Thomas Lee Abshier, ND
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Collisions and Momentum Transfer
By: Thomas Lee Abshier, ND
Momentum transfers between particles in collisions because of the unequal forces
experienced by each particle. Such a statement is controversial only because we
have become accustomed to a world where everything is relative, and no reference
frame can be taken as absolute from which to make an objective judgment of the about
the actual processes occurring on the level of creation.
- In the Absolute Frame, at rest with respect to the Dipole Sea, there are alignment
and polarization forces surrounding both particles which are on a collision trajectory.
- If one particle is at rest with respect to the Absolute Frame, and the other has
a velocity, then there will be an additional component of Dipole Sea polarization
and alignment associated with its velocity.
- If the two particles collide with a direct blow, then the incoming particle will
transfer all of its momentum to the rest particle. This is because the forward force
of the polarized and aligned space will equal the reverse force by the rest particle.
A total equilibrium of forward and reverse force will act throughout the time of
acceleration of the rest particle, and the deceleration of the moving particle. At
the end of the process, the rest particle will have a trajectory and velocity identical
to the original incoming moving particle.
- In summary, the rest particle will accelerate because the force behind it from the
moving particle is greater than the force resisting is motion from the Dipole Sea.
Likewise, the moving particle will decelerate because the rest particle is applying
a greater reverse force on it than is being supplied by the Dipole Sea behind the
moving particle.
- The net effect is an acceleration of the rest particle because of the ∆Force that
accelerates it from rest to a kinetic energy exactly equivalent to the original incoming
mass. Likewise, the moving particle decelerates because of a ∆Force opposing its
direction of movement.
If the two colliding masses are unequal, then the smaller mass will be unable to
supply a force equivalent to the force supplied by the inertia (polarization and
alignment of the Dipole Sea) of the larger mass.
- Thus, a small mass impacting a large mass will bounce/recoil, transferring some momentum
to the larger mass, but the transfer will be incomplete.
- Likewise, when a large mass strikes a smaller mass, the small mass will recoil at
a greater velocity than the incoming large mass, but the large mass will retain a
portion of its momentum and proceed at the appropriate speed and direction dependent
upon the angle of incidence and relative mass.
Given the dogma and universal applicability of the concept of relativity, we must
confront the question about the transfer of momentum between two particles which
are both in motion with respect to the Dipole Sea.
- Both particles have an E&B field polarizing and aligning their space.
- And, since both particles are in motion with respect to the Dipole Sea, they both
have a kinetic energy component associated with their Absolute Velocity.
- But, the ultimate result will be the same since both particles have a difference
in kinetic energy polarization and alignment. So, when they interact, the net result
will be the overwhelming of the momentum of the slower particle.
- We can choose the “at rest” reference frame to be centered on the particle with the
more rapid velocity. Thus, in reference to this frame, all other particles will
have a velocity. So, when the slower particle collides with the particle at the
center of the reference frame, it will appear to have a high momentum in comparison.
- This analysis shows only that it is possible to choose any reference frame for analysis
and a consistent result will occur. It reveals nothing about whether an Absolute
Frame exists, nor does it reveal anything about the Absolute Velocity (Absolute Kinetic
Energy) of either colliding mass.