Universitätssiegel

Funding
Erasmus+ Programme of the European Union
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Duration
2020 - 2023

 

Contact
Bernhard Höfle
Institute of Geography, Heidelberg University, Germany

 

Project partners
Charles University Prague, Czech Republic
Markéta Potůčková (PI)

Heidelberg University, Germany
Bernhard Höfle

University of Innsbruck, Austria
Martin Rutzinger

University of Warsaw, Poland
Adriana Marcinkowska-Ochtyra

 

E-TRAINEE - E-learning course on Time Series Analysis in Remote Sensing for Understanding Human-Environment Interactions

The E-TRAINEE course is hosted on GitHub and can be accessed here: https://3dgeo-heidelberg.github.io/etrainee/

News

Research news can be found in our GIScience News Blog. Follow our updates on X/Twitter: #ETRAINEE #3DGeo

Find all infos around the project on the official E-TRAINEE website.

New paper:

  • Potůčková, M., Albrechtová, J., Anders, K., Červená, L., Dvořák, J., Gryguc, K., Höfle, B., Hunt, L., Lhotáková, Z., Marcinkowska-Ochtyra, A., Mayr, A., Neuwirthová, E., Ochtyra, A., Rutzinger, M., Šedová, A., Šrollerů, A., and Kupková, L. (2023): E-TRAINEE: Open E-learning course on time series analysis in remote sensing. The International Archives of the Photogrammetry, Remote Sensing and Spatial Information Sciences. Vol. XLVIII-1/W2-2023, pp. 989–996.
Motivation

Processing of time series of remote sensing data is a challenging goal of today’s and future research. Global Earth observation programmes provide extensive image archives dated back to several decades. Aerial images and LiDAR point clouds are acquired on the national level in two to three years cycles. Specific localities are monitored on regular (hourly, weekly, monthly, yearly) basis for research purposes such as monitoring resistance of plants to droughts, invasive species encroachment, melting of mountainous snow and glaciers, desertification, decrease of biodiversity, deforestation or urbanization.

4D object-by-change

Surface change extracted from the spatiotemporal information in large 4D geospatial data (Anders et al. 2020)

Thus, processing methods of the time series of remote sensing data of different time and spatial scales, the combination of heterogeneous and multi-modal data sources and accuracy assessment of the obtained results are becoming a key part of remote sensing and geo(infor)matics curricula.

Objective

The project’s objective is to develop a comprehensive research-oriented open e-learning course on time series analysis in remote sensing for environmental monitoring. The course offers a multidisciplinary approach connecting themes from computer science, geography, and environmental studies.
It combines well established and latest technologies of remote sensing (satellite and UAV sensing, multispectral and hyperspectral sensing, 3D point clouds) and methods of artificial intelligence (machine and deep learning) in order to use these technological developments to understand environmental changes and interaction of human activities and environment. It shows how the same environmental phenomenon can be analysed from the perspective of different data sources, scales and time frequencies.
Moreover, it increases students’ digital literacy in time series analysis in remote sensing, which comprises the improvement in methodological and practical data handling skills. The students also gain the skills for critical reflection and communication of complex data processing tasks, enabling them for transformative and interdisciplinary research missions.

Background

This collaboration project is funded in the framework of the Erasmus+ programme of the European Union with Markéta Potůčková (Department of Applied Geoinformatics and Cartography, Charles University Prague) as PI of the project and Heidelberg University, University of Innsbruck and University of Warsaw as project partners. It follows the alliance built up through the 4EU+ collaboration project 3D Landcover Monitoring

The 3DGeo research group supports this project with contents on 3D/4D geospatial point clouds and methods for their analysis, including machine learning, time series analysis, and laser scanning simulation. Contents will further comprise programming for point cloud analysis in Python and research-oriented case studies.

Publications
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Latest Revision: 2024-01-22
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