The sun utilizes a fusion process in its energy production cycle, relying upon its intense gravitational pull to forcibly compact hydrogen into helium atoms and generating both light and heat from the nuclear reaction. Essentially the sun is a giant fusion reactor, however do not confuse this for fission reactors as most nuclear power plants are here on Earth as fission reactors operate by splitting atoms while the sun works by compressing atoms together.
The reactions necessary to produce fusion within the sun typically occur within the core, or the super-compressed area at the center that constantly pulls in hydrogen atoms and compresses them into helium. The helium atoms then cycle outward from the core along with both light and heat, radiating in all directions to provide energy for all around it. This is akin to most other stars according to astrologers, however different systems most likely produce energy using different molecules and produce energy at a different rate.
The temperature at the core of the sun from this reaction is approximately 15 million degree Centigrade, or 19 million degrees Fahrenheit. From here the energy radiated outward decreases substantially as it disperses until the external surface of the sun is a mere 5,500 degree Centigrade or 9,900 degree Fahrenheit. Still this heat is quite substantial compared to anything else we can produce here on Earth, however compared to the core heat this is a much cooler region.
As the energy released from the core of the sun dissipates outward this also causes disturbances upon the surface that can be viewed from observatories, the most prominent of which is what is described as a “solar flare”. These flares are sudden eruptions emanating from the surface of the sun are caused by buildups of energy and radiation and, once they reach critical mass, erupt in what is roughly the equivalent of 10 million times greater than a typical volcanic reaction. Because of the energy built up by the sun’s energy production process these flares can even interfere with radio signals here on the planet and are extremely powerful compared to anything we typically deal with, though at the same time even the largest ones are still less than a tenth of the actual total energy radiated by the sun ever second.
The primary focus of most energy radiated by the sun is around the central “equator” region generated by the natural rotation of the gas giant that all planets follow as well. This causes energy dispersion to be focus on this area as well rather than in the polar regions, just as most solar energy produced by the sun connects primarily with our own equatorial region here on the planet. This area on the sun is also the primary release region for any solar activity such as solar flares as it offers the easiest radiation points for heat, light and radiation to emanate from.
All of these factors together allow for the sun to be utilized terrestrially by plant and animal life as well as industrial or commercial institutions in the form of light, heat or even wind and hydro power as the radiation and gravitational fluctuations emanated from the sun help drive our planet’s ecological cycles.
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