A review of coarse mineral dust in the Earth system

IF 3.1 3区 地球科学 Q2 GEOGRAPHY, PHYSICAL
Adeyemi Adebiyi , Jasper F. Kok , Benjamin J. Murray , Claire L. Ryder , Jan-Berend W. Stuut , Ralph A. Kahn , Peter Knippertz , Paola Formenti , Natalie M. Mahowald , Carlos Pérez García-Pando , Martina Klose , Albert Ansmann , Bjørn H. Samset , Akinori Ito , Yves Balkanski , Claudia Di Biagio , Manolis N. Romanias , Yue Huang , Jun Meng
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引用次数: 26

Abstract

Mineral dust particles suspended in the atmosphere span more than three orders of magnitude in diameter, from <0.1 µm to more than 100 µm. This wide size range makes dust a unique aerosol species with the ability to interact with many aspects of the Earth system, including radiation, clouds, hydrology, atmospheric chemistry, and biogeochemistry. This review focuses on coarse and super-coarse dust aerosols, which we respectively define as dust particles with a diameter of 2.5–10 µm and 10–62.5 µm. We review several lines of observational evidence indicating that coarse and super-coarse dust particles are transported farther than previously expected and that the abundance of these particles is substantially underestimated in current global models. We synthesize previous studies that used observations, theories, and model simulations to highlight the impacts of coarse and super-coarse dust aerosols on the Earth system, including their effects on dust-radiation interactions, dust-cloud interactions, atmospheric chemistry, and biogeochemistry. Specifically, coarse and super-coarse dust aerosols produce a net positive direct radiative effect (warming) at the top of the atmosphere and can modify temperature and water vapor profiles, influencing the distribution of clouds and precipitation. In addition, coarse and super-coarse dust aerosols contribute a substantial fraction of ice-nucleating particles, especially at temperatures above –23 °C. They also contribute a substantial fraction to the available reactive surfaces for atmospheric processing and the dust deposition flux that impacts land and ocean biogeochemistry by supplying important nutrients such as iron and phosphorus. Furthermore, we examine several limitations in the representation of coarse and super-coarse dust aerosols in current model simulations and remote-sensing retrievals. Because these limitations substantially contribute to the uncertainties in simulating the abundance and impacts of coarse and super-coarse dust aerosols, we offer some recommendations to facilitate future studies. Overall, we conclude that an accurate representation of coarse and super-coarse properties is critical in understanding the impacts of dust aerosols on the Earth system.

地球系统中粗矿物尘的研究进展
悬浮在大气中的矿物粉尘颗粒的直径跨度超过三个数量级,从0.1微米到100微米以上。这种广泛的尺寸范围使尘埃成为一种独特的气溶胶物种,能够与地球系统的许多方面相互作用,包括辐射、云、水文、大气化学和生物地球化学。本文重点介绍了粗粒和超粗粒粉尘气溶胶,我们分别将其定义为直径为2.5-10µm和10-62.5µm的粉尘颗粒。我们回顾了几条观测证据,表明粗粒和超粗粒尘埃颗粒比先前预期的传播距离更远,并且这些颗粒的丰度在当前的全球模型中被大大低估了。我们综合以往的研究,利用观测、理论和模式模拟来强调粗粒和超粗粒尘埃气溶胶对地球系统的影响,包括它们对尘埃-辐射相互作用、尘埃-云相互作用、大气化学和生物地球化学的影响。具体而言,粗粒和超粗粒粉尘气溶胶在大气顶部产生净正直接辐射效应(变暖),并能改变温度和水汽剖面,影响云和降水的分布。此外,粗粒和超粗粒粉尘气溶胶是冰核颗粒的重要组成部分,特别是在-23°C以上的温度下。它们还为大气处理和粉尘沉积通量提供了很大一部分可用活性表面,通过提供铁和磷等重要营养物质,影响陆地和海洋生物地球化学。此外,我们研究了当前模式模拟和遥感检索中粗粒和超粗粒尘埃气溶胶表示的几个局限性。由于这些限制极大地增加了模拟粗粒和超粗粒粉尘气溶胶丰度及其影响的不确定性,我们提出了一些建议,以促进未来的研究。总的来说,我们得出结论,准确表示粗粒和超粗粒性质对于理解尘埃气溶胶对地球系统的影响至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Aeolian Research
Aeolian Research GEOGRAPHY, PHYSICAL-
CiteScore
7.10
自引率
6.10%
发文量
43
审稿时长
>12 weeks
期刊介绍: The scope of Aeolian Research includes the following topics: • Fundamental Aeolian processes, including sand and dust entrainment, transport and deposition of sediment • Modeling and field studies of Aeolian processes • Instrumentation/measurement in the field and lab • Practical applications including environmental impacts and erosion control • Aeolian landforms, geomorphology and paleoenvironments • Dust-atmosphere/cloud interactions.
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