The Aires research program develops one central idea across physics and biology: engineered resonators can tune electromagnetic interactions to support biological function. Its history connects patterned materials, mathematical models, laboratory measurements and studies of living systems. Each research level adds a different way to test the technology.
The original thesis: structure the electromagnetic interaction
Aires investigates self-affine surface geometry: patterns that repeat across scales on a semiconductor wafer. The physical research examines how those structures interact with an incident electromagnetic field. The biological research asks what changes can be measured when a resonator is introduced into an exposure condition. The scientific framework and technology patent record trace the underlying concepts and device architecture.
Early experiments: water, cells and human physiology
The early archive already crosses several measurement scales. Zenin’s 2002 water experiment records smaller conductivity-related current changes with the Aires neutralizer during radiotelephone exposure. The separate Slesarev–Serov infrared and pH paper examines different physical-chemical properties. These methods belong together in the development story, with each measurement identified precisely.
Tarlykov’s 2005 erythrocyte experiment examines osmotic responses in blood-cell samples. Datova’s 2013 physiological report records a lower regulatory-system stress index in 12 of 13 volunteers after 20 minutes with Aires Defender. Rybina and Alexandrov’s EEG investigation reports reduced local EEG changes associated with phone operation and increased alpha activity. Together, the original reports show how the program moved between physical measurements and biological responses.
Engineering and animal research develop together
VGTU laboratory work and the Pavlov Institute animal program expanded the research into device configurations, field measurements, behavior and cellular endpoints. Read the physics and engineering collection alongside the animal research collection to follow the original reports, publications and tested devices.
The 2018 C16S, C28S and C32S reports specify different geometries modeled at 2.4 GHz. The C20S5G reports examine 6 and 28 GHz. The later 64P1S5G report models a 64-axis structure with 4,161 rings at 28 GHz. These numerical investigations make the modeled geometry, input frequency and calculated field response inspectable. The PACE expert peer reviews connect external technical assessments to the underlying work.
Published models and direct infrared measurements
The Springer-published semiconductor model, first online in 2022 develops the physical investigation of the patterned surface. The 2026 Lukyanov–Makarov infrared experiment then studies an actual patterned wafer during repeated heating and cooling. A Testo 890 camera recorded a distinct infrared response between the patterned center and smooth periphery; the authors interpret this through increased emissivity and their charge-carrier model.
The final publication is Experimental Study of the Behavior of a Silicon Wafer with Self-affine Surface Relief During Periodic Heating and Cooling, ICICT 2026, Lecture Notes in Networks and Systems 2029, pages 54–63. Read the original manuscript and the published Springer chapter. This experiment adds measured surface behavior to the earlier calculations.
Current-device biology: the 2025 rat report and 2026 human publication
The 2025 Pavlov Institute/SFERA report tests six Lifetune Zone Max devices during four nights of Wi-Fi-router exposure in rat lines with contrasting nervous-system excitability. It reports selected behavioral changes moving toward control values and differences in blood measures between router-only and router-plus-device conditions. This is a later investigation, distinct from the linked 2020 bee and rat program. Read the original 2025 report. The Archer AX73’s 1.5 GHz processor specification should not be used as its radio-exposure frequency.
Sysoev and Budko’s 2026 peer-reviewed Lifetune ONE paper brings the human neurophysiology work into the journal record. It reports EEG recovery after initial activation and increasing coherence after seven days of use. The paper appears in Psychophysiology News, issue 1, pages 95–104, with its peer-review history on page 104. Read the original journal publication. The associated 2024 report and 2025 English manuscript remain linked as related records in that research line.
The connecting thread
Physics defines the resonator and its interaction with the environment. Laboratory experiments test measurable physical behavior. Cellular, animal and human studies test biological responses with specified devices and exposures. Read together, these records show the breadth of Aires’ research program and the progression from an engineering thesis to measured physical and biological outcomes.
Follow the research timeline, meet the researchers and expert reviewers, explore the awards record and match the evidence to the tested resonators. For the complete source-linked collection, visit the research archive.
Updated October 26, 2026 · Josh, Aires. Original research and expert peer reviews are credited to their authors and linked above.