# Schumann Resonances and the Human Body: Questions About Interactions, Problems and Prospects
## 4 Discussion  
A graphical summary of the working theoretical concept of knowledge about the interaction of the human body with SRs is presented in Figure 1.  
In the center of Figure 1, there is a schematic representation of the hierarchical structure of the levels of the human body. Each subsequent level demonstrates the structure of the previous level. For example, an atom consists of a nucleus and spinning electrons; the nucleus consists of neutrons and protons; the protons are formed by quarks, etc. On the left is a conventional dimensional scale that shows to what depth \"the human eye\" needs to \"plunge\" to see it. Physics does not yet know what is deeper than \(10^{-44}\) cm. Therefore,for now, this is the end of the scale. A visual representation of the hierarchical structure of the human body is necessary for discussion and reflection on how and at what levels SRs can interact with it. The presence of magnetically sensitive receptors in the organs of the human body is debatable. Therefore, the interaction of SRs with the human body at the micro level of its structure can be considered plausible. The dotted arrow shows the influence of SRs on the quantum/energy-level components of the human body, which are circled in a red oval. We propose considering photon mechanisms as the most significant candidates for energetic interaction with the frequency spectrum of SRs. A logical theoretical argument for this is that the same type of energy state is found in SRs and photons. In both cases, this is magnetic energy/matter in the state of solitons and is capable of transferring information and energy without loss. Nowadays, ideas about the role of biophotons in the human body have expanded. They play key roles in intracellular communication and in information transfer between organs and segments of the body through the mechanisms of biophoton signaling [5; 28; 56; 57]. Therefore, the working concept that the standing electromagnetic waves/solitons of SRs transmit information to standing electromagnetic waves/photons in the human body requires serious consideration and is promising. This is a new preliminary hypothesis. As part of the scientific discussion, we would like to note that there is scientific evidence that the transfer of energy in the human body is carried out using photons that are in a state of standing wave/solitons [5; 28; 56; 57]. Biophotons are solitons inside the human body. SRs are solitons at the planetary level. SRs synchronize the functioning of the nervous system, and biophotons are carriers of electromagnetic energy and participate in the transmission of nerve impulses and the phenomenology of vision, or the phenomenon of visual images in humans [5; 28; 56; 57]. Is this a coincidence? Or is it necessary to look for a pattern unknown to science? We believe that all interested scientists need to continue this research. Of course, currently, everything is very complicated in this matter. Scientists are waiting for the results of new research in quantum physics to understand this. Now, polaritonics, a narrow branch of the physics of light, may reach the forefront. This discipline studies the physics of liquid light. In 1958, American physicist and Nobel laureate [PERSON]  
Figure 1: Graphical summary of the working theoretical concept of knowledge about the interaction of the human body and the electromagnetic field of the Earth in the frequency spectrum of Schumann resonances. Note: SRs are Schumann resonances; dotted arrows indicate influences. [PERSON] published a paper on excitonic polaritons [151] or, in other words, the quanta of \"liquid light\". Polaritonics is the study of photons that propagate within a crystalline material. It is important to note that their properties change completely within crystalline substances. In particular, they gain the ability to interact with each other. A photon, as a particle of light, has no mass. Biophotons inside crystalline structures acquire mass, and they acquire other characteristics (for example, dipole moments, etc.)