Greenhouse Warming Reduces Global Energy Conversion into Oceanic Lee Waves

Oceanic lee waves play an important role in dissipating wind-driven ocean circulations and powering turbulent diapycnal mixing. Here we investigate impacts of the greenhouse warming on global energy conversion into lee waves using a linear theory of lee wave generation and output from a high-resolut...

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Main Authors: Yang, Zhibin, Jing, Zhao, Zhai, Xiaoming
Format: Other/Unknown Material
Language:unknown
Published: Authorea, Inc. 2023
Subjects:
Online Access:http://dx.doi.org/10.22541/essoar.168394783.36445702/v1
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spelling crwinnower:10.22541/essoar.168394783.36445702/v1 2024-06-02T08:05:51+00:00 Greenhouse Warming Reduces Global Energy Conversion into Oceanic Lee Waves Yang, Zhibin Jing, Zhao Zhai, Xiaoming 2023 http://dx.doi.org/10.22541/essoar.168394783.36445702/v1 unknown Authorea, Inc. posted-content 2023 crwinnower https://doi.org/10.22541/essoar.168394783.36445702/v1 2024-05-07T14:19:27Z Oceanic lee waves play an important role in dissipating wind-driven ocean circulations and powering turbulent diapycnal mixing. Here we investigate impacts of the greenhouse warming on global energy conversion into lee waves using a linear theory of lee wave generation and output from a high-resolution (0.1° for the ocean) coupled global climate model. The global energy conversion rate into lee waves under the historical (1930s) climate condition is estimated to be 193.0±3.0 GW. Under the high carbon emission scenario, this conversion rate is projected to decrease by about 20% by the end of 21st century, due to weakened bottom large-scale mean flows, mesoscale eddies and stratification. The decrease of the conversion rate is widespread and particularly pronounced in the Gulf Stream and Drake Passage. Our results suggest significant response of oceanic lee waves to the greenhouse warming, with implications for future changes of global ocean circulations and climate. Other/Unknown Material Drake Passage The Winnower Drake Passage
institution Open Polar
collection The Winnower
op_collection_id crwinnower
language unknown
description Oceanic lee waves play an important role in dissipating wind-driven ocean circulations and powering turbulent diapycnal mixing. Here we investigate impacts of the greenhouse warming on global energy conversion into lee waves using a linear theory of lee wave generation and output from a high-resolution (0.1° for the ocean) coupled global climate model. The global energy conversion rate into lee waves under the historical (1930s) climate condition is estimated to be 193.0±3.0 GW. Under the high carbon emission scenario, this conversion rate is projected to decrease by about 20% by the end of 21st century, due to weakened bottom large-scale mean flows, mesoscale eddies and stratification. The decrease of the conversion rate is widespread and particularly pronounced in the Gulf Stream and Drake Passage. Our results suggest significant response of oceanic lee waves to the greenhouse warming, with implications for future changes of global ocean circulations and climate.
format Other/Unknown Material
author Yang, Zhibin
Jing, Zhao
Zhai, Xiaoming
spellingShingle Yang, Zhibin
Jing, Zhao
Zhai, Xiaoming
Greenhouse Warming Reduces Global Energy Conversion into Oceanic Lee Waves
author_facet Yang, Zhibin
Jing, Zhao
Zhai, Xiaoming
author_sort Yang, Zhibin
title Greenhouse Warming Reduces Global Energy Conversion into Oceanic Lee Waves
title_short Greenhouse Warming Reduces Global Energy Conversion into Oceanic Lee Waves
title_full Greenhouse Warming Reduces Global Energy Conversion into Oceanic Lee Waves
title_fullStr Greenhouse Warming Reduces Global Energy Conversion into Oceanic Lee Waves
title_full_unstemmed Greenhouse Warming Reduces Global Energy Conversion into Oceanic Lee Waves
title_sort greenhouse warming reduces global energy conversion into oceanic lee waves
publisher Authorea, Inc.
publishDate 2023
url http://dx.doi.org/10.22541/essoar.168394783.36445702/v1
geographic Drake Passage
geographic_facet Drake Passage
genre Drake Passage
genre_facet Drake Passage
op_doi https://doi.org/10.22541/essoar.168394783.36445702/v1
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