水同位素、气候变率和水文循环:最新进展和新前沿

S. Dee, A. Bailey, J. L. Conroy, A. Atwood, S. Stevenson, J. Nusbaumer, D. Noone
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引用次数: 7

摘要

水文循环是气候系统的一个基本组成部分,具有重要的社会和生态意义。然而,我们对水通量及其对温室气体强迫增加的反应的理解仍然存在差距。水中氧和氢的稳定同位素比率为评估水文过程和研究其在气候系统变率中的作用及其对变化的敏感性提供了一个独特的机会。水同位素也构成了各种档案中许多古气候代用品的基础,包括冰芯、湖泊和海洋沉积物、珊瑚和洞穴。这些记录保存了在仪器观测之前关于过去水文变化的大部分可用信息。因此,水同位素提供了一种“通用货币”,将古气候档案与现代观测联系起来,使我们能够在广泛的时间和长度尺度上评估水文过程及其对气候变率的影响。在总结了水同位素测量和建模进展的文献基础上,并描述了水同位素在理解水文过程中的应用,本专题综述反映了同位素研究对气候变率的新见解。我们强调了新的工作和机会,以提高我们的理解和预测技能,并提出了一套建议,以推进气候研究的观测和基于模式的工具。最后,我们强调了在自然气候变率固有的嘈杂背景下更好地约束气候敏感性和识别人为驱动的水文变化的机会。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Water isotopes, climate variability, and the hydrological cycle: recent advances and new frontiers
The hydrologic cycle is a fundamental component of the climate system with critical societal and ecological relevance. Yet gaps persist in our understanding of water fluxes and their response to increased greenhouse gas forcing. The stable isotope ratios of oxygen and hydrogen in water provide a unique opportunity to evaluate hydrological processes and investigate their role in the variability of the climate system and its sensitivity to change. Water isotopes also form the basis of many paleoclimate proxies in a variety of archives, including ice cores, lake and marine sediments, corals, and speleothems. These records hold most of the available information about past hydrologic variability prior to instrumental observations. Water isotopes thus provide a ‘common currency’ that links paleoclimate archives to modern observations, allowing us to evaluate hydrologic processes and their effects on climate variability on a wide range of time and length scales. Building on previous literature summarizing advancements in water isotopic measurements and modeling and describe water isotopic applications for understanding hydrological processes, this topical review reflects on new insights about climate variability from isotopic studies. We highlight new work and opportunities to enhance our understanding and predictive skill and offer a set of recommendations to advance observational and model-based tools for climate research. Finally, we highlight opportunities to better constrain climate sensitivity and identify anthropogenically-driven hydrologic changes within the inherently noisy background of natural climate variability.
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