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Angel Motto

Brandeis University, Sherman Oaks, CA, USA
Tuesday, October 13 · Poster Session 1 · Mission Bay Room
Poster
Beyond Neural Activity: The Emergence of Consciousness as a Cascade through Light Refraction, Pressure Gradients, and Modulated Entropy (A Framework of Conserved Entropic-Photonic Symmetry)

Current explanations of consciousness tend to focus either on large-scale neural dynamics or quantum-level proposals, leaving a gap between cellular structure and the coherent field of awareness we experience. This framework suggests consciousness emerges from photonic confinement, pressure-driven organization, entropy regulation, and cascading transitions that scale coherence (via entanglement) from the microscopic to the macroscopic level. These mechanisms form a continuous structure of information that can move, reorganize, and remain stable long enough to produce conscious experience. The foundation of the model is the internal architecture of microtubules. Their geometry supports conditions for total internal reflection, allowing biophotons to remain confined in low-entropy paths rather than dissipating. These circulating modes create stable phase relationships- small coherent patterns that can persist long enough to influence surrounding structures. Photonic interference generates subtle pressure gradients within the microtubular lumen and its ordered water layers. These gradients reshape intracellular fluid movement, ionic positioning, and the tension states of microtubular walls, linking light behavior directly to measurable mechanical effects. These pressure shifts modulate oscillatory timing at the cellular level. They influence how local networks stabilize, how rhythms align, and how coherence moves across microtubule arrays. In this system, entropy functions as the central regulator. Both informational and quantum entropy determine whether a coherent structure is maintained, reorganized, or dissolves. Conscious experience forms at the narrow balance point where entropy supports flexibility without losing structure- a dynamic boundary that prevents collapse into noise while avoiding rigidity. Cascades provide the mechanism by which small changes scale upward. Perturbations in photonic coherence, pressure, or entropy can cross critical thresholds, reorganizing activity across larger regions of the nervous system. These cascades produce recognizable shifts in conscious state (focused attention, insight, dissociation, dreaming) by linking subtle micro-level changes to macro-level patterns. Across all four mechanisms runs a deeper principle: the system preserves informational symmetry as it moves. Coherence survives translation, deformation, and reorganization because what is conserved is the pattern, not the location. This symmetry allows consciousness to maintain continuity even as its physical substrate remains in constant motion. This framework brings together photonics, intracellular mechanics, and entropy-based organization into a single biologically grounded model. It offers testable hypotheses about how light, pressure, and coherence contribute to conscious experience and opens new directions for studying consciousness as a dynamic, entangled, and continuously reorganizing physical process.

About the speaker

Angel Motto is a researcher with a background in cognitive neuroscience, clinical psychiatry, and molecular biology, with current work focused on the biophysics of consciousness. Her interdisciplinary approach draws from quantum biology, neural microstructure, and systems theory to explore how photonic dynamics, pressure gradients, and entropic organization contribute to conscious experience. She has extensive clinical research experience in central nervous system studies and is developing a novel entropic–photonic framework that links microtubular physics to large-scale neural coherence. Her work aims to bridge cellular-level mechanisms with experiential phenomena in a unified, biologically grounded model of consciousness.