The equilibrium vapor pressures of ammonia and oxygen ices at outer solar system temperatures

IF 1.8 4区 物理与天体物理 Q3 ASTRONOMY & ASTROPHYSICS Planetary and Space Science Pub Date : 2024-03-06 DOI:10.1016/j.pss.2024.105863
B.P. Blakley , Will M. Grundy , Jordan K. Steckloff , Sugata P. Tan , Jennifer Hanley , Anna E. Engle , Stephen C. Tegler , Gerrick E. Lindberg , Shae M. Raposa , Kendall J. Koga , Cecilia L. Thieberger
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Abstract

Few laboratory studies have investigated the vapor pressures of the volatiles that may be present as ices in the outer solar system; even fewer studies have investigated these species at the temperatures and pressures suitable to the surfaces of icy bodies in the Saturnian and Uranian systems (<100 K, <10−9 bar). This study adds to the work of Grundy et al. (2024) in extending the known equilibrium vapor pressures of outer solar system ices through laboratory investigations at very low temperatures. Our experiments with ammonia and oxygen ices provide new thermodynamic models for these species’ respective enthalpies of sublimation. We find that ammonia ice, and to a lesser degree oxygen ice, are stable at higher temperatures than extrapolations in previous literature have predicted. Our results show that these ices should be retained over longer periods of time than previous extrapolations would predict, and a greater amount of these solids is required to support observation in exospheres of airless bodies in the outer solar system.

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外太阳系温度下氨和氧冰的平衡蒸汽压
很少有实验室研究对外太阳系中可能以冰形式存在的挥发物的蒸气压进行调查;在适合土星和天王星系冰体表面的温度和压力(100 K,10-9 bar)下对这些物质进行调查的研究就更少了。这项研究是对 Grundy 等人(2024 年)工作的补充,通过在极低温度下进行实验室研究,扩展了已知的外太阳系冰的平衡蒸气压。我们对氨和氧冰的实验为这些物种各自的升华焓提供了新的热力学模型。我们发现,氨冰(其次是氧冰)在较高温度下的稳定性超过了以往文献的推断。我们的结果表明,这些冰的保留时间应该比以前的推断所预测的要长,而且需要更多的这些固体来支持在外太阳系无空气天体的外层进行观测。
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来源期刊
Planetary and Space Science
Planetary and Space Science 地学天文-天文与天体物理
CiteScore
5.40
自引率
4.20%
发文量
126
审稿时长
15 weeks
期刊介绍: Planetary and Space Science publishes original articles as well as short communications (letters). Ground-based and space-borne instrumentation and laboratory simulation of solar system processes are included. The following fields of planetary and solar system research are covered: • Celestial mechanics, including dynamical evolution of the solar system, gravitational captures and resonances, relativistic effects, tracking and dynamics • Cosmochemistry and origin, including all aspects of the formation and initial physical and chemical evolution of the solar system • Terrestrial planets and satellites, including the physics of the interiors, geology and morphology of the surfaces, tectonics, mineralogy and dating • Outer planets and satellites, including formation and evolution, remote sensing at all wavelengths and in situ measurements • Planetary atmospheres, including formation and evolution, circulation and meteorology, boundary layers, remote sensing and laboratory simulation • Planetary magnetospheres and ionospheres, including origin of magnetic fields, magnetospheric plasma and radiation belts, and their interaction with the sun, the solar wind and satellites • Small bodies, dust and rings, including asteroids, comets and zodiacal light and their interaction with the solar radiation and the solar wind • Exobiology, including origin of life, detection of planetary ecosystems and pre-biological phenomena in the solar system and laboratory simulations • Extrasolar systems, including the detection and/or the detectability of exoplanets and planetary systems, their formation and evolution, the physical and chemical properties of the exoplanets • History of planetary and space research
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