Rogue Variable Theory: A Quantum-Compatible Cognition Framework with a Rosetta Stone Alignment Algorithm

TL;DR

This paper introduces Rogue Variable Theory, a quantum-compatible framework for modeling pre-event cognitive states characterized by ambiguity and tension, using a graph-based quantum information approach with a Rosetta Stone layer for cross-user comparison.

Contribution

It formalizes pre-event cognitive ambiguity as Rogue Variables within a quantum-inspired graph model and introduces a Rosetta Stone layer for cross-user analysis, fully implementable on classical systems.

Findings

Defines Rogue Variables as pre-event cognitive states.

Develops a quantum-inspired graph model with Hamiltonian dynamics.

Introduces a Rosetta Stone layer for cross-user comparison.

Abstract

Many of the most consequential dynamics in human cognition occur \emph{before} events become explicit: before decisions are finalized, emotions are labeled, or meanings stabilize into narrative form. These pre-event states are characterized by ambiguity, contextual tension, and competing latent interpretations. Rogue Variable Theory (RVT) formalizes such states as \emph{Rogue Variables}: structured, pre-event cognitive configurations that influence outcomes while remaining unresolved or incompatible with a system's current representational manifold. We present a quantum-consistent information-theoretic implementation of RVT based on a time-indexed \emph{Mirrored Personal Graph} (MPG) embedded into a fixed graph Hilbert space, a normalized \emph{Quantum MPG State} (QMS) constructed from node and edge metrics under context, Hamiltonian dynamics derived from graph couplings, and an error-weighted `rogue operator'' whose principal eigenvectors identify rogue factor directions and candidate Rogue Variable segments. We further introduce a \emph{Rosetta Stone Layer} (RSL) that maps user-specific latent factor coordinates into a shared reference Hilbert space to enable cross-user comparison and aggregation without explicit node alignment. The framework is fully implementable on classical systems and does not assume physical quantum processes; \emph{collapse} is interpreted as informational decoherence under interaction, often human clarification.