Examination of Changes in Key Brain Metabolites in Faradarmangars Under the Influence of Faradarmani Consciousness Field Using Proton Magnetic Resonance Spectroscopy (¹H-MRS)
M. Taheri, Sara Torabi, Farid Semsarha
The Scientific Journal of Cosmointel May 3, 2026 DOI: 10.61450/joci.v5i20.233 (opens in new tab)
Study at a glance
AI-extracted from the abstract| Characteristics | Observational study Peer reviewed |
|---|---|
| Population | Trained Faradarmani practitioners known as Faradarmangars |
| Intervention | Faradarmani Consciousness Field |
| Measures | Pearson correlation analysis |
| Key findings | Under the Faradarmani Consciousness Field, most key brain metabolites in total form showed a decreasing trend in activated and deactivated regions. In subpopulations split by NAA change, total choline and total creatine followed opposite trajectories in the activation region, which the authors propose may be key to regional activation; reduced total creatine is interpreted as altered energetic conditions. |
Abstract
The Faradarmani Consciousness Field is non-physical in nature. Although it cannot be quantitatively measured, its effects can be observed and examined through well-designed experiments. In this study, changes in key brain metabolites were investigated in a population of trained individuals known as Faradarmangars. In a previous study using fMRI, it was shown that certain regions of the brain were activated or deactivated under the influence of this field, while some regions remained unchanged. These specific areas were the focus of the present research. To do this, changes in the concentrations of key metabolites, including the combined NAA+NAAG, total choline, total creatine, the sum of Glu and Gln amino acids, and myo-inositol, were compared across activated, deactivated, and unaffected brain regions under two conditions: rest (without field influence) and task (with field influence). The results of this study show that most key metabolites in their total form exhibited a decreasing trend in both activated and deactivated brain regions under the influence of the Faradarmani Consciousness Field. Additionally, the correlation of changes between rest and task was initially assessed using Pearson correlation analysis. Subsequently, the overall study population was divided into two subpopulations based on the trend of changes in NAA levels—those in which NAA increased and those in which it decreased as a result of the Faradarmani treatment. Pearson correlation analysis was then repeated for the aforementioned metabolites within each subpopulation. The results indicated divergent trends between total choline and total creatine in the activation region, suggesting that these metabolites follow opposite trajectories—a pattern that may be key to the activation observed in specific brain regions among Faradarmani practitioners. The reduction in total creatine points to altered energetic conditions under the influence of the Consciousness Field. A direct investigation of energy carriers using phosphorus MRS is currently planned by the authors.