Interactions of Seasonal Earth Processes and Climate System

IF 0.7 Q4 METEOROLOGY & ATMOSPHERIC SCIENCES
K. Ziha
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引用次数: 0

Abstract

The cumulative effects of seasonal Earth processes in different places and times in the atmosphere, hydrosphere, and cryosphere essentially and inevitably shape global climate conditions. Therefore, the article investigates the possibilities for modelling the periodicity of the observable seasonal climate processes. The starting assumption of the study is that the seasonal climate processes are representable by two-phase linear periodic models based on observed data. A numerical algorithm elaborated in the sequel makes it possible to accumulate the seasonal effects of two successively progressive and regressive process phases of periodic climate changes in time. The model first tackles the reported seasonal growth of the atmospheric CO2 concentration. Next, it considers the observed seasonal cryospheric melting and freezing processes of the Antarctica and Greenland ice sheets and of the Arctic sea ice. It also elaborates on the reported seasonal sea level rise. Finally, the article summarises the interactions of periodic climate processes and the global climate conditions in time scale. The reports on global temperature rise are only on an annual basis. The article also emphasises the importance of control over the seasonal worsening and recovery scenarios for more appropriate projections of climate policies to 2100.
季节性地球过程与气候系统的相互作用
地球的季节性过程在大气层、水圈和冰冻圈的不同地点和时间的累积效应,不可避免地从根本上塑造了全球气候条件。因此,文章研究了对可观测到的季节性气候过程的周期性进行建模的可能性。研究的出发假设是,季节性气候过程可以用基于观测数据的两相线性周期模型来表示。接下来将详细阐述一种数值算法,它可以将周期性气候变化的两个连续递增和递减过程阶段的季节效应累积起来。该模型首先处理大气二氧化碳浓度的季节性增长。接下来,它考虑了观测到的南极洲和格陵兰岛冰盖以及北极海冰的季节性冰层融化和冻结过程。文章还阐述了所报告的季节性海平面上升。最后,文章总结了周期性气候过程与全球气候条件在时间尺度上的相互作用。关于全球气温上升的报告仅以年度为基础。文章还强调了控制季节性恶化和恢复情景的重要性,以便更适当地预测 2100 年的气候政策。
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
Journal of Climate Change
Journal of Climate Change METEOROLOGY & ATMOSPHERIC SCIENCES-
自引率
16.70%
发文量
18
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