Aires Foundation: RF Resonator Excitation Experiments — Intrinsic Frequency Assembly Independent of Input; 1–40 GHz Characterization
Document type: Technical measurement report
Equipment: Complex plane analyzer (VNA); oscilloscope (0.1 μs/div, 20 ns/div, 2 ns/div; 0.1 V/div)
Frequency range tested: 100 kHz – 40 GHz
Experimental Setup
Two resonator configurations were tested:
- "Grounded" resonator: continuous metallic coating on the reverse; cable shield connected to the metal coating, central core connected to the fractal circumference pattern
- "Non-grounded" resonator: no continuous reverse coating
Both resonator types were characterized in two independent experiments: (1) frequency response under direct RF excitation at selected frequencies, and (2) reflection and transmission factor measurements across 1–40 GHz bandwidth using a vector network analyzer with two resonators placed opposite each other.
Experiment 1 — Frequency Response Under Excitation
Resonators were directly excited at five frequencies: 100 kHz, 1 MHz, 3 MHz, 9 MHz, and 16 MHz. Oscilloscope measurements were taken at three sweep settings (0.1 μs/div, 20 ns/div, 2 ns/div) at 0.1 V/div amplitude scale.
Experiment 2 — Reflection and Transmission Factors (1–40 GHz)
Two resonators were connected to a complex plane (vector network) analyzer with pre-characterized cables. Measurements were taken at three inter-resonator distances: 1 cm, 8 cm, and 40 cm.
Grounded Resonator Characteristics
- Resonance peaks present across almost the entire 1–32 GHz bandwidth — sharp and well-defined
- Transmission factor on average 15–20 dB higher than non-grounded configuration
- Reflection and transmission factors at different distances fully coincide (distance-independent in the tested range)
Grounded vs. Non-Grounded Comparison
- Below 15 GHz: reflection factors of grounded and non-grounded resonators coincide
- Above 15 GHz: divergence between the two configurations appears, with the grounded configuration maintaining more consistent resonance characteristics
Technical Significance
These measurements provide direct physical characterization of the AIRES resonator's electromagnetic behavior. The intrinsic frequency assembly result is particularly significant: it demonstrates that the resonator does not passively transmit or absorb incident EM energy at the input frequency, but instead responds with its own characteristic frequency structure — the mechanism by which it imposes coherent spatial-frequency organization on incident fields. The 15–20 dB higher transmission factor of the grounded configuration over the 1–32 GHz band (which spans all current Wi-Fi, 5G sub-6 GHz, and most 5G mmWave frequencies) indicates why the grounded design is preferred for modern high-frequency EMF environments.
Frequency Coverage Context
For reference, the 1–40 GHz characterization range covers:
- 1–6 GHz: Wi-Fi (2.4 GHz, 5 GHz, 6 GHz), 5G Sub-6 GHz, 4G LTE upper bands
- 6–30 GHz: 5G mmWave deployments (n257/n258/n260 bands)
- 24–40 GHz: Extended 5G mmWave and satellite communication bands