R&D Report: 64P1S5G Resonator at 28 GHz — Simulation Shows 2.23×10¹²× Energy Density Amplification at Hologram Center
Official American Aires Inc. R&D Department computational report (2020). MEMS-based simulation of the 64P1S5G microprocessor — used in Lifetune Room and Lifetune Personal — interacting with 28 GHz 5G-band electromagnetic radiation.
2.23×10¹²×
Energy flux density amplification at center
1.5×10⁶×
Electric field strength amplification
34.48 THz
Derived response frequency
4,161
Ring resonators in 64P1S5G
Microprocessor Specifications
| Parameter | 64P1S5G Value |
|---|---|
| Product | Lifetune Room, Lifetune Personal (2020 model) |
| Radiation frequency modeled | 28 GHz (5G millimeter-wave band) |
| Fractalization axes | 64 |
| Number of ring resonators | 4,161 |
| Slit dimensions | 0.2 μm × 0.8 μm |
| Substrate | Type-n monocrystalline silicon, crystallographic plane 100 |
| Resonator dimensions | 19.6 mm × 19.6 mm × 0.5 mm |
| Scientific consultants | Prof. A.V. Kopyltsov (LETI), Prof. A. Jukna (VGTU) |
Key Computational Results
Core finding — holographic field transformation: The 64P1S5G resonator converts 28 GHz incident radiation into a coherent spatiotemporal self-affine form (hologram). The field redistribution follows the fractal profile of the resonator topology.
Electric field strength amplification: At the central region, electric field strength reaches Emax = 3.44×10³ V/m — approximately 1.5×10⁶ times greater than the ambient background field.
Energy flux density amplification: Energy flux density reaches Imax = 1.18×10⁷ W/m² at center vs Imin = 5.13×10⁻⁶ W/m² at edges — a ratio of approximately 2.23×10¹² times.
Derived response frequency: Since I ∼ ω⁴, derived response frequency = ⁴√(2.3×10¹²) × 28 GHz ≈ 34.48 THz — deep infrared/THz range.
Conclusion
The simulation confirms that the 64P1S5G resonator transforms 28 GHz radiation into a highly coherent, symmetric, self-affine superposition — a hologram — whose structure mirrors the fractal topology of the resonator itself.
Researchers: K. Korshunov, I. Soltovskaya, T. Shamko | Project manager: I. Serov | Year: 2020