Werk:Aufdeckung missender Geheimnisse über Magnetismus/Brechung und Streuung von Licht durch ein Medium
Refraction and dispersion of light thru a medium
The refraction of light thru a medium depends upon the wavelength and is proportional to the dielectric capacitance of the medium of propagation.
Dielectric susceptibility thru a dielectric medium is proportional to the high frequency low wavelengths, due to the permetivity of the bounding electromagnetism upon the dielectric Z-axis to refraction.
The reason energetic blue light is diffracted more is due to the motional breaking thru the dielectric medium by the bounding EM which deflects the blue wavelength higher-dielectric-energetic frequencies much more so than the less energetic red.
Literally the higher power shorter wavelengths have FAR greater dielectric capacitance. More dielectric pulses and energy over a given length than, for instance infrared, and the tighter the bounding structure, the more dielectricity. This is the fundamental electrical-geometry of counterspacial capacitance, or dielectricity. This and this alone is the missing secret of light, the coaxial radiant geometry of light for the very fist time ever discovered here, in this paper. The mystery of shorter wavelengths = more power = more energy is over. Simplicity in divinity. Lights coaxial Z-axis radial dielectric geometry is now laid bare in its glaring simplicity. Shorter wavelengths = more dielectric pulses = smaller spatial geometry which also = higher dielectric capacitance. Literally the power increases on two levels exponentially as wavelengths decrease! More pulses and more power. Smaller confining EM geometry, higher dielectric capacitance.
Below: On the left showing the spatial EM boundaries as proportional to the wavelengths and likewise therefore to the radial capacitance of the dielectric coaxial carrier. On the right, showing wavelength deflection, the refraction gradient thru the dielectric glass or plastic medium.
Below: Dielectric radial pulse capacitance occurs proportional to the wavelengths, shorter wavelengths carry more kinetic energy, longer wavelengths carry less.
Below: Shorter wavelength light contains higher dielectric capacitance, and likewise are more kinetic in their energy transfer. On right, shorter wavelength light is deflected more due to the rate at which the induction can occur in the medium of transmission, thru the dielectric capacitor (or ‘insulator’, i.e. glass etc.).
