Global shifts in mountain wave turbulence within high resolution climate models

Using a multi-model approach, this paper quantifies global changes in moderate or greater mountain wave turbulence (MWT) within a high-end warming scenario by 2050. We first show that simulated MWT changes depend on model resolution and therefore select three high resolution global climate model experiments for further analysis; HadGEM3-GC3.1-HM (25 km), EC-Earth-3P-HR (36 km) and MPI-ESM1.2-XR (34 km). The wide model and index uncertainty across continental average projections lead to a sub-continental 28 area approach. Using this method, we determined MWT is projected to increase over North America as a whole but decrease over the Rocky Mountains. An increase in MWT is projected for other regions including the Antarctic, Greenland, Georgia, Azerbaijan and parts of Chile and Argentina. A decline in MWT is projected for the Alps, Atlas and northern and central Andes. We also explore the modelled relationship of 10 m wind speed and MWT production; there is a positive correlation between the projected changes of MWT and surface wind speed. The aviation sector should be aware of the future projections in MWT, particularly for regions where a large increase in MWT is projected, such as the Antarctic and Greenland.

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Publication Details

Journal
Weather and Climate Dynamics
Published
2026-09-10
DOI
https://doi.org/10.5194/wcd-7-1733-2026
Primary Topic
Meteorological Phenomena and Simulations
Type
article
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article

Global shifts in mountain wave turbulence within high resolution climate models

R. Schiemann, Isabel H. Smith, Paul D. Williams
Weather and Climate Dynamics
Meteorological Phenomena and Simulations
article

Global shifts in mountain wave turbulence within high resolution climate models

R. Schiemann, Isabel H. Smith, Paul D. Williams
article en

Abstract

Using a multi-model approach, this paper quantifies global changes in moderate or greater mountain wave turbulence (MWT) within a high-end warming scenario by 2050. We first show that simulated MWT changes depend on model resolution and therefore select three high resolution global climate model experiments for further analysis; HadGEM3-GC3.1-HM (25 km), EC-Earth-3P-HR (36 km) and MPI-ESM1.2-XR (34 km). The wide model and index uncertainty across continental average projections lead to a sub-continental 28 area approach. Using this method, we determined MWT is projected to increase over North America as a whole but decrease over the Rocky Mountains. An increase in MWT is projected for other regions including the Antarctic, Greenland, Georgia, Azerbaijan and parts of Chile and Argentina. A decline in MWT is projected for the Alps, Atlas and northern and central Andes. We also explore the modelled relationship of 10 m wind speed and MWT production; there is a positive correlation between the projected changes of MWT and surface wind speed. The aviation sector should be aware of the future projections in MWT, particularly for regions where a large increase in MWT is projected, such as the Antarctic and Greenland.

Weather and Climate DynamicsVol. 7(3)
University of Oxford (GB), Reading Museum (GB), National Centre for Atmospheric Science (GB), University of Reading (GB)
Climate action
Openalex Percentile: Top 15%
Meteorological Phenomena and Simulations
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Global shifts in mountain wave turbulence within high resolution climate models — R. Schiemann, Isabel H. Smith, et al. · Weather and Climate Dynamics (2026) | TGRS Research Map | TGRS