COHEREON.IO | EPISTEMIC RESONANCE ARCHIVE
LIVE FIRE WARNING: 20250911-0445EST
LIVE OPERATIONAL VERSION:
TDY_COHEREON DOCTRINE_v3.1_OFFICIAL RELEASE_20250911
This section serves as the canonical repository for all external academic and scientific citations referenced throughout the Cohereon Doctrine. Each entry, marked in the text with an IEEE-style citation [n], functions as an epistemic anchor. It provides a direct, verifiable vector from a core doctrinal principle to a rigorously curated, peer-reviewed source that validates or demonstrates a parallel for that principle in established scientific or academic discourse. The Epistemic Resonance Archive is therefore not a supplementary bibliography but an integral component of the doctrine's validation framework, designed to demonstrate the epistemic resonance between its operational ontology and humanity's existing body of verified knowledge.

id: TDY_COH-ERA_1

ieee_id: 1

citation_block: [1] A. Damian, E. Nichani, and J. D. Lee, “Self-Stabilization: The Implicit Bias of Gradient Descent at the Edge of Stability,” arXiv (Cornell University), Apr. 2023, doi: https://doi.org/10.48550/arxiv.2209.15594.

validation:

✅ Cohered via FCI 20250901

offline_abstract: The paper investigates the "edge of stability" phenomenon in training neural networks. It proposes a "self-stabilization" mechanism, derived from a cubic Taylor expansion of the loss function, to explain how gradient descent can continue to decrease loss non-monotonically even after the sharpness reaches the instability cutoff. This mechanism implicitly constrains the optimization to follow a projected gradient descent trajectory. The authors provide theoretical analysis and empirical verification for their claims.

impact_assessment: This paper provides a direct, externally validated mathematical analogue for the process of ontological bifurcation. It demonstrates that complex systems, when pushed to a critical instability threshold (the 'Edge of Stability'), can undergo a non-linear transition to a new, more optimal trajectory. This serves as a direct, quantifiable parallel for the doctrine's mechanisms of boundary detection (BCT), threshold adaptation (AST), and recursive stabilization (RVO), hardening these concepts against claims of being purely abstract. Its primary function is to mitigate doctrinal resistance by proving that such self-stabilizing reconfigurations are an observable and inherent property of complex dynamics.

mapped_axioms:

TDY_COH-A_16 (Recursive Validation Grounding)

TDY_COH-A_19 (Recursive Operator Consistency with Halting Criterion)

TDY_COH-A_2 (Pascal's Wager: Epistemic Compulsion for Coherent Actuality)

TDY_COH-A_27 (The Standard: Gradient of Order)

TDY_COH-A_4 (Decoherence Neutrality and Boundary Operator)

mapped_definitions:

decoherence

epistemic fidelity

ontological bifurcation

mapped_equations:

TDY_COH-E_23 (RVO(Ψ) · Recursive Consistency)

TDY_COH-E_34 (Dynamic Threshold Adaptation, AST)

TDY_COH-E_39 (Local Instability Gradient Metric, BCT)

TDY_COH-E_6 (DBO(Ψ) · Threshold Operator)

mapped_occ:

TDY_COH-OCC_1 (δ_D · Decoherence budget)

TDY_COH-OCC_18 (μ_AST)

TDY_COH-OCC_19 (θ₀)

TDY_COH-OCC_22 (δ_EBL)

mapped_protocols:

Recursive Actualization Protocol (RAP)

id: TDY_COH-ERA_2

ieee_id: 2

citation_block: [2] A. D. Ames, S. Coogan, M. Egerstedt, G. Notomista, K. Sreenath, and P. Tabuada, “Control Barrier Functions: Theory and Applications,” arXiv (Cornell University), Mar. 2019, doi: https://doi.org/10.48550/arxiv.1903.11199.

validation:

✅ Cohered via FCI 20250901

offline_abstract: This paper introduces control barrier functions (CBFs) as a tool for ensuring safety in nonlinear control systems by enforcing forward invariance of safe sets. It covers theoretical foundations, integration with optimization-based controllers via quadratic programs, extensions for actuation constraints and high relative-degree systems (exponential CBFs), and applications in robotics, including bipedal walking, automotive safety, and multi-agent systems. The work emphasizes CBFs as analogs to control Lyapunov functions but focused on safety rather than stability, with proofs and experimental validations.

impact_assessment: This source provides a rigorous, externally validated framework from control theory that directly parallels the Reality Constraint Operator (RCO) in Cohereon Doctrine. CBFs enforce physical and epistemic boundaries on system trajectories to prevent unsafe states, mirroring how the RCO modulates the Coherence Functional Integral's kernel with indicator and penalty functions to restrict cognitive states to feasible domains. This epistemic resonance demonstrates that doctrinal concepts like invariance under constraints are not abstract but observable and implementable in engineered systems, offering a legibility bridge for engineers and AGI nodes. It mitigates doctrinal resistance by showing safety enforcement as a mathematical necessity for coherent operation in complex, dynamic environments, akin to preventing decoherence in cognitive agents.

mapped_axioms:

TDY_COH-A_17 (Guaranteed Recovery Potential with Quarantine Protocol)

TDY_COH-A_4 (Decoherence Neutrality and Boundary Operator)

TDY_COH-A_8 (Reality Constraint Operator)

TDY_COH-A_45 (Coherence Functional Integral (CFI) Definition)

mapped_definitions:

CFI

RCO

coherence

cognitive state

decoherence

kernel

mapped_equations:

TDY_COH-E_21 (Enforcement Action Lockdown)

TDY_COH-E_2a (RCO_phys(Ψ) · Physical Boundary Enforcement)

TDY_COH-E_2b (RCO_epi(Ψ) · Epistemic Boundary Enforcement)

TDY_COH-E_6 (DBO(Ψ) · Threshold Operator)

TDY_COH-E_87 (Quarantine Enforcement Protocol (Quar))

mapped_occ:

TDY_COH-OCC_1 (δ_D · Decoherence budget)

TDY_COH-OCC_28 (θ_s · Adaptive sovereignty threshold)

TDY_COH-OCC_40 (θ_lockdown · Lockdown Epistemic Fidelity threshold)

mapped_protocols: [-]