Can electromagnetic fields change water? Experiments have measured changes in conductivity, evaporation and other physical properties under specified field conditions. For a research program concerned with biology, that is an important starting point: water is the medium in which ions move and much of cellular chemistry occurs.
Aires’ water research asks whether its technology can change the response of an aqueous environment under electromagnetic influence. The original reports document measurable conductivity-related results. They form one physical layer of a broader program that also tests living systems.
Water is an electromagnetic research subject in its own right
In a 2007 study at Maria Curie-Skłodowska University in Poland, Hołysz, Szcześ and Chibowski exposed water and electrolyte solutions to a 15 mT static magnetic field for five minutes. Conductivity and evaporation changed relative to untreated samples; the response depended on the ions present. The authors interpreted the pattern in terms of ion hydration.
More recently, a 2026 study by Stas and colleagues reported frequency-dependent changes in ultrapure water after exposure across 30–200 MHz, with conductivity among the measured endpoints. These are distinct experimental systems. Together they show why field conditions and the composition of the sample belong in a serious discussion of EMF and water.
Zenin 2002: smaller conductivity changes with Aires
Stanislav Zenin’s radiotelephone experiment compared water exposed with and without an Aires device using differential conductimetry. This method compares the electrical response of test and control samples.
The source table records five observations. Without Aires, the current differences were −10, −8, −6, −5 and −5 µA. With Aires, they were −2, −3, −2, −2 and 0 µA. The smaller departures—and the final return to zero—are the measured basis for the author’s conclusion that Aires compensated for the radiotelephone-associated change.
Read the 2002 study summary and original measurement table.
Zenin 2013: three Aires designs, distinct response patterns
The 2013 report used purified water, differential conductivity measurements and a plain silicon comparison. Three previous-generation Aires designs produced different time-dependent traces.
- The design shown in Chart 2: the current-difference trace stayed close to zero under the reported electromagnetic-source condition.
- The design shown in Chart 3: the trace moved through a time-dependent response into negative values.
- The design shown in Chart 4: a positive excursion was followed by a negative excursion.
Zenin interprets these findings as compensation and stabilization of the aqueous environment, with complete compensation reported for the Chart 2 condition. The 2013 summary and original charts keep each tested design identifiable without turning retired product names into shopping recommendations.
Andrew Michrowski’s 2018 PACE expert peer review assesses this 2013 report and its methodology. The original assessment records both its endorsement and its proposed next research steps.
Conductivity, infrared measurements and biology connect at different levels
The separate 2002 Slesarev–Serov paper examines infrared and pH measurements of water. Zenin’s reports measure conductivity. The 2026 Lukyanov–Makarov infrared experiment examines the silicon resonator itself: its patterned and smooth regions show different infrared emissivity during heating and cooling. The published ICICT chapter connects that material result to the earlier modeling work.
These measurements build a research sequence: characterize the physical response, test it in an aqueous system, and investigate physiological outcomes in separate biological experiments. Water conductivity is a physical endpoint; the HRV and cardiovascular studies and animal investigations supply their own biological endpoints.
Why this matters to Aires’ environmental approach
Aires’ core thesis is that the electromagnetic environment can be engineered to better support biological function. Its water studies contribute measured evidence at the aqueous-system level; the broader corpus tests the thesis through other materials, organisms and physiological instruments. That breadth is what makes the connections worth following.
Explore the water research collection, Zenin’s research profile and the evidence behind Aires technology.
Updated November 2, 2026 · Josh, Aires. Original studies and peer reviews remain attributed to their authors.