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在变暖的气候下,格陵兰岛主要出海口的冰川导致未来海平面上升。

Future sea-level rise from Greenland's main outlet glaciers in a warming climate.

机构信息

Laboratoire de Glaciologie, Université Libre de Bruxelles, B-1050 Brussels, Belgium.

出版信息

Nature. 2013 May 9;497(7448):235-8. doi: 10.1038/nature12068.

DOI:10.1038/nature12068
PMID:23657350
Abstract

Over the past decade, ice loss from the Greenland Ice Sheet increased as a result of both increased surface melting and ice discharge to the ocean. The latter is controlled by the acceleration of ice flow and subsequent thinning of fast-flowing marine-terminating outlet glaciers. Quantifying the future dynamic contribution of such glaciers to sea-level rise (SLR) remains a major challenge because outlet glacier dynamics are poorly understood. Here we present a glacier flow model that includes a fully dynamic treatment of marine termini. We use this model to simulate behaviour of four major marine-terminating outlet glaciers, which collectively drain about 22 per cent of the Greenland Ice Sheet. Using atmospheric and oceanic forcing from a mid-range future warming scenario that predicts warming by 2.8 degrees Celsius by 2100, we project a contribution of 19 to 30 millimetres to SLR from these glaciers by 2200. This contribution is largely (80 per cent) dynamic in origin and is caused by several episodic retreats past overdeepenings in outlet glacier troughs. After initial increases, however, dynamic losses from these four outlets remain relatively constant and contribute to SLR individually at rates of about 0.01 to 0.06 millimetres per year. These rates correspond to ice fluxes that are less than twice those of the late 1990s, well below previous upper bounds. For a more extreme future warming scenario (warming by 4.5 degrees Celsius by 2100), the projected losses increase by more than 50 per cent, producing a cumulative SLR of 29 to 49 millimetres by 2200.

摘要

在过去的十年中,由于表面融化和向海洋排放冰量的增加,格陵兰冰原的冰损失增加。后者受冰流加速和随后快速流动的海洋终端出口冰川变薄的控制。量化此类冰川对海平面上升 (SLR) 的未来动态贡献仍然是一个主要挑战,因为对出口冰川动力学的了解甚少。在这里,我们提出了一个包括对海洋终端进行全面动态处理的冰川流动模型。我们使用该模型模拟了四个主要海洋终端出口冰川的行为,这些冰川共同排放了约 22%的格陵兰冰原。使用预测到 2100 年升温 2.8 摄氏度的中等未来变暖情景的大气和海洋强迫,我们预测到 2200 年这些冰川对 SLR 的贡献为 19 至 30 毫米。这一贡献主要(80%)是由冰川动力学引起的,是由于几个出口冰川槽中的过深区域发生了间歇性后退。然而,在最初的增加之后,这四个出口的动态损失相对保持稳定,并以每年约 0.01 至 0.06 毫米的速度分别对 SLR 做出贡献。这些速率对应于冰通量小于 1990 年代后期的两倍,远低于之前的上限。对于更极端的未来变暖情景(到 2100 年升温 4.5 摄氏度),预计损失将增加 50%以上,到 2200 年,累积 SLR 将达到 29 至 49 毫米。

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