Hypothesis: Beyond the Neural Correlates - Consciousness as Emergent Property of Whole-Organism RNA Attractor Networks

Consciousness may originate not solely in the brain but as an emergent property of RNA attractor networks throughout the body, modulated by bioelectric fields. The theory proposes that qualia arise as global properties of distributed RNA conformational landscapes, with the nervous system acting as a high-complexity amplifier rather than the source. Evidence from 2025-2026 supports molecular mechanisms including quantum radical-pair coupling in cryptochrome and calcium-dependent annexin transduction. The framework accommodates disorders of consciousness and general anesthesia through a two-layer temporal architecture: a fast bioelectric layer and a slow epitranscriptomic layer. Six falsifiable hypotheses and a three-aim research program are proposed, including predictions about fetal EEG coherence and differential RNA profiles in exosomes.

Study at a glance

Abstract

Current theories of consciousness locate its substrate primarily within neural architecture - synaptic connectivity, oscillatory dynamics, or specific cortical circuits. We argue that this level of analysis is insufficient to account for the full phenomenology of conscious experience and propose a fundamentally different framework. Converging empirical evidence from 2025 - 2026 is consistent with several molecular pillars of this framework, providing post-hoc plausibility for hypotheses developed on theoretical grounds. We hypothesize that consciousness is an emergent property of whole-organism RNA attractor networks - topological attractors defined by the three-dimensional conformational landscape of RNA across all tissues, dynamically modulated by bioelectric fields through two parallel transduction pathways: quantum radical-pair coupling in cryptochrome and flavoprotein-class of proteins, as well as calcium-dependent conformational switching in the annexin protein family. On this account, the nervous system is not the origin of consciousness but it is highest-complexity amplifier thereof. The theory rests on six interlocking pillars: (1) a consciousness continuum from single-celled organisms whose reactive properties are consistent with RNA-dynamic mechanisms; (2) a node/network architecture in which qualia emerge as global properties of the distributed network; (3) RNA as the universal state carrier, encoding information in both linear sequence and three-dimensional, spatial conformation - supported by genome-wide RNA-protein interaction mapping, covering over 350,000 associations [1] and by evidence that RNA conformational changes propagate heritably through biomolecular condensates [2]; (4) two parallel molecular interfaces between bioelectric fields and RNA conformational state - a quantum arm via radical-pair coupling in cryptochrome-class flavoproteins, demonstrated in vivo [3,4], and a classical arm via Ca²⁺-dependent annexin-family transduction, empirically supported by voltage-sensitive annexin translocation, RNA binding, and exosomal packaging [33,34,35,37]; (5) qualia as topological attractor classes within the RNA conformational landscape - consistent with the progressive accumulation of RNA G-quadruplexes in human hippocampal neurons as a function of experiential history [5]; and (6) a transgenerational epitranscriptomic modulation mechanism by which experiential modification of RNA epigenetic state is partially inherited, driving the evolution of conscious complexity over geological time. The framework is further tested against the clinical continuum of disorders of consciousness - vegetative state (VS), minimally conscious state (MCS), locked-in syndrome (LIS), and hydranencephaly - and against the pharmacological challenge of general anaesthesia. Both sets of natural experiments are accommodated by a two-layer temporal architecture: a fast bioelectric layer (milliseconds) that traverses a slow epitranscriptomic landscape (minutes to hours). Disorders of consciousness reflect damage to or impairment of the fast layer at varying degrees; general anaesthesia reversibly disables the fast layer while leaving the RNA slow layer structurally intact. These predictions are directly testable with currently available epitranscriptomic tools. The framework generates six falsifiable hypotheses and a concrete three-aim research programme. Key predictions include: a phase transition in RNA network topology correlating with the onset of fetal EEG coherence (~24-28 weeks); predictable alteration of specific qualia classes following targeted RNA conformational perturbation; measurable modulation of cryptochrome radical-pair spin states by endogenous bioelectric fields in mammalian tissue in vivo; and differential epitranscriptomic RNA profiles in plasma exosomes between VS patients with and without covert awareness, MCS patients, and patients under general anaesthesia. We outline an experimental programme operationalizing these predictions across a staged nine-level implementation structure; full wet-lab specifications, computational pipelines, and ethical safeguards are provided in Supplementary Protocol A (“Project Prometheus Blueprint v3.0”).