Journal: Engineering Physics (Инженерная физика), 2005
Institutions: Aires Research Center; St. Petersburg State Electrotechnical University LETI; Institute of Silicate Chemistry RAS (I.V. Grebenshchikov); Joint Interdisciplinary Research Laboratory "Fractal Nanotechnology"
Overview
Analysis of experimental and theoretical research on long-range effects (действия на расстоянии) manifested in various natural phenomena, processes, and structures at macro-, micro-, and nanoscale levels. Key focus: long-range effects initiated by fractal-matrix patterns on the processes of nanoscale film formation and growth. Includes experimental results from the joint Fractal Nanotechnology Laboratory and discussion of possible mechanisms.
Long-Range Effects: Definition and Significance
"Long-range effects" (дальнодействие) in the context of this research refers to the experimentally observed organizing influence of the fractal-matrix surface on physical processes occurring at distances beyond direct contact — analogous to field effects. As nanoscale and microscale research advances, previously overlooked subtle effects become experimentally detectable and scientifically significant.
Key Finding
Fractal-matrix graphic patterns (the surface topology of the Aires resonator) initiate measurable organizing effects on nanoscale film formation and growth at a distance. The mechanism appears related to the structured electromagnetic field produced by the self-affine surface topology — the same mechanism responsible for the resonator's field-modification behavior in the EMF protection context.
Theoretical Framework
The paper develops the theoretical basis for why fractal-matrix surfaces produce long-range organizing effects: the fractal self-affine geometry produces charge distributions and field structures that extend spatially beyond the immediate surface, creating organizing influences on neighboring physical processes. This provides a unifying physical explanation for both the materials science observations (nanoscale film organization) and the electromagnetic field modification (resonator function).
Research Lineage
Published alongside the resonance phenomena paper (2004) and the nanoscale film characterization study (2005), this paper is part of the foundational materials science series that established the physical principles underlying the Aires resonator mechanism. The theoretical framework developed here — long-range field organization from fractal-matrix topology — directly underpins the VGTU external EMF testing results (2016–2018).
Authors
I.N. Serov (Aires Research Center), V.I. Margolin, V.A. Tupik, V.S. Fantikov (LETI), V.A. Zhabrev (Silicate Chemistry Institute RAS)