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昼夜云不对称阻止了金星上早期海洋的形成,但没有阻止地球上早期海洋的形成。

Day-night cloud asymmetry prevents early oceans on Venus but not on Earth.

机构信息

Observatoire astronomique de l'Université de Genève, Versoix, Switzerland.

Laboratoire d'astrophysique de Bordeaux, Université de Bordeaux, CNRS, B18N, Pessac, France.

出版信息

Nature. 2021 Oct;598(7880):276-280. doi: 10.1038/s41586-021-03873-w. Epub 2021 Oct 13.

DOI:10.1038/s41586-021-03873-w
PMID:34645997
Abstract

Earth has had oceans for nearly four billion years and Mars had lakes and rivers 3.5-3.8 billion years ago. However, it is still unknown whether water has ever condensed on the surface of Venus because the planet-now completely dry-has undergone global resurfacing events that obscure most of its history. The conditions required for water to have initially condensed on the surface of Solar System terrestrial planets are highly uncertain, as they have so far only been studied with one-dimensional numerical climate models that cannot account for the effects of atmospheric circulation and clouds, which are key climate stabilizers. Here we show using three-dimensional global climate model simulations of early Venus and Earth that water clouds-which preferentially form on the nightside, owing to the strong subsolar water vapour absorption-have a strong net warming effect that inhibits surface water condensation even at modest insolations (down to 325 watts per square metre, that is, 0.95 times the Earth solar constant). This shows that water never condensed and that, consequently, oceans never formed on the surface of Venus. Furthermore, this shows that the formation of Earth's oceans required much lower insolation than today, which was made possible by the faint young Sun. This also implies the existence of another stability state for present-day Earth: the 'steam Earth', with all the water from the oceans evaporated into the atmosphere.

摘要

地球拥有海洋已经近 40 亿年了,火星在 35 亿至 38 亿年前也曾有湖泊和河流。然而,金星表面是否曾经有过冷凝水仍然未知,因为这颗行星现在完全干燥,经历了全球性的表面重塑事件,掩盖了其大部分历史。太阳系类地行星表面最初形成水所需的条件高度不确定,因为迄今为止,这些条件仅通过一维数值气候模型进行了研究,而这些模型无法解释大气循环和云层的影响,而大气循环和云层是关键的气候稳定因素。在这里,我们通过对早期金星和地球的三维全球气候模型模拟表明,由于强烈的太阳下水蒸气吸收,优先在夜间形成的水云具有很强的净变暖效应,即使在适度的太阳辐射(低至 325 瓦/平方米,即地球太阳常数的 0.95 倍)下也会抑制表面水冷凝。这表明金星表面从未发生过冷凝,因此,海洋从未在金星表面形成。此外,这表明地球海洋的形成所需的太阳辐射比今天要低得多,这是由于年轻的微弱太阳造成的。这也意味着当今地球存在另一种稳定状态:“蒸汽地球”,所有海洋中的水都蒸发到大气中。

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