Aires technology is built around patterned semiconductor resonators. Its research program examines how their geometry interacts with electromagnetic fields and how specified devices relate to measured biological responses. This framework connects the relevant evidence in five steps.
1. Structure: the engineered surface
A self-affine pattern repeats geometric relationships across scales. Aires research describes circular-groove patterns on semiconductor wafers. Geometry, material, dimensions and operating conditions matter: results for one resonator design should retain that design’s identity.
2. Model: calculate the field response
The Springer semiconductor-wafer simulation examines the response predicted by its physical and numerical model. PACE’s C32S expert peer review and the C20S5G review assess related modeling reports. Their recommendations identify further input conditions to investigate.
3. Measurement: test the material and field
The VGTU Phase I, Phase II and Phase III reports examine laboratory readings for defined resonator arrangements. The 2026 heating-and-cooling paper adds observations of infrared emissivity on a patterned silicon wafer. Its surface observations add an experimental perspective on the material’s behavior during thermal cycling.
4. Mechanism: define the connection precisely
Reflection, diffraction, polarization and interference are relevant concepts in electromagnetic interactions. The Aires research models their application to its structures. The Aires-specific reports define the source fields, resonator designs and quantities investigated, connecting the physical concepts to particular devices and experimental conditions.
PACE’s review of Serov’s interaction framework connects these physical concepts to the proposed biological mechanism. It is an expert synthesis that can be read alongside the original model and measurement reports.
5. Biology: measure the endpoint
Human EEG and HRV, animal chromosome and behavior measurements, blood-sample tests and aqueous-conductivity experiments provide separate biological and laboratory evidence streams. Read the human studies and biological studies to see the actual endpoints. The biological reports connect this physical research to defined physiological and cellular measurements.
Coherence and bioelectric signaling
In wave physics, coherence describes relationships between waves. EEG connectivity describes relationships between recorded brain signals. Cellular bioelectricity includes membrane potentials and ion currents. Together, these fields provide a vocabulary for asking precise questions about physical interactions and biological responses. Our bioelectric-signaling guide connects the physiological context to the study records.
Explore the complete chain
- Research program
- Publications and expert peer reviews
- Study and technical-report archive
- Invention history and recognition
- Product evidence
Updated October 25, 2026 · Josh, Aires. Original research and assessments remain credited to their authors.