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the claim
The composition and distribution of minerals and raw materials throughout the solar system are largely mapped
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INSUFFICIENT LEANING
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Reference sources and reviews discuss our scientific understanding of chemical compositions, mineralogy, and gradients across certain solar system bodies, but they do not establish that the distribution of minerals and raw materials throughout the entire solar system is largely mapped.

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The Solar System is the gravitationally bound system of the Sun and the masses that orbit it, most prominently its eight planets, of which Earth is one. The Solar System is an isolated single-star planetary system (not part of a larger star system) within the Milky Way Galaxy. The system formed about 4.6 billion years ago when a dense region of a molecular cloud collapsed, creating the Sun and a p The principal component of the Solar System is the Sun, a G-type main-sequence star that contains 99.86% of the system's known mass and dominates it gravitationally. The Sun's four largest orbiting bodies, the giant planets, account for 99% of the remaining mass, with Jupiter and Saturn together comprising more than 90%. The remaining objects of the Solar System (including the four terrestrial planets, the dwarf planets, moons, asteroids, and comets) together comprise less than 0.002% of the Solar System's total mass. The Sun is composed of roughly 98% hydrogen and helium, as are Jupiter and Saturn. A composition gradient exists in the Solar System, created by heat and light pressure from the early Sun; those objects closer to the Sun, which are more affected by heat and light pressure, are composed of elements with high melting points. Objects farther from the Sun are composed largely of materials with lower melting points. The boundary in the Solar System beyond which those volatile substances could coalesce is known as the frost line, and it lies at roughly five times the Earth's distance from the Sun. The four terrestrial or inner planets have dense, rocky compositions, few or no moons, and no ring systems. They are composed largely of refractory minerals such as silicates—which form their crusts and mantles—and metals such as iron and nickel which form their cores. Three of the four inner planets (Venus, Earth, and Mars) have atmospheres substantial enough to generate weather; all have impact craters and tectonic surface features, such as rift valleys and volcanoes. The principal component of the Solar System is the Sun, a G-type main-sequence star that contains 99.86% of the system's known mass and dominates it gravitationally. The Sun's four largest orbiting bodies, the giant planets, account for 99% of the remaining mass, with Jupiter and Saturn together comprising more than 90%. The remaining objects of the Solar System (including the four terrestrial planets, the dwarf planets, moons, asteroids, and comets) together comprise less than 0.002% of the Solar System's total mass. The Sun is composed of roughly 98% hydrogen and helium, as are Jupiter and Saturn. A composition gradient exists in the Solar System, created by heat and light pressure from the early Sun; those objects closer to the Sun, which are more affected by heat and light pressure, are composed of elements with high melting points. Objects farther from the Sun are composed largely of materials with lower melting points. The boundary in the Solar System beyond which those volatile substances could coalesce is known as the frost line, and it lies at roughly five times the Earth's distance from the Sun. The four terrestrial or inner planets have dense, rocky compositions, few or no moons, and no ring systems. They are composed largely of refractory minerals such as silicates—which form their crusts and mantles—and metals such as iron and nickel which form their cores. Three of the four inner planets (Venus, Earth, and Mars) have atmospheres substantial enough to generate weather; all have impact craters and tectonic surface features, such as rift valleys and volcanoes. Asteroids, except for the largest, Ceres, are classified as small Solar System bodies and are composed mainly of carbonaceous, refractory rocky and metallic minerals, with some ice. They range from a few meters to hundreds of kilometers in size. Many asteroids are divided into asteroid groups and families based on their orbital characteristics. Some asteroids have natural satellites that orbit them, that is, asteroids that orbit larger asteroids. Mercury-crossing asteroids are those with perihelia within the orbit of Mercury. At least 362 are known to date, and include the closest objects to the Sun known in the Solar System. No vulcanoids, asteroids between the orbit of Mercury and the Sun, have been discovered. As of 2024, one asteroid has been discovered to orbit completely within Venus's orbit, 594913 ꞌAylóꞌchaxnim. Venus-crossing asteroids are those that cross the orbit of Venus. There are 2,809 as of 2015. Near-Earth asteroids have orbits that approach relatively close to Earth's orbit, and some of them are potentially hazardous objects because they are large enough to cause widespread damage if they collide with Earth. There are over 37,000 known as of 2024. A number of solar-orbiting meteoroids were large enough to be tracked in space before striking Earth. It is now widely accepted that collisions in the past have Comets are small Solar System bodies, typically only a few kilometers across, composed largely of volatile ices. They have highly eccentric orbits, generally a perihelion within the orbits of the inner planets and an aphelion far beyond Pluto. When a comet enters the inner Solar System, its proximity to the Sun causes its icy surface to sublimate and ionise, creating a coma: a long tail of gas and dust often visible to the naked eye. Short-period comets have orbits lasting less than two hundred years. Long-period comets have orbits lasting thousands of years. Short-period comets are thought to originate in the Kuiper belt, whereas long-period comets, such as Hale–Bopp, are thought to originate in the Oort cloud. Many comet groups, such as the Kreutz sungrazers, formed from the breakup of a single parent. Some comets with hyperbolic orbits may originate outside the Solar System, but determining their precise orbits is difficult. Old comets whose volatiles have mostly been driven out by solar warming are often categorized as asteroids.
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More for · 1
2025 · cited by 0
Planets form and obtain their compositions from the leftover material present in protoplanetary disks of dust and gas surrounding young stars. The chemical make-up of a disk influences every aspect of planetary composition, including their overall chemical properties, volatile content, atmospheric composition and potential for habitability. This Review discusses our knowledge of the chemical and isotopic composition of Solar System materials and how this information can be used to place constraints on the formation pathways of terrestrial planets. We conclude that planetesimal formation by the streaming instability followed by rapid accretion of drifting pebbles within the protoplanetary disk lifetime reproduces most of the chemical and isotopic observables in the Solar System. This finding has important implications for planetary habitability beyond the Solar System because in pebble accretion, volatiles important for life are accreted during the main growth phase of rocky planets as opposed to the late stage. Finally, we explore how bulk chemical inventories and masses of planetary bodies control the composition of their primordial atmospheres and their potential to develop habitable conditions. 40 90. McClure, M. K., Dominik, C. & Kama, M. Measuring the atomic composition of planetary building blocks. Astron. Astrophys. 642, L15 (2020). 91. Dauphas, N., Hopp, T. & Nesvorný, D. Bayesian inference on the isotopic building blocks of Mars and Earth. Icarus 408, 115805 (2024). 92. Dauphas, N., Poitrasson, F., Burkhardt, C., Kobayashi, H. & Kurosawa, K. Planetary and meteoritic Mg/Si and δ30Si variations inherited from solar nebula chemistry. Earth Planet. Sci. Lett. 427, 236–248 (2015). 93. Cridland, A. J. et al. Early planet formation in embedded protostellar disks - Setting the stage for the first generation of planetesimals. Astron. Astrophys. 662, A90 (2022). 94. Jacquet, E., Pignatale, F. C., Chaussidon, M. & Charnoz, S. Fingerprints of the Protosolar Cloud Collapse in the Solar System. II. Nucleosynthetic Anomalies in Meteorites. Astrophys. J. 884, 32 (2019). 95. Burkhardt, C., Dauphas, N., Hans, U., Bourdon, B. & Kleine, T. Elemental and isotopic variability in solar system materials by mixing and processing of primordial disk reservoirs. Geochim. Cosmochim. Acta 261, 145–170 (2019). 96. 47 163. Stökl, A., Dorfi, E. A., Johnstone, C. P. & Lammer, H. Dynamical accretion of primordial atmospheres around planets with masses between 0.1 and 5 m⊕ in the habitable zone. Astrophys. J. 825, 86 (2016). 164. Wang, Y ., Ormel, C. W., Huang, P. & Kuiper, R. Atmospheric recycling of volatiles by pebble-accreting planets. Mon. Not. R. Astron. Soc. 523, 6186–6207 (2023). 165. Lambrechts, M. & Lega, E. Reduced gas accretion on super-Earths and ice giants. Astron. Astrophys. 606, A146 (2017). 166. Nakano, H., Kouchi, A., Tachibana, S. & Tsuchiyama, A. Evaporation of Interstellar Organic Materials in the Solar Nebula. Astrophys. J. 592, 1252 (2003). 167. Gail, H.-P. & Trieloff, M. Spatial distribution of carbon dust in the early solar nebula and the carbon content of planetesimals. Astron. Astrophys. 606, A16 (2017). 168. Gail, H.-P. Chemical reactions in protoplanetary accretion disks. IV . Multicomponent dust mixture. Astron. Astrophys. 332, 1099–1122. 169. Steinmeyer, M.-L., Woitke, P. & Johansen, A. Sublimation of refractory minerals in the gas envelopes of accreting rocky planets. Astron. Astrophys. 677, A181 (2023). 170. Steinmeyer, M.-L. & Johansen, A. Vapor equilibrium models of accreting rocky planets demonstrate direct core growth by pebble accretion. Astron. Astrophys. 683, A217 (2024). 171. Sossi, P. A., Stotz, I. L., Jacobson, S. A., Morbidelli, A. & O’Neill, H. St. C. Stochastic accretion of the Earth. Nat. Astron. 6, 951–960 (2022). 172. Paquet, M., Sossi, P. A. & Moynier, F. Origin and abundances of volatiles on Mars from the zinc isotopic composition of Martian meteorites. Earth Planet. Sci. Lett. 611, 118126 (2023). 173. Kleine, T., Steller, T., Burkhardt, C. & Nimmo, F. An inner solar system origin of volatile elements in Mars. Icarus 397, 115519 (2023). 58 the dissipation of the protoplanetary disk, to form systems of hot super-Earths and mini-Neptunes145. Glossary Primitive asteroid: Asteroids that have remained largely unchanged since the early Solar System, composed of ancient materials that date back to the formation of the Solar System over 4.5 billion years ago. They are rich in carbon, water-bearing minerals, and organic compounds. Fully or partially differentiated asteroid: Asteroids that have undergone internal differentiation, meaning its interior has separated into layers of different compositions due to heating and melting. This process typically occurs in larger asteroids once containing enough short-lived radioactive material (like 26Al) or experienced enough impact heating to cause partial or complete melting. Planetary embryo: Large, solid celestial bodies that form during the early stages of planet formation. These embryos are larger than planetesimals but not yet fully developed planets, ranging in size from hundreds to thousands of kilometres in diameter. Non-carbonaceous meteorites (NC): A type of meteorite originates from asteroids formed in the inner Solar System and lacks significant amounts of carbon-rich material. Carbonaceous meteorites (CC): A type of meteorite that is rich in carbon, volatile elements, and organic compounds. Carbonaceous meteorites are fragments of primitive asteroids accreted in the outer Solar system. s–process nucleosynthesis: Slow neutron-capture processes are nucleosynthetic pathways primarily occurring in asymptotic giant branch stars where atomic nuclei gradually capture neutrons over long timescales, allowing unstable isotopes to undergo beta decay before capturing additional neutrons. It is responsible for producing many of the heavy elements found in the Universe, such as strontium (Sr), barium (Ba), and lead (Pb).
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  1. Solar Systemreferenceno side taken
  2. The cosmochemistry of planetary systems.peer-reviewedno side taken
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