Investigating the Effect of Taheri Consciousness Field A on the Behavior of Biomimetic Micellar Supramolecular Models

Supramolecular biomimetic models are assemblies of chemical components capable of mimicking the functions of biological molecules. Biomimetic models have numerous applications in industry and various research fields. In basic biology, biomimetic models can help investigate vital behaviors and the origins of life. T-Consciousness Fields (TCFs) have been introduced as non-frequency-based phenomena, with their effects initiated through the mind of the announcer. It is possible to study the effects of these fields through carefully designed experiments. The effects of TCFs on various subjects, including living systems and materials such as metallic elements, have been investigated prior to this study. In the present study, the effect of one type of TCFs, called T-Consciousness Field A (TCF1), on the structure and function of micellar supramolecular biomimetic models designed to mimic enzymatic behaviors was investigated. To mimic the behavior of heme- containing proteins, such as horseradish peroxidase, this model was designed to contain assemblies of sodium dodecyl sulfate micelles with heme-histidine at their core. The results showed that TCF1 did not alter the intrinsic chemical structure of the biomimetic models. However, the dominant population in the treated model, unlike the control group without field exposure, exhibited a smaller average particle size. Furthermore, the catalytic activity of the biomimetic model showed an 8% increase in efficiency, better mimicking the function of the natural enzyme compared to the control. Additionally, the zeta potential, electrical conductivity, and mobility of the treated model were altered by 40–45% relative to the control. These findings suggest that the TCF1 enhances the stability of the micellar supramolecular biomimetic model and increases its similarity to the structure and function of colloidal solutions of biological molecules in living organisms.