Eta
Carinae
One of the most unusual stellar formations, Eta Carinae, observed by the Hubble Telescope has baffled astrophysicists. A variable blue stellar object, many times more massive than our Sun continues to defy current explanations. Mankind’s current theory for the star Eta Carinae has two unique features, first with stellar mass being ejected from the polar regions of the star. A conclusion that scientists have reached, points to these locations as the path of least resistance. The other unique feature of this stellar formation pertains to the disk of stellar material radiating outward along its present equator. The puzzle is only partially solved by mankind, is correct in pinpointing the location of where the expulsion of stellar mass occurs, the Polar Regions, verified by observation of the stellar region by telescope. This complex sequence of events that is responsible for this stellar phenomena, does have an answer and will be presented in the following text.
Eta Carinae is somewhat a unique stellar body. In which three properties have to be addressed, it’s size, variable luminosity and energy output. Eta Carinae and all other cosmic mass in this galactic region of the universe was originally under compression within a massive black hole. Gravity emanating from the black hole assimilated all mass within its grasp within a million light years. Compression due to gravity accelerated the energy and heat production in the core of the black hole as the space in the structure of the atoms comprising the black hole is compromised. A critical point is reached. Energy production accelerates on a runaway exponential curve, overwhelming the gravitational containment force of the black hole. The result in this sector of the universe, a big bang, as matter disperses from origin, the site of the remnant black hole. Hydrogen gas nebula moving outward from origin has variable gaseous densities, due to a lack of full expansion after the local Big Bang. When this sector of the universe was initialized, Eta Carinae assimilated a lion’s share of heavy elements at inception before other cosmic masses started to gather their mass. This occurred because the seedling mass of Eta Carinae had sufficient gravitational force to reverse the expansion of nearby matter due pressure inequalities after the explosion. During the coalescing process of the core of this soon to be blue variable, hydrogen gas of various densities were trapped within the heavier elements that gathered. A stellar mass is usually somewhat homogenous in the density of the hydrogen molecules per defined area distributed throughout the core of heavy elements. In Eta Carinae’s case, it resulted in a permeated center with bubbles of hydrogen fuel pockets containing large density anomalies. The fuel pockets were richly scattered about the heavy elements during formation of the core. The core, rivaling the size of an average star slows in the growth process due to a scarce amount of heavy elements remaining after assimilation. The light elements within the local area gather around the core unimpeded from an intense gravitational field. After all light elements within range are depleted, the stellar mass, Eta Carinae has formed, creating a gravitational giant, which has no competitor. Compression in the core increases as the light elements gel around it, until molecular frictional movement and energy production from the fusion process cannot be dissipated by the stellar mass, the result, it lights. The heavy elements that have gathered in the core are the dampening or control factor to the fusion energy process. When the proportion of hydrogen fuel cells in relation to the heavy elements in the core are much higher than a normal stellar mass, an accelerated fusion production of solar energy occurs and the reverse occurs in an opposite environment. Atoms of the stellar mass energized by hyper core activities, release light particles at the surface of the star as they move from the excited stage back to their original base. The higher the energy differential between the excited stage and the base stage, the higher the frequency of the light particles emitted from the star. Light emissions from Eta Carinae are primarily emitted with the wavelengths of the color blue, at the high end of the spectrum. Even though all colors are generated within a star, a dominant wavelength of color overwhelms all others in the visible spectrum, which represents its perceived color. Although the star is presently locked in blue wavelength of the spectrum, its luminosity varies wildly according to the density of which hydrogen pocket is producing the fusion reaction in the core. Thus mankind observes a variable blue star. These variations in energy production affect the size of the stellar mass; gravity of the mass is relatively stable. It is the variation in a lower or higher fusion process that shrinks the size of the stellar object, while an increased fusion energy production expands it. As a by-product of this process, the stirring of stellar matter occurs within the core of the star. This action will become the catalyst of the stellar explosion that now surrounds Eta Carinae.
The cause and sequence of events that follows the unusual stellar explosion surrounding Eta Carinae can be trace to a core anomaly, but the explanation is still beyond the scope of Human astronomy. In a star, the stellar fusion rate is a careful balance between the hydrogen fuel pockets under compression and the controlling factor for the rate of reaction, the heavy elements. In the stellar case of Eta Carinae, its core was permeated with many non-homogeneous hydrogen pocket fuel anomalies due to formation shortly after the big bang. This is similar to baking a cake; if your batter has only had a few seconds to mix, lumps occur. The hydrogen fuel pockets size differentials causes fluctuations and spikes in the output of the star observed in the past and present by astronomers. On occasion a rich fuel pocket enters the zone of where compression initiates a new fusion reaction in the core of the star. This creates a burst of energy, which cannot be controlled and spreads rapidly throughout the stellar mass. Gravity, which maintains control and the form of the stellar mass, is breached at the Polar Regions. This point in the gravitation containment shell is the recipient to the maximum pressure only because centrifugal force comes into the equation due the star’s rotation and moment of inertia. The rotation of the star allows pressure to be relieved at the maximum rate at the equator and exponentially drops to zero near the poles as matter being thrown off creates a pressure vacuum in their wake, which is constantly being filled with new pressures created within the core. So when a sub nova explosion occurs in the core of Eta Carinae, a bi-polar breach was initiated. The stellar mass now had two rapidly expanding bubbles of hot gases at opposite ends of the axis moving away at high speeds. The present shape of the bi-polar gas bubbles can be explained by the gravitational force, which tends to flatten the leading edges and drag the sides of the bubble to resemble a flatten teardrop. The interior of the bubble does contain stellar matter as mass trying to find equality tends to spread in all directions.
The ring of gas that surrounds Eta Carinae is formed under the same principals as the rings around Saturn, except in this case the ring matter is composed of stellar mass. The repulsion force created within the center of this giant blue variable is sufficient at the stellar equator to repel captured stellar matter at a distance above the star. It is the concentrated stream of repulsion particles that coincide in the stellar equatorial that create the appearance of spokes as they gather mass preceding the stream and create a void in their wake and displace the affects of gravity particles on the mass contained within the rings.
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Mankind's Explanation on Eta Carinae