Conference: XIV International Conference HOLOEXPO 2017 — Holography: Science and Practice
Published by: Bauman Moscow State Technical University; Micro and Nanoholographic Systems LLC
Date: October 2017
Authors' affiliations: St. Petersburg ITMO University (Lukyanov); Aires Foundation (Serov); St. Petersburg State Electrotechnical University LETI (Kopyltsov, Barchenko)
Study Overview
This conference paper from HOLOEXPO 2017 presents results on the multifrequency resonant behavior of self-affine surface relief devices — specifically the Aires resonator on silicon substrate. Presented at the premier Russian holography and photonics conference, it constitutes early independent formal presentation of the resonator mechanism to a physics-specialist audience.
Technical Content
Resonator Structure (Aires)
The Aires resonator is manufactured on a silicon wafer (circular geometry) with a complex system of ring-shaped grooves of rectangular cross-section, width 0.5 μm and depth 0.3 μm, forming a regular self-affine structure. The surface follows laws of self-similarity and scale invariance based on affine transformations.
A fiberglass-substrate variant was also investigated for comparison — demonstrating the self-affine geometry principle is material-independent.
Modeling Results
The paper presents 2D modeling of electromagnetic wave interaction with the resonator surface for the transient (non-stationary) case. Key computed outputs:
- Charge distribution: The surface charge arrangement in adjacent grooves shows the characteristic pattern that produces the counter-field mechanism
- E-field distribution: Multiple projections of the electric field intensity (E) distribution across the resonator surface
- Intensity and phase: Amplitude and phase maps of the resonant response
- Multifrequency response: The device produces a resonant response at multiple frequencies simultaneously — the spectral content is determined by the surface relief geometry, not by the input signal spectrum
Key Finding
A self-affine surface relief on a polarizable material produces a device that responds to any incident electromagnetic wave with a multifrequency resonant output. The spectrum of the output is set by the geometry of the surface — not by the incident frequency. This is the fundamental mechanism underlying frequency conversion in Aires resonators.
Significance
HOLOEXPO 2017 represents one of the earliest formal presentations of the Aires resonator physics to a specialized physics conference audience (holography, diffraction optics, structured light). The Lukyanov/Kopyltsov collaboration here preceded the mathematical modeling series (Serov/Korshunov/Kopyltsov 2018) and the Springer ICICT 2022 computer simulation paper — establishing the research lineage in the physics/photonics literature.
Authors
G.N. Lukyanov (ITMO University), I.N. Serov (Aires Foundation), A.V. Kopyltsov (LETI), V.T. Barchenko (LETI)
Question 1 — Does the device physically do something?
Yes — presented here with 2D electromagnetic modeling, E-field distribution maps, and charge distribution analysis. The self-affine surface produces a multifrequency resonant response to any incident EMF; output spectrum is determined by surface geometry. Precursor to the quantified frequency conversion results (Serov/Kopyltsov 2018: 6 GHz in → 6.85 & 5.38 GHz out).
Question 2 — Does what it does achieve the claimed biological effect?
Physics paper — does not address biological endpoints. The physical mechanism demonstrated here is the basis that the biological series (IFRAN Stages I–V, Dyuzhikova 2024, SFERA 2025) then tests at the organismal level.