In the above image, the numbers beside the etalons are the coefficients of spectral Dispersion (D). If a frequency is highly resonant, then the dispersion (scattering) of this input pulse is low. In other words, the energy pattern is dispersed to a greater degree if there is a lack of frequency resonance within the medium. The energy is not entirely absorbed at the specific frequency, and thus there is scattering due to energetic interactions in the bio-field. Therefore, when a resonant frequency is found, spectral emissions are fully absorbed, and there is no dispersion. Thus, in the image above, when D=0, the risk probability is very high, as there is perfect resonance (complete absorption of resonant energy) and no dispersion or scattering of radiant energy. This process thus provides a map from which to investigate more closely with the Internal V-test, which isolates the particular etalon's frequency for resonance testing. In this way, the output signal is isolated to measure only the resonance and dispersion of that specific frequency on that particular organ/site. This serves to verify the result from the initial broadcast of many frequencies during the initial scanning process.
META NLS: What do the numbers (D=0.42) mean beside the etalons?
In the above image, the numbers beside the etalons are the coefficients of spectral Dispersion (D). If a frequency is highly resonant, then the dispersion (scattering) of this input pulse is low. In other words, the energy pattern is dispersed to a greater degree if there is a lack of frequency resonance within the medium. The energy is not entirely absorbed at the specific frequency, and thus there is scattering due to energetic interactions in the bio-field. Therefore, when a resonant frequency is found, spectral emissions are fully absorbed, and there is no dispersion. Thus, in the image above, when D=0, the risk probability is very high, as there is perfect resonance (complete absorption of resonant energy) and no dispersion or scattering of radiant energy. This process thus provides a map from which to investigate more closely with the Internal V-test, which isolates the particular etalon's frequency for resonance testing. In this way, the output signal is isolated to measure only the resonance and dispersion of that specific frequency on that particular organ/site. This serves to verify the result from the initial broadcast of many frequencies during the initial scanning process.