TY - JOUR
T1 - AeoLiS
T2 - Numerical modelling of coastal dunes and aeolian landform development for real-world applications
AU - van Westen, Bart
AU - de Vries, Sierd
AU - Cohn, Nicholas
AU - van IJzendoorn, Christa
AU - Strypsteen, Glenn
AU - Hallin, Caroline
PY - 2024/8
Y1 - 2024/8
N2 - The formation and evolution of coastal dunes result from a complex interplay of eco-morphodynamic processes. State-of-the-art models can simulate aeolian transports and morphological dune evolution under certain conditions. However, a model combining these processes for coastal engineering applications was not yet available. This study aims to develop a predictive tool for dune development to inform coastal management decisions and interventions. The aeolian sediment transport model AeoLiS is extended with functionalities that allow for simulations of coastal landforms. The added functionalities include the effect of topographic steering on wind shear, avalanching of steep slopes and vegetation processes in the form of growth and wind shear reduction. The model is validated by simulating four distinct coastal landforms; barchan-, parabolic-, embryo dunes and blowouts. Simulations, based on real-world conditions, replicate the landform formation, migration rates and seasonal variability.
AB - The formation and evolution of coastal dunes result from a complex interplay of eco-morphodynamic processes. State-of-the-art models can simulate aeolian transports and morphological dune evolution under certain conditions. However, a model combining these processes for coastal engineering applications was not yet available. This study aims to develop a predictive tool for dune development to inform coastal management decisions and interventions. The aeolian sediment transport model AeoLiS is extended with functionalities that allow for simulations of coastal landforms. The added functionalities include the effect of topographic steering on wind shear, avalanching of steep slopes and vegetation processes in the form of growth and wind shear reduction. The model is validated by simulating four distinct coastal landforms; barchan-, parabolic-, embryo dunes and blowouts. Simulations, based on real-world conditions, replicate the landform formation, migration rates and seasonal variability.
KW - Aeolian sediment transport
KW - Blowout
KW - Dune geomorphology
KW - Dune vegetation
KW - Embryo dune
KW - Parabolic dune
UR - https://www.scopus.com/pages/publications/85195285769
U2 - 10.1016/j.envsoft.2024.106093
DO - 10.1016/j.envsoft.2024.106093
M3 - Article
AN - SCOPUS:85195285769
SN - 1364-8152
VL - 179
JO - Environmental Modelling and Software
JF - Environmental Modelling and Software
M1 - 106093
ER -