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Published on: May 3, 2024
Hypothesis: Bacteria benefiting from electromagnetic field in peripheral neuropathy
Tatiana Abashina1, Mikhail Vainshtein1
1Federal Research Center "Pushchino Scientific Center for Biological Research of the Russian Academy of Sciences", G.K. Skryabin Institute of Biochemistry and Physiology of Microorganisms Russian Academy of Sciences , Pushchino, Russian Federation.
Abstract:
Recent research has already been shown widespread locations of bacteria in various tissues and organs of a healthy host organism. These bacteria (hereinafter referred to as persistent microbiota, PM) cause neither noticeable destruction nor toxins production - no immune response can be noticed either. The role of the PM is unknown. The host nervous system is not an exception and can also be inhabited by the PM. We found that various bacteria were capable of benefiting from the electromagnetic field (EMF). The main advantage of these bacteria, apparently, lies in the increasing supply of ionic forms of compounds into the cells. Since microorganisms use the energy of electrical impulses, their possible colonization of the host's nerve circuit will weaken the nerve signals. The presented hypothesis aims to draw attention to the following points: i) microbial colonization of the host nervous system will lead to the weakening of nerve signals, ii) the sensitivity of bacteria to EMF permits to affect on their activity with electromagnetic treatment.
Insights
Persistent microbiota inhabit the nervous system, potentially weakening nerve signals by utilizing electrical impulses. Electromagnetic fields may influence these bacteria, offering a novel treatment avenue.
Area of Science:
- Microbiology
- Neuroscience
- Bioelectromagnetics
Background:
- Persistent microbiota (PM) are found in various healthy host tissues.
- The role of PM, including in the nervous system, remains largely unknown.
- The nervous system can be colonized by PM without apparent host damage or immune response.
Purpose of the Study:
- To investigate the interaction between persistent microbiota and the host nervous system.
- To explore the potential impact of electromagnetic fields (EMF) on nervous system-colonizing bacteria.
- To hypothesize a mechanism by which microbial colonization affects nerve signal transmission.
Main Methods:
- Observational analysis of bacterial presence in host tissues.
- Investigation of bacterial metabolic responses to electromagnetic fields.
- Theoretical modeling of microbial influence on nerve signal conductivity.
Main Results:
- Certain bacteria benefit from electromagnetic fields, potentially by enhancing ion transport.
- Microbial utilization of electrical impulses may lead to weakened nerve signals.
- A hypothesis is presented linking microbial colonization to impaired neural function.
Conclusions:
- Microbial colonization of the nervous system could attenuate nerve signal strength.
- Bacteria's sensitivity to EMF suggests a potential therapeutic target for modulating microbial activity within the nervous system.
- Further research is warranted to elucidate the precise mechanisms and implications of PM in neural circuits.
