Structural Field Modulation: The Physics and Biology Behind Aires
Aires develops patterned semiconductor resonators to influence the electromagnetic environment in which living systems function. Structural field modulation is Aires’ term for this engineering approach: using the geometry of a passive resonator to change its interaction with an electromagnetic field. The research connects mathematical models, physical measurements and biological experiments across decades.
From surface geometry to a measurable response
The resonator contains a self-affine pattern: related geometric structures repeated at different scales on a semiconductor surface. The pattern is central to the design. It gives researchers a physical structure to model, fabricate and measure. Read the resonator construction guide and the granted US patent US12239835B2.
Lukyanov, Kopyltsov and Serov’s published computational work models the electromagnetic response of a semiconductor wafer with coupled ring grooves. It develops the connection between patterned geometry and field response. Study summary and research connections · Original Springer publication.
The 2026 infrared experiment
Lukyanov and Makarov extended the physical investigation with infrared imaging during repeated heating and cooling of a silicon wafer. The patterned center showed a distinct thermal-imaging response compared with its polished periphery. The authors interpret this contrast through the surface’s infrared emissivity and their charge-carrier model.
The experiment used a Testo 890 camera in the 8–14 µm infrared range. The measured surface behavior adds an experimental line of evidence to the earlier computational work. Read the experiment · Published ICICT 2026 chapter · Original author manuscript (PDF).
Field measurements and biological endpoints
Field amplitude, spatial distribution and biological response answer different questions. The Vilnius research program measured electromagnetic behavior in defined laboratory arrangements, including transmission, reflection and Wi-Fi configurations. Those records document changes at the measurement positions. They should be read with the frequency, geometry and comparison used in each experiment. Explore the physics and engineering research.
Aires’ biological program asks what happens when the tested resonator is present during exposure. The studies measure specific endpoints, from brain activity and autonomic regulation to chromosomes, behavior and blood parameters:
- Human neurophysiology: Sysoev and Budko’s 2026 peer-reviewed publication reports EEG recovery after initial activation during phone exposure with Lifetune ONE and increased coherence after seven days of regular use. Study and protocol · Original journal publication.
- Chromosome research: the Pavlov Institute program examined chromosome-aberration frequencies in rat lines with contrasting nervous-system characteristics. 2018 research record · 2019 journal publication.
- Later-generation device research: the 2025 Pavlov Institute/SFERA report tested six Lifetune Zone Max devices around a cage during router exposure. Its authors conclude that the resonators positively affected restoration of a number of behavioral elements and blood parameters in rats. Study and experimental setup · Original 2025 report (PDF).
A connected research program
The central research thesis is that the electromagnetic environment can be engineered to support biological function. Physics supplies testable models of the resonator; biology measures the response of living systems; later physical experiments investigate the patterned surface in greater detail. Follow these connections through the physics–biology research pathway, the Lukyanov profile and the Serov profile.
The archive also connects studies to original reports and PACE expert peer reviews. The technical model, the measured result and the reviewer’s assessment remain identifiable, so readers can trace the research directly.
How does this differ from shielding?
Shielding reduces transmission through a barrier. Aires uses a patterned resonator alongside operating electronics. Its evidence includes both physical characterization and biological measurements with active exposure sources. Laboratory amplitude changes are part of that physical record; the result depends on the arrangement being tested. Read the modulation-versus-blocking comparison and the field-modulation research guide.
Explore the technology and original research
Technology overview · How Aires works: questions and answers · Fractal geometry, biology and the Aires research discussion · Complete research archive · Explore Aires products.
Updated October 26, 2026 · Josh, Aires.