R&D Report: Aires C20S5G Resonator Performance at 6 GHz and 28 GHz 5G Frequencies (Aires Crystal 2019)

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R&D Report: Aires C20S5G Resonator Performance at 6 GHz and 28 GHz 5G Frequencies (Aires Crystal 2019)

R&D: Aires C20S5G Resonator at 6 GHz & 28 GHz 5G Frequencies

Aires Crystal (2019 Model) • Project Manager: I. Serov • Consultants: Prof. A. Kopyltsov, Prof. A. Jukna • 2018

R&D ReportC20S5G MicroprocessorAires Crystal6 GHz & 28 GHz5GMEMS

Overview

These two 2018 R&D reports calculate the electromagnetic field strength and intensity produced during interaction of 5G frequencies — 6 GHz and 28 GHz — with the Aires C20S5G resonator used in the Aires Crystal (2019 model). Both studies were managed by I. Serov with researchers K. Korshunov, I. Soltovskaya, T. Shamko, and consultants Prof. A. Kopyltsov and Prof. A. Jukna.

C20S5G Microprocessor Specifications

20
fractalization axes
5
fractalization levels
4,084,101
ring slit resonators

Substrate: 7.6 mm × 7.6 mm • Slit width: 0.2 μm • Slit depth: 0.6 μm • Amplification gain coefficient (Kl): 2–6×

Results by Frequency

6 GHz (Wi-Fi 5G)

Max field strength (Emax)35.45 V/m
Amplification vs. background~443×
Max intensity (Imax)1,314.52 W/m²
Intensity amplification~164,315×
Center singularity (Imax)²1,727,963 W/m²

28 GHz (mmWave 5G)

Max field strength (Emax)122.6 V/m
Amplification vs. background~490×
Max intensity (Imax)15,030.76 W/m²
Intensity amplification~250,513×
Center singularity (Imax)²225,923,746 W/m²

Coherent Spatio-Temporal Transformation Confirmed at Both Frequencies

At both 6 GHz and 28 GHz, simulations confirmed that the C20S5G converts incident electromagnetic radiation into a coherent spatio-temporal self-affine form (hologram). Over the central region, a marked increase in field strength and intensity occurs, with a counter-resonance forming along the diameters, causing potential multiplication. The result is a maximally neutral zone at center and a singularity point where energy transforms from one state to another per the first law of thermodynamics.

Four-Level Derivative Resonance Filter

The transformation occurs through a four-level cascade: (1) wave superposition from the material fractal circuit; (2) transformed external radiation from the 1st derivative; (3) interaction of waves, half-waves, and quarter-waves forming three-level resonant relationships; (4) harmonization of external radiation via a universal Fourier filter. The initial wave flow (6 GHz or 28 GHz) is differentiated into eigen harmonics, forming a matrix of spatiotemporally harmonized electromagnetic superpositions.

Stability via Noether's Theorem

The stability of the resulting wave superposition is grounded in the fundamental symmetry principle of the Aires resonator's fractal topology, as formalized by Noether's theorem: every continuous symmetry of a physical system corresponds to a conservation law. The constant inflow of potential from outside striving to fill the neutral zone ensures the emerging superposition is highly stable.