StratoFIRE:模拟平流层中的野火烟雾

S. Misios, Andreas Chrysanthou, K. Tsigaridis, V. Amiridis
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引用次数: 0

摘要

火-天气相互作用的最极端表现是形成火-多云(pyroCb)雷暴,由过热的上升气流引发,它可以在超过20公里的高度喷出烟雾。在这项研究中,我们调查了由最强烈的pyrob引发的平流层烟雾注入对气候的相关影响:2019/2020年澳大利亚新年野火。我们首先对StratoFIRE项目的愿景和目标进行概述。在全球化学-气候模式EMAC的帮助下,我们然后模拟了在不同喷射高度(从13到16 Km)的平流层中与0.9 Tg烟雾相关的平流层辐射和化学扰动。平流层光学深度扰动的模拟对假定的注入高度很敏感,最大高度为16 Km,与GLOSSAC和SAGE-ISS气溶胶消光观测结果最吻合。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
StratoFIRE: Modeling Wildfire Smoke in the Stratosphere
: The most extreme manifestation of a fire–weather interaction is the formation of pyrocu-mulonimbus (pyroCb) thunderstorms, triggered by super-heated updrafts, which can eject smoke at altitudes exceeding 20 Km. In this study, we investigated climate-related impacts from the most intensive pyroCb-triggered injection of smoke in the stratosphere: the Australian New Year wildfires in 2019/2020. We first provide a general overview of the vision and objectives of the StratoFIRE project. With the aid of the global chemistry-climate model EMAC, we then simulate radiative and chemical perturbations in the stratosphere in relation to 0.9 Tg smoke in the stratosphere assuming different injection heights, from 13 to 16 Km. The simulation of stratospheric optical depth perturbations were found to be sensitive to the assumed injection height, with a maximum height at 16 Km showing the best agreement with the GLOSSAC and SAGE-ISS aerosol extinction observations.
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