Sun Spots
Sun Spots are dark anomalies that appear on the surface of the Sun.
Scientists are still trying to piece together a viable theory, to encompass all
ideas. One such theory is presently attributed to the Sun’s magnetic field.
The internal core mechanics of the Sun are not fully understood and it is here
where events leading to the occurrence of sunspots take place. Current
explanations, related to the internal process of the sun are missing a key
control factor, the dampening effect of the heavy elements on the fusion
reaction rate. The 11-year cycle of sunspots is a balance of three main factors
that eventually lead to their occurrence. First, is the homogeneity of the
segmented heavy elements vs. hydrogen and the other light elements, which is
moving about the core. Second, is the stir caused by internal core rotational
momentum due to pressure inequalities in various core zones and attractions from
external gravitational sources. Third, is the energy absorption and dissipation
rate of heat sub atomic particles within the fringe heavy elements along the
outer edge of the fusion activity zone of its core, causing their movement. The
first and second factors, homogeneity of the light and heavy elements and core
rotational mixing are the balancing determinates of heat production and
molecular activity affecting the fringe heavy elements. Any shift in this
balance would slow or accelerate the present 11-year cycle of movement from ebb
to peak. The cycle begins as the heavy elements on the outer edge of the fusion
activity zone, absorb energy to the point where it initiates a migration of the
affected matter away from the central core. This allows a slight increase in the
fusion and molecular motion rate within the core as these control factors, the
heavy elements move out. An energy surge ensues and its effects cascade on the
heavy elements at an exponential rate. Its dense structure readily absorbs the
increased production of heat sub atomic particles. Many self-contained bubbles
of heavy elements affected by heat and molecular motion expand to the point
where its density rapidly decreases. Now lighter than the surrounding mass, it
rises away from the core amid the denser hydrogen and helium elements. It is the
lighter density of the heavy elements when heated to a higher temperature that
makes it float in an environment of many light elements at a lower temperature,
which has a relative denser structure. Once out of the active zone of the core,
the heavy elements slowly dissipate their heat and molecular motion into the
surrounding mass, then coalesce into a dense sphere of heavy elements and sink
back towards the core. Upon entering the fusion zone again, many sub-processes
begin to happen. This sinking process of the heavy elements affects the core in
three prominent ways. First, by shutting down the localized fusion process in
close proximity of the heavy element spheres. As these pockets of heavy elements
move towards the core they dampen the localized fusion reactions, creating dense
pockets of cool hydrogen-helium bubbles, sunspots. It is only the pressures of
the surrounding hot hydrogen-helium gases that push some of these bubbles
towards the surface. The backpressures accelerated by rotational momentum or
centrifugal force concentrates the occurrence of Sun Spots near the equator as
the majority slide off to the north or south within 35 degrees latitude. The
result observed by scientists as some bubbles reach the surface, is multiple
dark spots. Because of their density and lower temperatures, they are
accompanied by counter-clockwise rotational surface disturbances, similar to our
low-pressure hurricanes. The 11-year cycle of the occurrence of sun spots is the
average time period for the heavy elements to move from its initial point, on
the fringe of the core, to its maximum distance away and then return to original
location of the active fusion zone, a rhythm of controlled compression of
expansion within a defined period. What is still not understood is that for
every cool pocket there are an equal number of hot pockets. This is the second
phase, as active Hydrogen pockets are compressed below the returning heavy
element mass creating a new zone of high activity under the possible sun spots.
Areas of low or benign rates of fusion core activity mushroom suddenly and are
one of the driving forces propelling the potential sun spots towards the
surface. Mankind picks this up as active solar bursts on the surface of the sun
and increased particle emission within the solar wind. As core activity
increases, hydrogen ions are expelled rapidly off the surface of the Sun,
propelled by the high back pressures created from the new hydrogen ions created
in the core trying to achieve equilibrium by moving from the core under high
pressure to the low pressure surface environment of the Sun. Third, is the
erratic fluctuation of the Sun’s magnetic field. Still unknown, is that a
massive concentration iron elements (heavy elements) within the core of the sun,
is responsible for its magnetic field. Hydrogen and helium are poor candidates
to be considered as producers of a magnetic field in a solar object. The
internal magnetic flow of the sun is interrupted as new mobile zones of ionized
iron atoms, once on the fringe of the core begin they migrate back towards the
main iron heavy element core. This interaction between the rogue pockets of
heavy iron elements returning to close proximity of the primary heavy iron
element core tends to destabilize and deviate the primary flow of magnetic
particles, producing eddies and secondary flows outside the once stable movement
of magnetic particles as they travel from the south to the north magnetic pole
of the sun. These deviations in flow patterns are responsible for the observed
disturbances created in the Sun’s magnetic field. This is why magnetic storms
are recorded, but do not always coincide with Sun Spot appearance, they are a
byproduct and result of this phenomenon, not the cause.
Mankind's Explanation of Sun Spots