REAC technology: bioelectric approach to the health-disease process.

Abstract

The way in which the health-disease process is seen has been discussed for a long time, based on a model focused on getting sick and curing illnesses, the broader dimensions are left aside and immersed in the intricacies of paths, sometimes complex, of the pathogenesis of things.

Endogenous ionic fluxes are considered key regulators of cellular behavior, before a condition or disease was visible and / or detectable from a molecular or biochemical point of view, previous bioelectric changes1 occurred that impacted the polarity of the cells of the organ or tissue in question, that is, they impacted the cell's way of managing its internal flows and circuits, such as the morphological distribution of its organelles, of the skeletal cyto, of the protein organization, including there histones, proteins closely linked to cellular DNA, thus generating changes called epigenetics.2

Epigenetics is a term used to designate the study of stable changes in the expression potential of genes, during the development and proliferation of cells, so their mechanisms seem to allow an organism to respond to the environment through changes in gene expression. 2 Epigenetic processes identify the post-synthetic modification of the DNA itself or of macromolecules that are closely associated with it as key mediators. These changes appear to be interpreted by proteins that recognize a particular modification and facilitate subsequent biological effects.2,3.

The external environment, represented by the environment and its interaction with the nervous system, can change the endogenous cell bioelectric fields and therefore the cell polarity, once this change is maintained, epigenetic mechanisms are activated, whose studies are highly focused, among other processes, in DNA methylation and histone modification, these changes, although hereditary in the short term, do not imply changes in the DNA strand, therefore they are not genetic, the big question is the extent to which environmental influences can generate epigenetic changes 2,4. Take stress as an example.

Any stressful situation is life-threatening, unless it is faced with adequate adaptive responses, conversely, anything that puts life at risk causes stress and adaptive responses, argues Hans Selye in the classic manuscript entitled General adaptation syndrome of 19515. When you are in an alarm system, from the activation of the autonomic nervous system, that is, organically ready to fight or flee, more refined neuronal circuits are blocked, such as looking for a cell mutated by cancer or infected by a virus, the organism will not be busy reproducing, regulating hormones or being immunologically competent, since the situation it is in is an emergency, thus gathering all the energies for the circuits that will allow it to fight or flee, which in that situation is understood as normal, in However, when this alarm frame lasts, and it will happen through unconscious neurovegetative circuits, the constant activation fight or flight circuits, depending on what the nervous system commands as a new standard of normality, it will establish the deactivation of the other circuits, alter the bioelectric fields around the cells and the cellular polarity with consequent epigenetic changes, following the path of the stress to illness2-5.

Illness based on stress is well known, especially for immunosuppressive mechanisms. In the stage known as exhaustion in the stress response, hormones are not depleted and the response ends up becoming more harmful than the stressor, the body spends energy on stress and defense at the expense of growth, reproduction, and other vital functions, then debilitating diseases and conditions appear as dysfunctional adaptive responses 4. Modulation of stress and optimization of organic bioelectric responses may be the key to reducing illness.

REAC technology, an acronym for the English term Radioelectric asymmetric conveyer - Asymmetric radioelectric converter, was developed to help restore cell polarity by rebalancing endogenous bioelectric fields, modulating and optimizing adaptive responses, as reprogramming and optimization of fields allows modulate epigenetic processes and therefore gene expression, in contrast to inflammatory, senescent and neurodegenerative processes 6,7.

These are low-frequency radio pulses whose interaction with the organism optimizes the body's response. Divided into bio and neuromodulation protocols, REAC technology presents important evidence in the management of neurodegenerative diseases and psychophysical disorders, injury repair and regenerative medicine6-10

At the forefront of health technologies REAC consists of a therapeutic strategy to regain quality of life, through a conscious brain capable of restoring its correct functioning, guaranteeing the recovery or maintenance of health status 6, technology is a field promising open to application research in the most diverse areas.