The Heavens Declare His Handiwork

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Thomas Lee Abshier, ND
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Photon Emission & Laser Light Generation

By: Thomas Lee Abshier, ND

• In a laser, orbital electrons are activated to a higher energy by a number of methods such as: passing a current or other energy source through the lasing medium to create a population inversion of activated electrons.  If the energy of activation added to the electrons is made uniform by regulating the current and choice of lasing material, then the lasing medium will generate mono-energetic photons from each Shell Drop.  The initial photons will form as a result of the random shell drops, and emit photons in random directions and phase relationships.  These initial photons will not be in-phase in the way that characterizes the laser.  But, having been emitted, these photons will bounce around without order, but inevitably eventually reflect off the laser’s mirrored ends.  

• This begins the process of the photon entrainment.  When a photon bounces back and forth between the mirrored ends of the laser, it randomly will passes an activated orbital at the proper angle to the orbital electron to trigger it dropping to a lower energy orbital, and emitting a photon that is at the same phase as the incoming, emission-triggering photon.

• The method of photon release is: 1) Proper orientation of the photon’s kinetic energy field in relationship to the orbital electron velocity.  

o The passing photons will strike the activated electron orbital.  The photon’s kinetic energy field will supply force to the orbital electron, and accelerate it out of its allowed quantum mechanical velocity and position.  

o The orbital electron will instantly lose the exact amount of energy that corresponds to the drop into an allowed lower energy state.

o The incoming photon’s E field is not dissipated by this interaction since the orbital electron immediately relinquishes its energy into space.  

• The incoming photon supplies an accelerating force to the orbital electron.  This increases the kinetic energy field of the orbital electron, which places it in the position of being unable to sustain the kinetic energy of its orbital activation.

o In ordinary orbital motion, the kinetic energy field of the orbital electron continually tries to separate from the electron.  The kinetic energy field is inherently linear and it is only the quantum mechanical properties of space that cause the continual reorientation of the kinetic energy field of the orbital electron to prevent it from radiating continuously and combining with the oppositely charged nucleus.  

o The quantum mechanical nature of the space surrounding the nucleus provides a kinetic energy field reorientation that only occurs at each of the allowed quantum mechanical energy levels.  

o Thus, when the incoming photon accelerates the activated orbital electron out of its narrow band of allowed energy, the kinetic energy field associated with its activation can no longer be held.  The electron loses the quantum of energy associated with its activation, and drops to a lower energy level.  

o Thus, the lost increment of kinetic energy field associated with the activation of the electron continues on as a newly formed photon.

o The direction of this new photon is in the direction of the incoming photon, and its phase is coincident with that photon.  Such is the method of creating laser light, monochromatic (one color), and coherent (all waves in phase).

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