Alexander V. Kopyltsov, Konstantin A. Korshunov, Gennadi N. Lukyanov and Igor N. Serov developed a distributed-computing model of electromagnetic radiation interacting with a structured surface. The paper appeared in Regional Informatics and Information Security, collected papers, issue 2, 2016, pages 383–387.
How the model works
The authors model a semiconductor plate with a regular self-affine pattern of circular grooves. The calculation includes charge-carrier behavior, reflection and diffraction. High-performance parallel computing resolves the field distribution around the patterned structure. The author affiliations include LETI, ITMO and the Aires Foundation.
Reported result
The model produces a field that differs from the incident radiation, with fractal self-similarity and a strong response above the plate’s central region. The paper explains how the surface pattern contributes to that transformation. Read the original English proceedings paper (PDF).
Its place in the physics-to-biology program
The calculation gives the research program a defined mechanism to investigate: surface geometry changes the electromagnetic response. Later work explores specific resonator configurations and frequencies, while biological studies measure responses in living systems. The Springer semiconductor-wafer simulation and 2026 infrared experiment extend the physical investigation.
Alexander Kopyltsov · Gennadi Lukyanov · Igor Serov.
Related research and topic guides
- Serov and Colleagues: C20S5G Field Calculations at 6 and 28 GHz (2018)
- Lukyanov, Kopyltsov and Serov: Semiconductor-Wafer Simulation
- How the Technology Works — mechanism overview
- Researcher Profile: Igor N. Serov
- Physics & Engineering Cluster
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Source-linked research summary updated October 26, 2026. Original studies and reviews are credited above.