Journal: Engineering Physics (Инженерная физика), 2004
Institutions: Aires Research Center; St. Petersburg State Electrotechnical University LETI; Institute of Silicate Chemistry RAS; Joint Interdisciplinary Research Laboratory "Fractal Nanotechnology"
Overview
Analysis of experimental and theoretical research on the interaction of weak fields with physical objects at nanometer scale — specifically where the magnitude of the perturbation is small or ultra-small. Investigates various types of resonant interactions at the nanoscale and their prospects for application in nanotechnology. Includes experimental results from fractal nanotechnology.
Scientific Question
When physical systems are perturbed by very weak or ultra-weak fields, what resonant mechanisms determine the response? At the nanoscale, phenomena that are negligible in bulk materials become significant — enabling new types of interactions that do not manifest at macroscale. This paper examines how fractal-matrix surface structures participate in such weak-field resonant interactions.
Key Concepts
- Weak field resonance: At nanometer scales, small perturbations can produce measurable resonant responses when structural geometry matches the field's spatial characteristics
- Fractal nanotechnology applications: The self-affine surface of the fractal-matrix resonator is uniquely suited for weak-field resonant interaction — its geometry spans multiple length scales simultaneously
- Multi-scale response: Fractal structures respond resonantly across a spectrum of field frequencies simultaneously — the physical basis for the "multifrequency" behavior later quantified in the HOLOEXPO 2017 and Kopyltsov 2018 papers
Research Lineage
The weak-field resonance framework established in this 2004 paper provides the theoretical foundation for understanding why the Aires resonator produces a multifrequency output (6 GHz → 6.85 & 5.38 GHz, Serov/Kopyltsov 2018) at field strengths well below thermal thresholds. It connects the fundamental physics of nanoscale resonance to the engineering reality of the device — the missing theoretical link between the materials science series (2002–2005) and the EMF testing series (2016–present).
Authors
I.N. Serov, I.A. Soltovskaya (Aires Research Center), V.I. Margolin, N.A. Potsar, V.A. Tupik, V.S. Fantikov (LETI), V.A. Zhabrev (Silicate Chemistry Institute RAS)