A Unified Holographic Framework for Neural Computation and Consciousness from Lipid Membranes to the Schumann Resonance

" Understanding the mechanisms underlying consciousness remains one of neuroscience’s greatest challenges. This paper presents a unified biophysical framework grounded in a dual-function theory of the brain, proposing that neural computation and conscious experience emerge from phase coherence across lipid membranes, vicinal water, and cerebrospinal fluid (CSF). We posit that lipid bilayers act as dynamic electromagnetic substrates, capable of encoding information via localized potential gradients and phase-ordered structures. Vicinal water domains adjacent to membranes may sustain coherence at the quantum level, facilitating signal propagation and integration. CSF dynamics, entrained by cardiorespiratory rhythms, may serve as a macroscopic resonator, coupling internal brain states to environmental electromagnetic fields. In particular, we explore how the human brain could synchronize with the Schumann resonance—the Earth’s natural electromagnetic background—via cross-scale resonance." {Credits 1}

" Cavaglià et al. proposed that the neural lipid bilayer and its adjacent water layers may function as a coherent, holographically organized interface capable of encoding and projecting internal states through resonance and electromagnetic (EM) feedback (8,9). This model integrates insights from quantum field theory, bio-electromagnetism, and neuroanatomy to hypothesize that cognition may arise from the interference patterns formed within and across neural membranes and interfacial water layers." {Credits 1}

" We hypothesize that the brain acts as a holographic field processor, with lipid membranes functioning as phase-sensitive recording media and vicinal water acting as a coherence amplifier and modulator." {Credits 1}

" Vicinal water, forming ordered layered structures around hydrophilic surfaces on lipid membranes and protein exteriors, exhibits altered refractive indices, redox potential, and different viscosity (21,22) compared to ordinary bulk water. These properties allow for the amplification of weak bioelectric and photonic signals. Such structured water domains may serve as real-time coherence domains, capable of sustaining long-range phase relations in neuronal assemblies." {Credits 1}

" Information can be electromagnetically encoded ("written") into the membrane through interference patterns generated by fluctuating ion currents and vibrational modes (23). It can then be "read" by mechanisms that include EM coupling, hydration layer oscillations, and possibly ultraweak photon emission (24). This read-write cycle may allow for recursive, distributed memory and computation without the need for localized storage." {Credits 1}

" Neural membranes and their surrounding water matrices are sensitive to Schumann resonance frequencies (7.83 Hz and harmonics), geomagnetic fluctuations, and endogenous brain rhythms (25,26). These external and internal EMFs may act as modulators or synchronization triggers, allowing the system to resonate with macro-environmental information fields, potentially explaining anomalous cognitive phenomena (26–28). As depicted in Figure 1, our model spans from planetary Schumann resonances to nanometer-scale membrane domains, outlining the nested coherence interfaces that underlie holographic neural computation." {Credits 1}

{Credits 1} 🎪 Cavaglià, M., & Tuszynski, J. A. (2025). A Unified Holographic Framework for neural computation and consciousness: From lipid membranes to the Schumann resonance. BioSystems, 105669. © 2025 The Author(s). This is an open access article distributed under the terms of the Creative Commons Attribution License 4.0.