The 2018 C20S5G research program modeled the resonator’s electromagnetic response at 6 and 28 GHz. The project was managed by Igor N. Serov; Konstantin A. Korshunov was responsible researcher, with I. Soltovskaya and T. Shamko, and consultants Alexander V. Kopyltsov and Artūras Jukna.
The resonator and research question
The reports concern the C20S5G configuration used in the Aires Crystal 2019 model. The calculations examine field strength, intensity and spatial interaction with the patterned surface. By specifying the device geometry and incident frequency, the work connects the resonator’s engineering design to a computationally defined electromagnetic response.
Read the C20S5G R&D reports and original-source links.
Expert peer review
Andrew A. Michrowski’s January 14, 2019 PACE assessment reviews both 2018 reports. It describes the simulation as credible and its mathematical treatment as consistent with classical superposition physics. The assessment discusses coherent signaling and the relationship proposed between the modeled response and biological findings. Read the original PACE peer review (PDF).
Separate configurations, connected development
The C32S work at 2.4 GHz is a separate 2018 investigation, reviewed separately by PACE. C32S 2.4 GHz peer review (PDF) · C16S, C28S and C32S research records.
These frequency- and geometry-specific studies sit alongside distributed-computing models, the later Springer semiconductor-wafer simulation and the 2026 infrared experiment. Together they trace how the physical design was modeled and then examined with additional experimental methods.
Related research and topic guides
- Kopyltsov, Korshunov, Lukyanov and Serov: Distributed EMF Computing (2016)
- Lukyanov, Kopyltsov and Serov: Semiconductor-Wafer Simulation
- Zenin Water Conductivity Study — physical effect in biological medium
- How the Technology Works — mechanism overview
- Researcher Profile: Igor N. Serov
- Physics & Engineering Cluster
- ← All Research
Source-linked research summary updated October 26, 2026. Original studies and reviews are credited above.