Stellar Nucleosynthesis, Auroras & The Creation Of Elements
Sarah ikerd1 *
1 Studio Shangri-La, Somerville, Massachusetts 02145
*sarah.ikerd@studio-shangri-la.com
posted 18 May 2024
ABSTRACT: This article proposes to bridge or connect the ongoing cosmic processes of stellar nucleosynthesis with the activities of our Sun, as well as the occurrence of in Earth’s magnetosphere, as well as other planets, aurorae of different colors representing bands of the electrochemical spectrum. The significance of this interconnection is to illuminate the vital interconnection of astrochemistry, space weather and the deposition of elements on Earth. Given this broader, more in depth understanding of dynamics, solar flares for example can be viewed as more helpful than harmful, and possibly further harnessed for large scale energy wants and needs, such as space based solar collection, and inspired chemical synthesis instead of over-mining.
SOLAR FLARES
Earth’s aurorae, or northern lights, are one of many spectacular wonders of the world to behold, although their occurrence is not limited to this planet — they have been observed Jupiter, Saturn, Neptune and even Mars, as well emissions documented from outside this solar system. The geomagnetic phenomenon occurs when solar flares or cosmic rays contact a planetary atmosphere, exciting or ionizing different bands of the electromagnetic spectrum, the interaction altering the trajectories of particles.¹ ²
Solar flares are a combination of plasma and electromagnetic energy emitted from across the spectrum. And the immense power of these emissions are responsible for nucleosynthesis, or the creation of elements through hydrogen fusion. The composition of electrically conductive flares from the sun’s coronal mass ejections consist of helium,
hydrogen and other heavy nuclei and ionized or charged particles.³ ⁴ This represents tons of mass, that through the dynamic systems of space weather and planetary atmospherics, will become different types of material on Earth. The proposed theory or interpretation here is that the colorful wavelengths of aurorae can indicate what isotopes are being deposited or delivered and what elements they could possible become. It’s a fascinating display of photo-, astro- and geochemistry rendered that much more benevolent when considering the role of the Moon as absorber and then re-transmitter of radiation from the Sun. The moon also produces gamma radiation through interaction with cosmic rays.⁵
Figure 1. Sample of Elemental Flame Tests⁶
Elements — Flame Color
Carbon: Orange
Copper: Green
Hydrogen: Blue
Iron: Gold
Lithium: Magenta
STELLAR NUCLEOSYNTHESIS
Stars are chemical furnaces, and so the Sun, as a red giant, is a propagator of the elements by nuclear fusion, shining brightly upon the Earth, and modulated by possible gamma ray induced fission by the moon. The content of the solar flares then is the raw material of life, or prima materia. These dynamic processes are ongoing across the universe, and elements are always in a stage of production, transport or transformation. They are not only residuals from the Big Bang, and not just from stars simply dying.⁷ ⁸ Another view of the much illustrated stellar life cycle, as we know it, is that it is open ended, transforming from entity to entity, such as the journey from interstellar gas and dust to a black hole, and beyond.
When a coronal mass ejection from and then a solar flares come into contact with Earth’s atmosphere, resultant geomagnetic activity normally becomes visible around the poles of the planet’s magnetic field, and from there particles are dispersed by weather patterns. Recently though, the solar maximum allowed for a spectacular global display of life and power delivery. While the prevailing narrative is of danger to satellites and other networks, the potential is there for space weather to generate all the energy we could possibly want, and perhaps even great lessons in chemical or molecular synthesis.
AURORAS
It’s interesting to note that recent auroras especially lit up the magenta and green spectral bands, those particle excitations perhaps corresponding to chemical colors such as Lithium and Copper, which have been important to widespread electronics production, including batteries and phones. What plasma arrives from the Sun interacts with Oxygen and Nitrogen, and other particles in Earth’s upper thermosphere for a beautiful display of light, yet also synthesizes the elements, the building blocks of life, filtering down through weather systems into the rich, vital minerals of the landscape.
Another possible example of planetary nucleosynthesis is Saturn’s hexagon, on its North Pole, a geomagnetic storm of a golden color. This corresponds to the flame color of iron, and indeed it may be that Saturn’s core is part Iron. Around 2016, thanks to observations from NASA’s Cassini spacecraft, the hexagon changed color from blue to gold, blue being a flame or excitation color associated with hydrogen, which is known to constitute a large portion of Saturn’s atmosphere in gaseous and possibly liquid metallic form.⁹
CREATION OF THE ELEMENTS
Stellar nucleosynthesis processes, which occur in the Sun, such as the alpha process, CNO cycle(carbon-nitrogen-oxygen), r-process (rapid neutron-capture process) and s-process (slow neutron-capture process) provide a roadmap or pathways to creation of the elements. The triple alpha process involves hydrogen, helium and lithium, then the continued chain of fused helium creates heavier and heavier elements. All of these are fascinating modes of stellar reproduction reminiscent of biological cycles such as the Krebs, and more evidence for highly probable sentience.¹⁰
Conclusion:
The deliberate ongoing production of life sustaining minerals by the sun, moon and Earth is made visible by the northern lights, and similar auroras occur on other planets and celestial bodies. The stars are the furnaces of life, their life cycles reflecting a massive and meaningful cosmic recycling system that fits with the concept of reincarnation, and cosmic memory.
By studying space weather, Earth’s biofield and atmospheric dynamics further, humanity may successfully and safely tap into a massive supply and flow of electromagnetic energy. And we may learn from nucleosynthesis in order to ensure an abundance of elements. Furthermore, as the human body evolves alongside the knowledge and philosophy of open systems, our biology may better develop the ability to derive nourishment from the atmosphere, through the skin and breath, and electrochemical interfaces including quantum biological pathways. Life on earth, and human health, is clearly affected and influenced by celestial bodies, especially the sun, moon, and surrounding space weather. Knowing this, and with a multidisciplinary breadth of study, can lead to a brighter path of sustainability and synergy.
Disclosures: The author declares no conflicts of interest.
Acknowledgments: S. Ikerd thanks ResearchGate for publishing this article.
References
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- Christine Pulliam, Space Telescope Science Institute, Baltimore, Maryland, “NASA’s Webb Finds Signs of Possible Aurorae on Isolated Brown Dwarf,” Webb Space Telescope (January 09, 2024), https://webbtelescope.org/contents/news-releases/2024/news-2024-103
- Sakurai, K., “Chemical Composition of Solar-Flare Particles and Related High-Energy Phenomena,” Kanagawa University, Yokohama, Japan, 16th International Cosmic Ray Conference, Vol. 14. Published by the Institute for Cosmic Ray Research, University of Tokyo (1979), https://ui.adsabs.harvard.edu/abs/1979ICRC…14..218S/abstract
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- “Flame Test,” Wikipedia, https://en.wikipedia.org/wiki/Flame_test
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- Naito, M., Kusano, H. & Kodaira, S. “Global dose distributions of neutrons and gamma-rays on the Moon.” Sci Rep 13, 13275 (2023). https://doi.org/10.1038/s41598-023-40405-0
- “Saturn’s atmosphere,” The European Space Agency, https://www.esa.int/Science_Exploration/Space_Science/Cassini-Huygens/Saturn_s_atmosphere#:~:text=Saturn%20is%20approximately%2075%25%20hydrogen,look%20at%20from%20a%20distance.
- “Stellar nucleosynthesis,”
https://en.m.wikipedia.org/wiki/Stellar_nucleosynthesis