Marine ecosystems, like all complex systems, require a holistic understanding to address human-induced influences effectively. Our thesis focused on sea surface research, particularly the study of current patterns and chemical data like oxygen levels. To support sustainable strategies for marine protection, we collaborated closely with a research team from the University of Oldenburg to modernize nautical drifters, which are essential for global data collection.
A modular platform principle was an uncompromising user-need.
Based on intensive research and cooperation with the University of Oldenburg, the existing drifter technology was analyzed and weaknesses identified, such as limited measurement performance and a lack of control options. Interviews and usability tests with scientists. Using an iterative process of design sprints and concept tests, a modular, intuitive software was designed to meet both current and future application scenarios. The focus was on the sustainability of the application - from resource-saving data processing to the promotion of interdisciplinary cooperation.
The result is an interactive prototype that efficiently combines control, monitoring and data evaluation. The modular architecture allows the application to be flexibly adapted to different research contexts, while an open source approach promotes the further development of the drifter and software technology by the community.
