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Consciousness as Constraint: A Critical Engagement with Integrated Information Theory

Jaimes Chao

Zenodo (CERN European Organization for Nuclear Research) February 5, 2026 DOI: 10.5281/zenodo.18492680 (opens in new tab)

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AI-extracted from the abstract
Characteristics Theoretical or philosophical paper Peer reviewed
Keywords Consciousness Reflexivity Integrated information theory Existentialism Field mathematics Property philosophy Vagueness Epistemology Cognitive science Typology Convergence economics Transitive relation Information processing Artificial intelligence
Key points Argues that IIT's structural tensions arise from treating consciousness as a bearer-property and that the Triaxial Existential Field (TEF) offers a constraint-based alternative with clinical, cross-domain, and AI architectural payoffs.

Abstract

Abstract This paper applies the bearer/constraint audit methodology developed in “From Substance to Constraint” to Integrated Information Theory (IIT); the most rigorous contemporary attempt to treat consciousness as a quantifiable property (Φ) instantiated by physical systems with specific causal architecture. IIT’s bearer-commitments generate stable structural tensions: the exclusion problem, the grain problem, the small-Φ problem, and temporal instability. These persist across theory versions because they are downstream consequences of treating consciousness as a bearer-property rather than a constraint-role. The Triaxial Existential Field (TEF) retypes consciousness as integrated reflexive availability under constraint, articulated through three irreducible roles; Coherence, Reflexivity, and Participation. This retyping yields three differential payoffs: (1) a clinically testable typology of consciousness disorders classifying by axis-failure rather than scalar degree; (2) cross-domain convergence with constraint-based treatments of time and quantum measurement; and (3) implementable architectural criteria for artificial consciousness where IIT’s Φ-maximisation remains computationally intractable. Explicit falsification conditions are stated. TEF is positioned as a methodological bet with concrete stakes in clinical classification and AI architecture.