Response of the Intertropical Convergence Zone to Climate Change: Location, Width, and Strength

Purpose of Review The intertropical convergence zone (ITCZ) is a planetary-scale band of heavy precipitation close to the equator. Here, we consider the response of the ITCZ structure to climate change using observations, simulations, and theory. We focus on the substantial yet underappreciated proj...

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Veröffentlicht in:Current climate change reports 2018-12, Vol.4 (4), p.355-370
Hauptverfasser: Byrne, Michael P., Pendergrass, Angeline G., Rapp, Anita D., Wodzicki, Kyle R.
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Rapp, Anita D.
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description Purpose of Review The intertropical convergence zone (ITCZ) is a planetary-scale band of heavy precipitation close to the equator. Here, we consider the response of the ITCZ structure to climate change using observations, simulations, and theory. We focus on the substantial yet underappreciated projected changes in ITCZ width and strength, and highlight an emerging conceptual framework for understanding these changes. Recent Findings Satellite observations and reanalysis data show a narrowing and strengthening of precipitation in the ITCZ over recent decades in both the Atlantic and Pacific basins, but little change in ITCZ location. Consistent with observations, coupled climate models predict no robust change in the zonal-mean ITCZ location over the twenty-first century. However, the majority of models project a narrowing of the ITCZ and weakening mean ascent. Interestingly, changes in ITCZ width and strength are strongly anti-correlated across models. Summary The ITCZ has narrowed over recent decades yet its location has remained approximately constant. Climate models project further narrowing and a weakening of the average ascent within the ITCZ as the climate continues to warm. Following intense work over the last ten years, the physical mechanisms controlling the ITCZ location are now well understood. The development of complementary theories for ITCZ width and strength is a current research priority. Outstanding challenges include understanding the ITCZ response to past climate changes and over land versus ocean regions, and better constraining all aspects of the ITCZ structure in model projections.
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Here, we consider the response of the ITCZ structure to climate change using observations, simulations, and theory. We focus on the substantial yet underappreciated projected changes in ITCZ width and strength, and highlight an emerging conceptual framework for understanding these changes. Recent Findings Satellite observations and reanalysis data show a narrowing and strengthening of precipitation in the ITCZ over recent decades in both the Atlantic and Pacific basins, but little change in ITCZ location. Consistent with observations, coupled climate models predict no robust change in the zonal-mean ITCZ location over the twenty-first century. However, the majority of models project a narrowing of the ITCZ and weakening mean ascent. Interestingly, changes in ITCZ width and strength are strongly anti-correlated across models. Summary The ITCZ has narrowed over recent decades yet its location has remained approximately constant. Climate models project further narrowing and a weakening of the average ascent within the ITCZ as the climate continues to warm. Following intense work over the last ten years, the physical mechanisms controlling the ITCZ location are now well understood. The development of complementary theories for ITCZ width and strength is a current research priority. 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subjects Atmosphere
Atmospheric Sciences
Automation
Climate Change
Climate Change and Atmospheric Circulation (R Chadwick
Climate Change and Atmospheric Circulation (R Chadwick, Section Editor)
Climate Change Management and Policy
Climate models
Climate prediction
Climate science
Climatology
Clouds
Convergence
Convergence zones
Earth and Environmental Science
Environment
Equator
Heavy precipitation
Hydrology
Intertropical convergence zone
Oceanography
Precipitation
Radiation
Salinity
Satellite observation
Section Editor
Simulation
Strength
Topical Collection on Climate Change and Atmospheric Circulation
Trends
Width
title Response of the Intertropical Convergence Zone to Climate Change: Location, Width, and Strength
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