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Causal Identification Boundary for Consciousness-Relevant Organization

Richard Anthony Amaya

Zenodo (CERN European Organization for Nuclear Research) August 19, 2026 preprint DOI: 10.5281/zenodo.22015814 (opens in new tab)

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AI-extracted from the abstract
Characteristics Theoretical or philosophical paper
Key points Proposes a causal-inference architecture using structural equation models, Bayesian networks, DAGs, do-calculus, and information-theoretic signatures to test whether consciousness-relevant causal organization (H_C) can be mathematically separated from advanced stochastic parrotism (H_0). The authors state the output is an empirical causal graph of information routing, not a proof of sentience, and acknowledge limitations including observational-only data, unobserved confounders, measurement error, model misspecification, and countermodel equivalence.

Abstract

This architecture cannot definitively establish the presence of phenomenal experience. Rather, its operational objective is to map the causal pathways of complex information processing to determine if H_C (Consciousness-relevant causal organization) can be mathematically separated from H_0 (Advanced Stochastic Parrotism). The underlying methodology relies strictly on structural equation models (SEMs), Bayesian networks, and directed acyclic graphs (DAGs) operating via Judea Pearl's do-calculus, alongside information-theoretic signatures (mutual information, transfer entropy). The final output is an empirical causal graph mapping information routing—not a proof of sentience. LIMITATIONS, FAILURE MODES, AND ALTERNATIVE HYPOTHESES (H0): The causal identification architecture is limited to observational data and does not include direct manipulation of phenomenal experience. Failure modes include: 1. Causal Sufficiency: Unobserved confounders may exist. Mitigation: Instrumental variables and sensitivity analyses. 2. Measurement Error: Neural measures such as wPLI are noisy. Mitigation: Multimodal validation and repeated measures. 3. Model Misspecification: The DAG may not capture the true causal structure. Mitigation: Bayesian model averaging and alternative DAG comparison. 4. Countermodel Equivalence: A non-conscious countermodel may produce similar causal separation. Mitigation: Mandatory comparison with countermodel and locked AUROC margin.