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Mass formation
This section is a continuation of the classic Big
Bang section.
The classic Big Bag that I
use, is the compressed stop point for the
kinetic energy c2
and I want to know how the relationship is between
kinetic and the resting mass.
I need a balance
between kinetic and resting mass to make sure energy
conversion is in line with energy conservation, which is
the universe's most important energy conversion system.
I have used this method: c2
<-> 1 / c2
....................................
Only in the classic Big Bang can the universe produce a
type of particle and I have named it a basic particle.
The base particle is the only active particle in
the universe.
The basic particle is the building block of
the universe. All masses also include the
atom's core and the radiation system consists of Basic
nuclei.
Base Particles:
Resting velocity, mbasis = Vbasis *
c2 = (4/3 * pi * (1/c2)3) * c2 = 5,185681022 * 10-34kg.
The volume is taken from the compressed volume.
.............................................
If the particle mass is not at rest and is affected by a
force, the vectors must be corrected.
There are two particles that are stable at rest;
The universe has created only two particles that are
stable in resting an electron and a proton, they have
some properties to trap but also some that are
different.
You know the electron well for example
electrical conductors and static electrical properties
and hydrogen in gas form and then it has atomic number
1. Those characteristics have nothing to do with
chance; everything has a precise cause.
You've probably noticed that mass attraction is
centering energy. It is the particle bond
structure where there are more vectors pointing towards
the center than those pointing away from the center.
.................................. An electron and a proton are made up of basic nuclei
that are bound together in a bonding network and where
most vectors point towards the center.
The particles cannot be created synthetically
because they are formed in connection with the
Big Bang as points of stabilization. If the
stabilization is broken, the particle collapses and
transforms into radiation.
Usually, mass
attraction is that two particles attract each other. The
electron stabilization parameter is c and is locked,
therefore the electron makes no contribution to the
influence of other mass.
I thought it was an
appropriate term to use about the electron that it is
ghost the particle of the Universe.
The
proton's stabilization parameter is c2
which is the same as the universe's compression of
the energy in volume c2 the two parameters
balance each other. We can see that the proton is
stabilized in such a way that it can be included in the
nucleus of the atom and in molecular structures.
........................
I should note that there is only one candidate "proton"
who can be the building block of the Universe at the
core of the atom.
Binding structures:
Many years ago I did a very thorough study of the atom's
core. Here it was found that the nucleus has no charge
properties and that the energy of the atomic nucleus is
stabilized by the structure of the nucleons (see Atomic
bond Fig. 1.8)
Binding structures are the
universe's way of adjusting the energy balance in the
individual parts and are found in all structures.
...............................................
A proton consists of approx. 3 million base
cores. When a proton is crushed in a
particle accelerator, the weakest joints will collapse
first, which means that all the fragments do not fall
apart at the same time, but will split into smaller and
smaller pieces. The images coming from the
accelerator are completely in accordance with the system
used here. The problem is how to handle it
mathematically.
Universe coordinator:
It is necessary to use coordinates to understand and to
handle physical and mathematical systems. All
Physical Systems in the Universe constantly refer to the
zero point of the Universe. It is therefore advisable
to use a coordinate system which specifies the speed
vectors reference to the 0 point. The volume of the
universe is therefore assigned an infinite number of
points, so the coordinate will look like the 0 point of
the universe (0, 0, 0,)
...............................................
You will typically encounter the problem of emission of
radiation in conjunction with Red and Blue displacement
of the wavelength and particle velocities and,
incidentally, the universe is a huge, large coherent
network of vectors that all refer to the 0 point of the
universe.
When a particle lies still
and unaffected by any forces, it will take the form of a
sphere.
FIG. p329 shows two velocity vectors
having different length, free fall c., and compressed 1
/ c2.
When a particle is applied to
kinetic energy, the compressed portion will be displaced
and the free fall vector correspondingly reduced, the
result being that the particle changes shape and is the
carrier of the kinetic energy.
..........................
I have shown here the basic part in speed. Underlying is
that a particle is made up of basic nuclei and here we
have the particle deceleration and the emission function
of the radiation.
Radiation is a variant
of particle physics Everything is about
particles in different process contexts. Radiation is
a high-speed particle and has its own particle and
reaction properties.
I just want to show what it
is that needs to be integrated into the system: There
are some features associated with moving particles.
Eksampel:
........................
The volume of the resting mass carries the kinetic
energy and photons are created by compression as shown
here. You can read more about this here in my section
on Particle Radiation.
Mass and radiation
have an action and reaction system as shown here.
...............................
The compensation system in the universe:
The universe can gather millions of parts to
absolute accuracy with the speed of light. We use a
unit-controlled system; we cannot assemble two parts to
absolute accuracy, even if we spend unlimited time on
it.
This means that some parts of the universe cannot be
assembly with the number system we use, even with
computer simulation. It is therefore necessary that
some parts of the universe's developmental system must
be developed on a system of compensation.
..............
The universe has a combined composite
development system. The universe uses only
some of them. This part cannot be changed (they are
locked). There are a number of development parts that
the universe does not use and can be used for technical
solutions and more.
The absolute accuracy
of the universe: At the speed of light, the
universe can gather millions of parts for absolute
accuracy. We use a unit-controlled number system, we
cannot assemble two parts for absolute accuracy even if
we spend unlimited time on it. This means that it is not
always possible to mathematically assemble the parts of
the universe without also using combination solutions,
but it does not change that, we need to know how the
individual parts are physically put together.
Summary of formulas
and mathematical systems used:
Mass:
mx = Vx * c2 = (4/3 * pi * r3) * c2
Basic particle:
mb = Vb * c2 = (4/3 * pi * (1/c2)3) * c2
Kinetic mass:
mx = Vx * v2 = (4/3 * pi * r3) * v2
Kinetic action and reaction mass:
mx = ½ * Vx * v2 =
½ * (4/3 * pi * r3) * v2
Particle mass attraction:
mx = (Vx * c2) / V
Molecule mass attraction:
mx = (Vx * v2) / V
Radiation:
mbasis2 = (Vbasis * c2) + (Vbasis
* dv2 ) mbasis2 = (Vbasis
* c2 ) + (Vfoton * c2) (ikke testet)
Wave lengths:
yx = y1 +
y2 + y3 + y4 (ikke testet)
Press here:

The universe's head formulas.
Albert Einstein's formula for resting energy E = m * c2.
He has been very good at finding the right formulas,
this one hits exactly in the mass and energy of the
universe. You can only convert energy in a way in the
universe, everything will refer to this system, if it
cannot be converted to this system then there is an
error.

Here I show some of the basic systems that are many
more. You may want to try making some conversions for
these formulas yourself.

Compatible properties between the main function of
the universe and known physical systems.

A: The system used here is a unified development system
in the universe, the parts used must fit into the
system. Newton's gravitational system does not. It
dates from his Principia of 1687. Time taken a good job
into consideration. He could not know anything about the
universe having a developmental system.
B:
Particle vectors are nothing new in the physical world,
here we are talking about an expansion within the inner
structure of the particles and what a straight line
velocity is in the universe and more.
C:
Temperature measurement systems are available in many
variants (mercury, spirits, feathers and electronic
thermometers) and are a quick way to measure the thermal
state of a molecule. The problem is that it is not a
parameter under which the universe function system
works.
D: There are not many things in the
radiation field that work. This is because one has not
known that a basic particle exists. The base particle is
the building block of all particles and is also the one
that absorbs and emits radiation.
E: The
molecular systems that have been used so far I will call
some sort of mess. A molecule is formed from the mass
attraction of the particles trying to pull the molecule
part together and the radiation pressure trying to push
them away from each other.
F: You know nothing
about what's inside a nuclear nucleus. What you know is
what comes out from the core. At this point, I can
say that it works very differently than most people had
expected.
G: A magnetic field consists of several
composite parts, which can also function individually
and independently.
Particle properties
between a proton and an electron The universe mass consists of
a two parameter system and there are only two particles
that are stable in the rest state (a proton and
electron).
It is important to know how the
universe stabilizes its energy in particles.

As you can see here; the electron and proton have many
properties in common.
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The
Universe.
Classic
big bang.
Mass
formation.
Atom
structure.
Atom
binding.
Molecular
binding.
Particle
radiation
Magnetic
fields.
Mass
attraction.
Conclusion.
Micro physics

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