Electrostatic and Magnetic Principles
Etherys' formulations are developed with reference to published research on electrostatic and magnetic interactions. To understand this area of study, it helps to understand a few basic principles of physics.
Electrostatic forces are the interactions between particles with electrical charges. Imagine two magnets: opposite poles attract each other while similar poles repel each other. This principle also applies to electric charges. Objects with opposite charges (positive and negative) are drawn toward each other, whereas objects with the same charge push each other away.
Research in this field has examined how microorganisms, such as bacteria and viruses, carry charged components on their surfaces, and how these charges can influence the way microorganisms interact with their surrounding environment.
Magnetic forces arise from the movement of electric charges and create magnetic fields. These fields can influence the behavior of charged particles. For example, magnetic fields can align certain molecules and enhance the effects of other forces acting on those molecules. This alignment can affect how molecules interact and behave.
Published laboratory research has examined how a controlled electrostatic field can interact with negatively charged microorganisms. Much like how opposite magnets attract, an electrostatic field can draw in negatively charged bacteria and viruses.
Studies in this field have looked at how such interactions relate to changes in osmotic pressure — the force exerted by water as it moves through cell membranes — and to changes in the structure of microbial cell walls or membranes.
Researchers have also studied the combined use of magnetic fields alongside electrostatic fields, examining their effect on water molecules within microbial cells as part of ongoing scientific investigation into these physical mechanisms.
A related area of research looks at localised pH changes around microorganisms, examining how altering the concentration of hydrogen ions in the immediate environment of bacteria may influence the conditions in which they exist.
Creating Selective Environments: Promoting Beneficial Microbes
Etherys' formulations are developed with reference to research on selective environments that favor the growth of beneficial, non-pathogenic bacteria over less beneficial strains. This research examines how adjusting the physico-chemical parameters of the substrate where bacteria grow can influence microbial balance.
A substrate is the base or surface on which an organism lives, grows, and derives its nutrients. In microbiology, substrates are typically nutrient-rich environments that support the growth and metabolism of microorganisms. By adjusting the properties of the substrate, it is possible to influence which types of bacteria can thrive.
Etherys' formulations are developed with reference to research on several key physico-chemical parameters of the substrate, such as pH, redox potential, and energy transfer characteristics — parameters this research associates with conditions that may favor non-pathogenic bacteria (BACT TYPE 1) over pathogenic bacteria (BACT TYPE 2).
The pH level, which measures the acidity or alkalinity of the environment, can significantly affect bacterial growth. This research area examines how pH level may favor the growth of beneficial bacteria, which typically thrive in a neutral to slightly alkaline environment, relative to many pathogenic bacteria that prefer more acidic conditions.
Redox potential, which influences the oxidative and reductive conditions of the substrate, is another factor this research examines. Studies in this area have looked at how redox potential relates to environments that may support beneficial bacteria relative to pathogens. Many beneficial bacteria prefer a balanced redox state, while pathogens often thrive in more reductive conditions.
Energy transfer characteristics, including electron transfer time and energy dissipation, are also examined in this research. Studies suggest these factors relate to the energy efficiency of beneficial bacteria relative to other strains. The ability of cells to absorb and store energy (capacitance), release stored energy (inductive effect), and transfer and utilize energy efficiently (resistance and impedance) are among the parameters this research considers.
This image illustrates how this research approach orients the physical characteristics of a substrate to create conditions favorable for the development of non-pathogenic bacteria (BACT TYPE 1) relative to pathogenic bacteria (BACT TYPE 2). The diagram is a simplified 3D representation showing the influence of various physico-chemical parameters on bacterial growth and selectivity.
This research involves examining several mechanisms behind selective microbial environments, looking at how fine-tuning physico-chemical conditions may relate to microbial population composition.
This body of research also considers how the growth of beneficial bacteria relates to the composition of wider microbial communities, and how such communities interact with other bacterial strains while maintaining overall microbial balance.
Research on competitive exclusion has examined how beneficial bacteria, once established in a given environment, can compete with other bacteria for resources under differing conditions.
Understanding Immune Cell Biology
The immune system is the body's defense mechanism against infections and other harmful invaders. It is composed of various cells, tissues, and organs that work together to identify and respond to foreign threats. One of the key components of the immune system is leukocytes, or white blood cells, which include various cell types such as T lymphocytes, B lymphocytes, and macrophages.
T lymphocytes, or T cells, are a type of white blood cell that plays an important role in the immune response. They are involved in responding to infected host cells, activating other immune cells, and regulating the immune response. There are several types of T cells, including helper T cells, cytotoxic T cells, and regulatory T cells, each with specific functions in the immune response:
- Helper T Cells (CD4+): Assist other white blood cells in immunologic processes, including the maturation of B cells into plasma cells and memory B cells, and activation of cytotoxic T cells and macrophages.
- Cytotoxic T Cells (CD8+): Respond to infected cells as part of the immune system's normal function.
- Regulatory T Cells: Help maintain tolerance to self-antigens and support balanced immune regulation.
Ongoing research in this field explores how the body's natural immune response relates to the production and activity of T lymphocytes. This includes several areas of study:
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Leukocyte Production:
Research has examined the factors that influence the production of leukocytes, and how immune cell counts may relate to the body's capacity to respond to infections.
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Immune Cell Activation:
Studies have looked at the conditions that support immune cell activation, including the activation and proliferation of helper T cells, which play a role in coordinating the immune response.
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Cytotoxic Activity:
Research has also examined the activity of cytotoxic T cells, which respond to infected cells as part of the immune system's normal function.
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Immune Regulation:
Regulatory T cells play a role in preventing an overactive immune response. Research in this area looks at the factors that support the normal function of regulatory T cells, helping keep the immune response balanced.
Natural and Non-Toxic
Etherys' formulations are designed to be natural and non-toxic, using naturally sourced ingredients rather than synthetic molecules, emulsifiers, parabens or preservatives.
Etherys is committed to sourcing ingredients responsibly and manufacturing to high quality standards, minimising ecological impact while maintaining a focus on purity and safety.
Resources
Electrostatic and magnetic fields: this review explores how electromagnetic waves may affect the structure of certain viruses. "Effects of Electromagnetic Waves on Pathogenic Viruses" published in Virology Journal.: https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9555253/ .
The study discusses the application of electrostatic fields in microbial research, examining their effect on bacterial cell membranes. This research explores how controlled electrostatic fields may affect microorganisms without relying on chemical agents: https://journals.plos.org/plosone/article?id=10.1371/journal.pone.0257434 .
Immune Cell Research: A study exploring mechanisms behind immune cell activation and leukocyte proliferation, particularly T lymphocytes. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8138456/
Core Technology Patents
The BIOAELUS® technology is protected by a patent portfolio covering two primary areas of research:
Chemical and Botanical Antimicrobial Interactions
Patents such as US8529968 and FR2867947 describe the formulation of active botanical compounds, including eugenol and carvacrol. The patents describe these compounds as working synergistically to affect microbial cell membranes, altering permeability and ion gradients.
Electrical-Field-Based Microbial Research
Patents including WO2016193583A1, FR3106283B1, and FR3115679B1 detail the use of low-amplitude, high-frequency electrical fields and electrostatic properties. The patents describe this physical mechanism as creating conditions intended to affect microbial development by modifying the behavior of fluids and the surrounding electrochemical balance.