Particle Movement

Particle Movement

The physicists have observed through study that the movement of particles is in a wave format. This conclusion is incomplete. Mankind with its continuing attempts for understanding physics sees only the final two dimensional resultant motion of particle movement.

To examine the simplistic nature of particle movement, after initialization of organized its motion will be broken down into basic components of direction and velocity. Setting up parameters, we will start with an initial flow of particles emitted from a stable point, labeled X, Y, and Z representing the various three dimensional coordinates in space, designated as point origin. So we can grasp a basic picture of particle movement. The flow of particles will be restricted to a single row pushed in one direction along an equilibrium line, the Z-axis extending indefinitely outward from the point of origin.

Upon exit from point origin, dependent upon the density and composition of the particles movement establishes a random back and forth lateral motion varying in an instantaneous snapshot of direction and speed in the path of least resistance. For the more advanced, the derivative of the particle path at a set point in time to determine direction while speed is somewhat of a constant. Where points of compression slow progression subtlety and pressure voids accelerate movement, but to mankind, which only has the technology to measure the total picture of movement or average, the result is a constant.

Setting up this process, we introduce a uniform low density homogenous field, similar to the interstellar medium primarily composed of dark matter, fragmentary subatomic particles or the basic building blocks of elemental matter for particle movement prior to the introduction of new particles. As the initial particles enter the field, confusion ensues, pressure waves build in front exiting particle impeding forward motion. It is when the emission level of the particle stream reaches its carrying capacity that its path buckles away the Z axis. The basis of the peak distance away from the Z axis is a balance of particle flow pressure responsible the deflection away from the Z axis and the equilibrium point where the compressed interstellar medium at the point of interaction builds to a point of containment. It is here particle flow reverses back towards the Z axis. The higher the energy retention level of the particle coupled with a low the mass, the higher the frequency as the particle may quickly reverse directions across the Z axis the low mass ensures an accelerated bounce back within a transport medium populated with higher density subatomic particles limiting low mass particle lateral movement away from the Z axis.

Mankind assumes particle movement is in the form of a wave pattern. But, if we mapped the total movement of the extreme positions away from the Z axis of the particle stream, and used the tangential lines at the maximum point away from the Z axis it to format a structural curved parallel line pattern linking the points, it would mimic the shape of a oscillating tube. Where the amplitude of movement about the Z axis is related to the mass and energy of the subatomic particle. When particles exit from a single point, the X, Y, and Z-axis are established at this point of origin, where they disperse in a random 360-degree rotation away from the Z-axis due to particle crowding. Whether the stream initializes movement to the right or left of the north-south axis line of the emission point within a neutral density transport field is random, but there are other factors that can influence the outcome.

The X and Y positions of the particles can vary to any positive, negative or combination there of, which is dictated by the mass and momentum of the particle, the volume-density factor (a new parameter in the principles of particle movement as this becomes a factor of the ambient field penetration) while motion is the average forward velocity or progression along the Z axis. All movement becomes ultimately is dependent upon the spatial field in which the particle moves through, its density and the natural vibrational rate of the atomic and molecular composition of all subatomic and elemental matter within the universe. For this field is the push back that establishes sinusoidal wave format or containment factor resulting in the various frequencies of waves and rays studied here on Earth.

Current theories have particles oscillating up and down in the Y axis plane, while moving forward along the X-axis as time progresses away from the point of origin. As the ability to measure movement about 3 dimensions is beyond current technology so a basic picture of particle movement is presented in today's textbooks. To examine the true motion of particles, we will have to look closely at a segmental slice of a particle and its related motion to a reference point in time.

Lets setup a uniform circular plane perpendicular to the Z-axis. The radius of the circular plane will be equal to the distance of both variables of the plane, X and Y. While letting the thickness of the plane to approach mankind's definition of zero along the Z axis. The result is an infinitely thin circular plane with random dispersion among the many particles scattered about varied x, y coordinates where the Z axis is origin. If we allow the particle positions in relation to the Z axis to equalize, we can let a chord within the circular plane represent the final average position. Now applying the factor T, which represents time into this picture, observe the circular plane on edge as it progresses forward from origin where T = 0 along the Z-axis. A plot of this motion would back current theories of the wave format as the chord oscillates from a single point on the edge of the circumference of the circular plane through the diameter, which then proceeds towards a single point on the opposite side of the circular plane. This cycle moving from one extreme to the other continuously repeats until acted upon by an outside force, thus altering its motion. The oscillation of the chord is dependent upon the resonant frequency of the particle, a balance between the density, mass and momentum of the subatomic particle, the field density in which the particle is moving through, which dictates its natural wavelength by containment and the directional progression of time. Resulting in the final waveform that is seen by mankind. This simplistic version of particle movement and was presented to introduce basic concepts.

Now lets build upon this foundation and examine a more complex version of movement and what other forces affect the movement of subatomic particle stream and how new approach reveals a concept of a tube format versus the accepted wave pattern. Ultimately this is the elementary basis for rotation of matter.

Particle movement is a process of many variables, first the medium the subatomic travels through in our case our universe and its ambient field composed of dark matter, basic subatomic particles that fills the void between cosmic objects. The natural density is determined by its inherent vibration of the basic sub atomic particle. The lower this level within the atomic structure, the denser the medium, interstellar space for our universe. Our universe at the lowest thus the densest medium which can impede particle movement. It is this medium is what limits the velocity of subatomic particles related to light. Does the density of this medium, dark matter vary in the universe and its various counter parts? Yes, you can reference this information at Parallel Universes and Density Shifting.

As a stream of particles organize about an expulsion point, ejection in the same initial direction occurs, in the wake of the leading particle there is a pressure void as the particle accelerates against the medium in which movement occurs. The lead particle achieves its maximum velocity as equilibrium occurs as the drag or push back of the medium balances against the particle momentum. Dependent upon the mass of the subatomic particle as the velocity of the lead particle stops accelerating and the lagging void quickly fills from pressure building up from the particles following. With no give in front the streams pops away from the axis or line of directional movement. Since the medium allows movement in all aspects of 3 dimensional space, the burst away becomes more difficult in relation to the particle load that has moved away the Z axis or imaginary straight line of particle movement. Particle flow seeks a path of less resistance so there is a shift away to the left or right of the original line, towards the low pressure void, which is random. Once directional shifting occurs away from the original axis, pressure continues to force away particle movement from the original axis connecting the zenith point of the initial bugle to the Z axis. There is a point reached where rotational shift occurs and is maintained about the Z axis, balanced as further pressures find it easier to reverse back towards the axis. In outer space it is the pressure of the ambient field that provides the push back, what mankind will soon come to realize is dark matter. The basic principle described here is that as the oncoming particles are push back again pressure builds and it is easier to deflect to the side, then push forward then deflects until momentum subsides and reversal back towards the Z axis. What we have is a sinusoidal wave about the Z axis as the point along the wave shifts away from the last point establishing rotation of the wave format about the Z axis. The particular characteristics of the wavelength is based upon the mass of the subatomic particle and its interaction with matter is the transfer of energy through absorption during the push back phase of contact. For some of the curious, this is why the higher wavelength particle emissions damage the more complex organic matter.

One of the exception to the principles of particle movement is extreme gravitational field compression. Where a particle stream encounters a dense gravitational field when emitted from a mass, its motion away from the Z axis is constricted. Although there is an increased incidence of the gravity particles and contact with the atomic structure of the particle moving within the stream applying a push back, the increased compression extends the original stream's wavelength. As field intensity increases the forward motion deflects at angle equivalent to the balance of oncoming gravitational force to containment of lateral movement due to field density buildup. Field density buildup is when expansion of an incoming field or particle stream expands against the ambient field due to an outside force. This builds until the push back from the compression of the ambient field equals the force driving the expansion of the field or particle stream. This is what allows a particle stream to bend or deflect as this the path of lease resistance. Under extreme conditions forward motion halts and the path of the particle stream is curved back towards its emission point.

Recent improvements in particle theory (News Story) has proposed the electron exists in a duel role of particle and wave, scientists somewhat on the right tract need to separate the actual qualities of a particle from its resultant motion the wave form.

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