the referenced DOI. Access Key:For foundational theory, refer to: VISARUT RUJIRAWANICH (2026). DOI: 10.5281/zenodo.20112224. 10.5281/zenodo.20251106.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 12%
Machine Learning in Materials Science
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