地球系统科学
气候系统
环境科学
气候学
气候变化
土(古典元素)
气候模式
大气科学
气象学
地质学
地理
数学
海洋学
数学物理
作者
J. A. Rial,Roger A. Pielke,Martin Beniston,Martin Claussen,Josep Peñuelas,Peter Timothy Cox,Hermann Held,Nathalie de Noblet-Ducoudré,Ronald G. Prinn,James F. Reynolds,José A. Salas
出处
期刊:Climatic Change
[Springer Nature]
日期:2004-07-01
卷期号:65 (1/2): 11-38
被引量:241
标识
DOI:10.1023/b:clim.0000037493.89489.3f
摘要
The Earth's climate system is highly nonlinear: inputs and outputs are not proportional, change is often episodic and abrupt, rather than slow and gradual, and multiple equilibria are the norm. While this is widely accepted, there is a relatively poor understanding of the different types of nonlinearities, how they manifest under various conditions, and whether they reflect a climate system driven by astronomical forcings, by internal feedbacks, or by a combination of both. In this paper, af- ter a brief tutorial on the basics of climate nonlinearity, we provide a number of illustrative examples and highlight key mechanisms that give rise to nonlinear behavior, address scale and methodological issues, suggest a robust alternative to prediction that is based on using integrated assessments within the framework of vulnerability studies and, lastly, recommend a number of research priorities and the establishment of education programs in Earth Systems Science. It is imperative that the Earth's climate system research community embraces this nonlinear paradigm if we are to move forward in the assessment of the human influence on climate.
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