Werk:Aufdeckung missender Geheimnisse über Magnetismus/Die Laserstrahl-Entsprechung
The laser analogy
“If someone were to ask what is the most simple explanation of what a permanent magnet really is, the answer is that it is a coherent binary field object; or one might easily declare a permanent magnet a ‘field ‘laser’’. - Author
Whether by magnetic induction causing dielectric coherency from a magnet to an “unmagnetized” (as really meant inter-atomically incoherent random dielectric inertia) soft iron piece, or a charge dump from a capacitor bank to a ‘magnetizer coil’ (an incorrect designation) thru a ferrite magnet or neo magnet, the resultant is the same with respect of difference in increased capacitance, and that difference is F.I. or field incommensurability.
The conventional logic in speaking of “aligned domains” is meaningless nonsense, while descriptively accurate, is explicatively absurd and senseless nonsense. What is and does occur is the ordered inter-atomic coherency of dielectricity and the resultant macro- magnetic phenomena which is therefore called a “magnet”. However all magnetism is a posterior resultant to a prior which is dielectric coherency.
Without taking the analogy too far, we can state, for clarifications sake, that a “magnet” is a field ‘laser’, within which the incommensurate conjugated inter-atomic magneto-dielectricity is coherent throughout the object we call a ‘magnet’, resultantly achieved by charge dump from a capacitor bank thru a charging coil into the pre-‘magnet’ or by magnetic induction of a magnet to a soft iron object.
This dielectric coherency and alignment is necessitated as dielectricity and magnetism are mutually repellant Ether modalities, one with inertia, the other the resultant spatial vectorization of dielectricity in loss of inertia.
Ultimately building dielectric coherency in a diode, or HeNe laser, or at the inter-atomic magneto-dielectric of iron or Neo-iron-boron is fundamentally no different. In both cases the conjugate nature of dielectricity and magnetism (in the case of the laser, the transverse magnetic component of the radial dielectric nature of light) are brought into mutual coherency and point non-specific self-similarity. In both cases we have a mutual spin-deflection from applied charge or an applied field which causes field alignment of the dielectric component resultant to an applied charge or induction from applied magnetic field. In which case as regards both examples, dielectric inertia is brought into coherent concentration which then produces resultant macro-magnetic phenomena. In the case of the laser, we have resultant coherent radial dielectric light emission.
One must apply concentrated logical thought to the nature of an applied magnetic field to a soft iron object in which case the inter- atomic dielectric becomes coherent by presenting it centripetal circumference to the applied magnetic field. We know that magnetism and dielectricity exist always 180 degrees from each other even in a magnet where it is APPARENTLY (only so) 90 degrees. This ‘dielectric presentation’ to the applied magnetic field in presenting its centripetal circumference to the magnetism maintains Ether conservation of the dielectric inertia.
Dielectricity maintains its inertia one of two ways in coherency from an applied external (or internal) magnetic field from another, either by presenting its centripetal circumference or thru (in the case of the magnet) gyromagnetic precession wherein which magnetism is mediated in and thru the binding system we know as the “magnet”.
Below: Conventional HeNe tube laser within which the emission end contains a 95% mirror and the rearward oriented full reflectance 100% mirror, or ‘back mirror’. The HeNe is the gain medium which builds near instant coherency from applied charge. As is known, a 30-watt light bulb (incoherent) is worthless, whereas a 30-watt laser (coherent light) will burn a hole in you. This intense reflectance builds coherent parallel radial dielectric capacitance which is only blocked by the transverse electromagnetic components of light.
