3.f) Mechanics of physics movement

By discussing movement in general, we have seen the characteristics and properties of the speed of light and we have shown the source, meaning, and material support for kinetic energy in relation to the physics velocity of mass on globine or reticular structure of matter in general.

The breaking of supersymmetry through mass by the creation of the gravitational field due to the potential gravitational energy presents two types of effects on the mechanics of physics movement:

• Acceleration of the free fall of bodies corresponding to Newton's Law of Universal Gravitation that operates according to Newton's second Law or proportionality of force, mass and acceleration, keeping in mind the increase of mass with velocity.

  The main difference between physics movement with supersymmetry and accelerated movement of free fall is that kinetic energy is normally provided by the potential gravitational energy in the latter.

• The Merlin effect or second component of atractis causa, explained in the book Law of Global Gravity, enlightens the effect of the curvature of light in the gravitational lens and the anomalous precession of the orbits of the planets.

Next we will go into more depth with the physics meaning of kinetic energy as a direct cause of movement and how the mechanics of movement works, physics velocity and acceleration of mass with and without gravity.

3.f.1. Physics of movement without gravity  

In this section we are going to analyze the mechanics of movement of bodies with mass in a theoretical physics of supersymmetry of the reticular structure of globine. In the section, Movement with gravity, we will see that the mechanics of physics movement of mass with radial symmetry of gravity is the same as supersymmetry with the addition of intrinsic force of gravity, which has two components.

Let's take a look at the different situations of mass and kinetic energy in regards to the physics of movement, velocity and physics acceleration.

• Rest

  Physics mass is mass at rest and kinetic energy is null. Remember that when there is kinetic energy its material support is mass as a whole. We are also always talking about a model with Euclidean space, absolute time, and with measured velocities in relation to the natural reference system.

  Globine is in constant vibration and synchronized with the resonance of mass. Logically, the greater the longitudinal tension of globine the faster its vibration will be, as well as the resonant frequency of the mass.

  Furthermore, the greater the longitudinal tension of globine the greater the energy related to each elastocyte, or internal elastic element of the filaments of globine, will be. The equivalence E= mc² will be maintained because what is greater is the value for the speed of light *c* as has been discussed when talking about the characteristics and properties of the speed of light.

  It is worth pointing out that I have discussed the increase in longitudinal tension, not the increase in the tension of longitudinal curvature that supports the forces of gravity. In more intuitive physics, what it is produced is an increase in the intensity of the gravitational field which has the same results as those mentioned in the last paragraphs.

  Time does not appear to be affected by any acceleration or increase in its absolute rhythm except when we measure it based on the resonance of mass as Einstein's Relativistic Mechanics does, but it is not the case in the physics model Global Dynamics.

  Mass at rest or null movement
  (System of natural reference) 

  The privileged physics velocity is zero when mass is at rest in regards to globine, which is its natural system of reference, kinetic energy is null and, therefore, there is a balance in the three-dimensional play of forces in the interaction between globine and mass, given the supersymmetry of globine of our hypothesis.

  Although there is no physics movement of mass on globine, if the system of reference changes there is relative movement but physics mass would not have changed and kinetic energy would still be null. That is, relative motion does not express the underlying physics reality. It is like when you are moving in a car and the trees appear to move towards us and look bigger.

• Physics of linear and uniform motion

  After an instant acceleration or acceleration during a specific period of time, we can outline a physics state of linear uniform motion.

  Then there is a certain quantity of kinetic energy provided by the force that produced the mentioned acceleration. Physics mass has deformed or altered its spatial configuration once it absorbs energy; this absorption and spatial deformation of physics mass is the essence of kinetic energy.

  As a result, the concept of increase in Einstein's relativistic mass is only correct when the natural system of reference of physics movement is used.

  Furthermore, the increase in kinetic energy in fact creates a greater force of gravity according to Newton's Law of Universal Gravitation by mass having increased; but this increase does not produce greater acceleration of the total mass. The increase of the centripetal acceleration in the orbits of the planets is due to the Merlin effect that we will see in the section about Physics of movement in gravity in this online book, and that now we are ignoring for the premise of theoretical supersymmetry of globine.

  Continuing with the case of supersymmetry, the vibration of globine is synchronized with the vibration or resonance of mass given that mass is made up of filaments of globine.

  The interaction between the elastic energy of the filaments of the loops of mass and the surrounding globine produce forces due to its natural tendency to revert to the state of supersymmetry; yet the composition of mass no longer has the symmetry of the figure of mass at rest or, in other words, the play of forces does not give a resultant null as in the case of being at rest.

  As a consequence, the forces balance themselves out due to the mechanics of the movement of mass since it relaxes the tension of the filaments of the loops with greater tension in the direction of movement and increases the tension of filaments in the opposite direction. With this, we keep in mind the total effects are in the three dimensions of Euclidean space.

  While kinetic energy does not undergo any variation, the velocity continues with uniform motion.

  On the other hand, the physics movement makes it so that the mass reaches the next vibration of the filaments of globine a little earlier than if it were at rest and so on. In other words, the resonant frequency of mass is greater than in the state of rest.

  Therefore, the frequency of the resonance of mass, increased by the physics mechanics of movement, is still synchronized with the filaments of globine. That is, the physics movement on globine is the mechanism of balancing the resonance of mass and globine, or of its synchronization.

  Physics of uniform movement
  Dynamic equilibrium of the elastic forces  

  The frequency of resonance or vibration of mass has increased with velocity on globine, just as the longitudinal tension of globine did in the previous point about being at rest; but it appears that time is not changed in this case either, unless is it precisely defined based on this frequency as Einstein's Theory of Relativity does.

• Physics of linear motion with acceleration

  Physics acceleration within the natural system of reference of globine implies an increase in kinetic energy. The process is similar to the previous case of linear uniform motion in that is has a change or acceleration in relation to the state of rest.

  The increase of kinetic energy implies a greater increase and greater deformation of mass. Likewise, the greater velocity makes it so that the resonance of mass increases so as to synchronize with globine. As long as it maintains a certain velocity it will maintain its corresponding resonance. In Einstein's Theory of Relativity, what determines the relative unit of time is velocity and the acceleration produces changes in this unit. Likewise, the intensity of the field of gravity determines the relative unit and the change in intensity or in gravity the alteration in this unit.