If you are paying closer attention to hydration, you may also have encountered questions about “structured water,” electromagnetic fields and the environment around your body. There is real research behind the interaction between fields and water. Understanding the actual measurements makes that research more useful than a label on a bottle.
For Aires, water research is part of a larger question: can changing the electromagnetic environment produce conditions that better support biological function? The company’s research program examines that question at several levels, from physical materials and aqueous systems to cells, animals and human physiology.
What does “water structure” mean?
Liquid water is dynamic. Its molecules form a changing hydrogen-bond network, rather than one permanent hexagonal arrangement throughout the liquid. Fecko and colleagues’ infrared-spectroscopy research measured extremely rapid molecular rearrangements and connected them to changes in the local electric field.
Researchers may use “structure” to discuss molecular organization, interactions near surfaces or hydration around dissolved ions. Those are specific physical questions. A claim about better human hydration requires an additional step: measuring the relevant response in people.
Can electromagnetic fields change measurable water properties?
Yes—experiments have reported changes under defined conditions. In Hołysz, Szcześ and Chibowski’s 2007 study in Poland, water and electrolyte solutions were exposed to a 15 mT static magnetic field for five minutes. Conductivity and evaporation changed relative to untreated samples, with responses depending on the dissolved ions. The authors interpreted the results in terms of changes to ion hydration shells.
The result establishes an experimentally observed interaction. It also shows why the field type and composition of the water belong in the explanation: a static-field experiment is not automatically a model of a Wi-Fi signal, and ultrapure water is different from a mineral solution.
What the original Aires water study found
Professor S. V. Zenin’s 2013 report examined ultrapure water using differential conductimetric measurements. Three previous-generation Aires designs were compared with an inert silicon wafer used as a placebo. The report describes 20–40-minute sample exposure and measurements of differences in conduction current, which is proportional to conductivity in that measurement cell.
The three designs produced different reported responses:
| Original report figure | Reported result |
|---|---|
| Chart 2 | Conductivity remained practically unchanged during exposure to the electromagnetic source, unlike the control. |
| Chart 3 | An undulating conduction-current response of approximately 0.5–3 μA. |
| Chart 4 | An undulating response described as 0 to +1 μA and back to 0, with subsequent negative movement discussed by the author. |
Zenin interpreted these distinct patterns as stabilization, compensation or modulation of the aqueous environment. Conductivity provides a physical measurement of the intervention’s effects; human hydration is a separate biological endpoint to investigate.
The PACE peer review and the next research questions
In his August 15, 2018 PACE expert peer review, Dr. Andrew Michrowski supported the study’s conduct and its interpretation of compensating effects on the aqueous medium. He also called for systematic work specifying the electromagnetic sources and testing durability across exposure conditions. Read the review explanation alongside the study summary.
This combination is valuable: a measured physical response, an expert assessment and a defined path for further testing. It gives the research a clear place in the wider program.
Connecting water physics to biological outcomes
Aqueous experiments help investigate a mechanism. Biological experiments then test outcomes in living systems. For example, the Pavlov Institute’s signed 2019 bee report measured expression of the stress-responsive hsp70 gene: Wi-Fi router exposure reduced expression, while the router-plus-Aires condition restored it to the control level. That provides a separate biological endpoint; the bee experiment did not establish water conductivity as its causal mechanism.
The connection is a research strategy: investigate physical interactions, test biological responses and use the findings to refine the technology. Explore the bee study and Aires research overview to follow those threads.
What this means for your hydration and environment
Water quality, sufficient fluid intake and the electromagnetic environment are useful questions to investigate on their own terms. The studies above do not require you to buy “structured water” to become hydrated. They provide evidence that fields and aqueous systems can interact, and a reason to pursue that research carefully.
For everyday environmental choices, start with our home EMF guide. For the intervention itself, review the original findings and current Aires technology. Aires’ position is to develop and test environmental solutions while making the underlying science easier to inspect.
Updated November 2, 2026 · Josh, Aires. Original findings are attributed and linked to their researchers and publications.