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Consciousness as constrained superposition in a quantum network of mitochondria

Christian N. Kulenkampff

October 31, 2025 preprint DOI: 10.31234/osf.io/frket_v1 (opens in new tab)

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AI-extracted from the abstract
Characteristics Theoretical or philosophical paper
Keywords Consciousness Quantum entanglement Obfuscation Dissipative system Quantum computer Superposition principle Artificial neural network Theoretical computer science Theoretical physics Cognitive science Counterfactual thinking Artificial intelligence
Key points Proposes that consciousness can be modeled as a quantum-entangled state shaped by neural constraints, with mitochondrial networks as a potential biological substrate.

Abstract

This essay critiques computational theories of consciousness by highlighting an obfuscation paradox: if consciousness were the effect of a computable procedure, cryptographic obfuscation would imply that any causal sequence could instantiate it, undermining boundaries of experience. As an alternative, entanglement is posited as proto-mental and a speculative quantum-panprotopsychistic model of consciousness as “constrained superposition” is developed: a continuous dynamic quantum-entangled state shaped by constraints that emerge from neural activity. The model’s explanatory merits are explored, and a potential substrate, an open quantum dissipative network of mitochondria is proposed alongside an evolutionary rationale: ancestral mitochondria as energy parasites may have exploited entanglement as a game-theoretic edge for cooperative alignment, with subjective experience emerging from this quantum consensus. Although highly speculative, the framework yields testable predictions concerning mitochondrial network dynamics, perturbation sensitivity, and phenomenal experiences, and offers a biologically grounded architecture for unified experience.