nextGEMS is a collaborative European project. Funded by the EU’s Horizon 2020 programme, it will tap expertise from fourteen European Nations to develop two next generation (storm-resolving) Earth-system
In the first phase of the nextGEMS project, the two Earth-system models ICON (Version ee0ee6) and IFS (Cycle 48r1 nextGEMS) are developed in three iterative cycles aiming at simulating the climate 30 years
In work package 6 of the nextGEMS project, several ocean-only model runs were performed with FESOM (Version 2.0) and ICON-O (Version 2.6.6), to test the sensitivity of the upper tropical Atlantic to different
In the first phase of the nextGEMS project, the two Earth-system models ICON (Version ee0ee6) and IFS (Cycle 47r3.3 nextGEMS) are developed in three iterative cycles aiming at simulating the climate 30
The objective of the project is to better understand what controls the size of intense storms, also known as deep convective systems. The larger the storm is the more it has consequences in terms of extreme
In the first phase of the nextGEMS project, the two Earth-system models ICON and IFS were developed in three iterative cycles aiming at simulating the climate 30 years into the future at storm-resolving
In the first phase of the nextGEMS project, the two Earth-system models ICON and IFS were developed in three iterative cycles aiming at simulating the climate 30 years into the future at storm-resolving
This dataset is an ensemble of 38 subdatasets in august and 18 in september that contains the physical fields of the first 5hours of development of deep convective systems in Dyamond-SAM simulation tracked
This dataset consists of two sets (one for training and one for testing) that contain precomputed features derived from DeepFate_h5 physical fields for each deep convective system. While the data includes