Noushin Nabavi

Despite decades of research, no scientific model has fully explained how subjective experience arises from neural activity. The T-Consciousness Theory proposes that the brain does not generate consciousness but rather acts as a transducer through which consciousness is expressed. Within this framework, T-Consciousness Fields (TCFs)—non-physical yet structured informational entities—are hypothesized to interact with biological systems and modulate neurophysiological and metabolic processes. Although non-material in nature, these fields are considered empirically accessible. This study examines how one such field, TCF1(Faradarmani®), influences brain function, providing a novel perspective on the interface between consciousness and neural activity. Two complementary studies were conducted involving trained individuals known as Fara-therapists. In the first experiment, electroencephalography (EEG) was used to measure changes in absolute power across frequency bands during three distinct conditions: baseline (Rest 1), exposure to TCF1 (Task), and final rest (Rest 2). In the second study, proton magnetic resonance spectroscopy (H-MRS) was employed to evaluate potential metabolic alterations in brain regions previously identified as responsive to the field. Spectral amplitude and Shannon entropy were analyzed as indices of metabolic activity and informational complexity. Statistical analyses compared within-subject changes across conditions, focusing on field-responsive versus non-responsive regions. EEG results revealed a 10–35% reduction in absolute power across low to mid frequency bands (delta to alpha) during the early phase of field exposure, followed by sustained decreases of 6–8% in high-beta and gamma bands during later stages. These findings suggest reduced cortical excitability and reorganization of spectral activity under the influence of TCF1. Complementary MRS data indicated an approximate 30% decrease in spectral amplitude and a 20% reduction in Shannon entropy within field-responsive regions, consistent with reduced metabolic variability and enhanced neural efficiency. Non-responsive regions exhibited no statistically significant metabolic alterations. Collectively, these results demonstrate a reproducible neurophysiological signature associated with exposure to the T-Consciousness Field. The convergent EEG and MRS findings suggest that T-Consciousness Fields can modulate both neural activity and cerebral metabolism without any physical or mental intervention. The observed neurophysiological and metabolic changes support the hypothesis that consciousness—conceived as a non-physical fundamental phenomenon—can exert structured, measurable influences on biological systems. These results provide preliminary empirical support for the informational nature of T-Consciousness interactions, opening new avenues for interdisciplinary research in consciousness science, neuroinformatics, and bioenergetics. Future investigations, including phosphorus MRS (P-MRS) analyses of ATP and energy metabolism, are warranted to further elucidate the mechanisms and implications of TCF–brain interactions.

Noushin Nabavi is an independent researcher based in Victoria, Canada, with interests in neuroenergetics, consciousness studies, and mind–brain interaction. She completed her PhD in cell and systems biology at the University of Toronto. For the TSC conference, she is interested in the empirical investigation of non-physical consciousness fields and their measurable effects on neural and metabolic systems using advanced neuroimaging and electrophysiological methods.