Glacier shrinkage driving global changes in downstream systems
Glaciers cover ∼10% of the Earth’s land surface, but they are shrinking rapidly across most parts of the world, leading to cascading impacts on downstream systems. Glaciers impart unique footprints on river flow at times when other water sources are low. Changes in river hydrology and morphology cau...
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Veröffentlicht in: | Proceedings of the National Academy of Sciences - PNAS 2017-09, Vol.114 (37), p.9770-9778 |
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creator | Milner, Alexander M. Khamis, Kieran Battin, Tom J. Brittain, John E. Barrand, Nicholas E. Füreder, Leopold Cauvy-Fraunié, Sophie Gíslason, Gísli Már Jacobsen, Dean Hannah, David M. Hodson, Andrew J. Hood, Eran Lencioni, Valeria Ólafsson, Jón S. Robinson, Christopher T. Tranter, Martyn Brown, Lee E. |
description | Glaciers cover ∼10% of the Earth’s land surface, but they are shrinking rapidly across most parts of the world, leading to cascading impacts on downstream systems. Glaciers impart unique footprints on river flow at times when other water sources are low. Changes in river hydrology and morphology caused by climate-induced glacier loss are projected to be the greatest of any hydrological system, with major implications for riverine and near-shore marine environments. Here, we synthesize current evidence of how glacier shrinkage will alter hydrological regimes, sediment transport, and biogeochemical and contaminant fluxes from rivers to oceans. This will profoundly influence the natural environment, including many facets of biodiversity, and the ecosystem services that glacier-fed rivers provide to humans, particularly provision of water for agriculture, hydropower, and consumption. We conclude that human society must plan adaptation and mitigation measures for the full breadth of impacts in all affected regions caused by glacier shrinkage. |
doi_str_mv | 10.1073/pnas.1619807114 |
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Glaciers impart unique footprints on river flow at times when other water sources are low. Changes in river hydrology and morphology caused by climate-induced glacier loss are projected to be the greatest of any hydrological system, with major implications for riverine and near-shore marine environments. Here, we synthesize current evidence of how glacier shrinkage will alter hydrological regimes, sediment transport, and biogeochemical and contaminant fluxes from rivers to oceans. This will profoundly influence the natural environment, including many facets of biodiversity, and the ecosystem services that glacier-fed rivers provide to humans, particularly provision of water for agriculture, hydropower, and consumption. 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Glaciers impart unique footprints on river flow at times when other water sources are low. Changes in river hydrology and morphology caused by climate-induced glacier loss are projected to be the greatest of any hydrological system, with major implications for riverine and near-shore marine environments. Here, we synthesize current evidence of how glacier shrinkage will alter hydrological regimes, sediment transport, and biogeochemical and contaminant fluxes from rivers to oceans. This will profoundly influence the natural environment, including many facets of biodiversity, and the ecosystem services that glacier-fed rivers provide to humans, particularly provision of water for agriculture, hydropower, and consumption. 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subjects | Agriculture - methods Aquatic ecosystems Biodiversity Biological Sciences Climate Climate change Contaminants Downstream Earth surface Ecosystem Ecosystem services Environmental Sciences Fluxes Food Chain Glaciers Global Warming Humans Hydroelectric power Hydrology Ice Cover Marine environment Mitigation Oceans PERSPECTIVE Physical Sciences River flow Rivers Sediment transport Shrinkage Studies Water pollution |
title | Glacier shrinkage driving global changes in downstream systems |
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