The Law of Causal Residual: Dual Retrograde Attribution of Lineage-Bearing Residuals and "First-Order Execution Tuning vs. Second-Order Rule Redefinition" Judgment
Year: 2026
Type: preprint
Abstract: Across enterprise operations, public governance, engineering control, and Artificial General Intelligence (AGI) evolution, catastrophic system failures rarely stem from external shocks alone; rather, they are triggered by misattributed feedback and counter-productive work when actual outcomes deviate from expectations (generating residuals). When underlying cognitive models and rule assumptions have already been invalidated by out-of-distribution (OOD) environmental phase transitions ("the model is wrong"), decision-makers or control algorithms frequently misdiagnose the deviation as insufficient execution effort ("the world drifted"), intensifying KPI penalties and compute loops under broken rules until the system collapses in a Turing Deadlock. Conversely, when minor local execution fluctuations occur, organizations lacking lineage traceability often overreact by overturning valid global plans, inducing severe system nervousness. Grounded in first principles of systems and complexity science, this paper formulates and proves the core law governing feedback attribution and cross-generational evolution in complex giant systems: The Law of Causal Residual. First, we show that classical cybernetics and modern statistics fail to distinguish execution drift from model bankruptcy because they reduce residuals to lineage-free scalar differences (e(t)=yreal−yplane(t)=yreal−yplan), severing the forward topological lineage of state transformations. Second, within the five-dimensional holographic manifold Mmodel=⟨N,T,C,X,ΔX⟩Mmodel=⟨N,T,C,X,ΔX⟩, the planned state is generated via forward instantiated causal pointer chains (Xplan=X⊕ΔXcausalXplan=X⊕ΔXcausal); when objective reality manifests, algebraic transposition yields a Lineage-Bearing Causal Residual (ΔXresidual=Xreal⊖XplanΔXresidual=Xreal⊖Xplan) anchored directly to that forward causal chain. Third, tracing retrograde along this causal pointer chain yields a strict Binary Dual Judgment: if hard constraints ChardChard and soft constraints CsoftCsoft remain mutually compatible along the causal chain (feasible set Sol(Ck)≠∅Sol(Ck)=∅) and deviation arises solely from local node fluctuations, the system judges that "the model is valid; the world drifted," triggering first-order closed-loop execution tuning (accounting for 99% of routine perturbations in theoretical routing, and sustaining >95% human-out-of-the-loop autonomous closure across 18 years of industrial practice); conversely, if retrograde tracing reveals that hard constraints and soft rules collide with an empty intersection (Sol(Ck)=∅Sol(Ck)=∅, a Gödelian incompleteness deadlock), the system judges that "reality is faultless; the model is broken," immediately halting first-order execution escalation and activating the second-order metacognitive constitutional amendment operator Φ:Boundaryk⟶ΔXBoundaryk+1Φ:Boundaryk⟶ΔXBoundaryk+1 to rewrite invalid soft rules while respecting objective hard constraints. Finally, we examine the value of this law for organizational governance and explain why Wiener cybernetics, Gaussian statistics, and contemporary deep learning missed it. Keywords: The Law of Causal Residual; Lineage-Bearing Causal Residual; First-Order Execution Tuning; Second-Order Constitutional Redefinition; Gödel Deadlock; Metacognitive Re-Delineation; Causal-Residual Duality; Human-Out-of-the-Loop
Author: meng, grit
Language: English
Field: Decision Sciences
Domain: Social Sciences
Open Access status: green
OpenAlex ID: W7225387732