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Person(s) who is (are) responsible for the content of the research dataLoebel, Erik
Person(s) who is (are) responsible for the content of the research dataScheinert, Mirko
Person(s) who is (are) responsible for the content of the research dataHorwath, Martin
Person(s) who is (are) responsible for the content of the research dataHeidler, Konrad
Person(s) who is (are) responsible for the content of the research dataChristmann, Julia
Person(s) who is (are) responsible for the content of the research dataPhan, Long Duc
Person(s) who is (are) responsible for the content of the research dataHumbert, Angelika
Person(s) who is (are) responsible for the content of the research dataXiao Xiang, Zhu
AbstractSupplementary material to the manuscript: Loebel, E., Scheinert, M., Horwath, M., Heidler, K., Christmann, J., Phan, L., Humbert, A., Zhu, X. (2022): Extracting glacier calving fronts by deep learning: the benefit of multi-spectral, topographic and textural input features, IEEE Transactions on Geoscience and Remote Sensing. The dataset is composed of three parts. Firstly, this dataset provides 728 manually delineated glacier calving front positions of 23 Greenland and 2 Antarctic outlet glaciers from 2013 to 2021. For that, we provide ocean masks and frontal positions as Polygon or LineString Shapefiles respectively. For manual delineation, we used optical Landsat-8 imagery. Secondly, we provide 995 input raster subsets (17 layers each) with their corresponding, manually delineated, segmentation masks. Input raster subsets have dimensions of 512 pixels by 512 pixels and are available in both png and georeferenced tif format. These machine learning ready raster subsets are optimized for training and validating artificial neural networks. Thirdly, we lay out our source code we use for neural network training and accuracy assessment. The code uses python3 and shell scripts.
Regions the data is referencingGreenland, Antarctica
Additional keywordsremote sensing
Additional keywordssatellite imagery
Additional keywordsmachine learning
Additional keywordsreference data
Year or period of data production2022
Publication year2022
PublisherTechnische Universität Dresden
References on related materialsIsPartOf: 123456789/5680 (Handle)
Content of the research dataDataset, Workflow: 728 manually delineated glacier calving front positions of 23 Greenland and 2 Antarctic outlet glaciers from 2013 to 2021 (provided as Shapefiles as well as machine learning ready raster subsets) and source code for automated extraction by deep learning.
Holder of usage rightsTechnische Universität Dresden
Usage rights of the dataCC-BY-NC-4.0
Discipline(s)Geographyde
Discipline(s)Geological Sciencede
Discipline(s)Computer Sciencede
Discipline(s)Otherde
Title of the datasetManually delineated glacier calving fronts of 23 Greenland and 2 Antarctic outlet glaciers from 2013 to 2021 and source code for automated extraction by deep learning


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  • Change pattern identification of outlet glaciers in Greenland [2]Open Access Icon
    Outlet glaciers in Greenland experience a combination of seasonal and climate-driven change. Nearby glaciers exhibit very different retreat and advance behavior despite being situated in similar climatic conditions. This highlights the demand to essentially improve our understanding of the driving mechanisms and to provide a basis for parameterizations of oceanic forcing that are fed into mass-loss projections. Temporal changes of glacial flow velocities are presumably linked to the evolution of the subglacial hydrological system. Depending on the type of subglacial system, the temporal acceleration of the glacier is represented by different characteristics. While this is typically investigated only along a central flow line, the spatial distribution contains more information on the cause of the acceleration. In a similar way, the spatial pattern of acceleration due to changes at the calving front is likely driven by upstream propagation of changes in stresses. Hence, understanding the mechanisms in detail requires an analysis of different physical variables in high temporal and spatial resolution and combination with ice modelling. With the new generation of satellites the era of big data has started in glaciology, and new efficient methods to analyze change patterns are required.

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