Binks, Jar Jar U.; Tano, Ahsoka r.; Bacca, Chew P. (2024)
ISC 202X.
Schumann, Martin; Munke, Johannes; Hachinger, Stephan; Hannawald, Patrick; Beck, Inga; Götz, Alexander; Goussev, Oleg; Handschuh, Jana; Heller, Helmut; Mair, Roland; Rehm, Till; Wittmann, Bianca; Wüst, Sabine; Bittner, Michael; Schmidt, Jan; Kranzlmüller, Dieter (2023)
Schumann, Martin; Munke, Johannes; Hachinger, Stephan; Hannawald, Patrick; Beck, Inga...
EGU General Assembly 2023, Vienna, Austria.
DOI: 10.5194/egusphere-egu23-237
In this poster contribution, we present a scheduling system for automated remote operation of instruments at high-altitude research facilities and similar remote sites. Via web-based interfaces, the system allows instrument owners as well as authorized third-party scientists to schedule and execute measurements and observations.The system has been developed as a thesis project in the context of the AlpEnDAC-II ("Alpine Environmental Data Analysis Centre", www.alpendac.eu) collaboration (funded by the Bavarian State Ministry of the Environment and Consumer Protection). Consequently, the scheduler and interfaces have been integrated with the AlpEnDAC Operating-on-Demand functionalities. A first use case for the framework has been the operation of an airglow imager (FAIM) in Oberpfaffenhofen (DE).We describe the design and implementation of our system for scheduling and execution of multi-user observations on instruments, including scheduling-data transfers and data retrieval. Our core implementation uses an optimization-based scheduler (Google’s OR-Tools) to ensure maximum instrument use and to minimize idle times. Results show that the scheduler is reliable, fast, and is consistently able to provide optimal observation plans. The extensibility of the system is guaranteed by the usage of modern software in the core of the system, including well-defined and specified communication through REST APIs. Thus, it can easily be adapted to other settings and instruments, which is also facilitated by a modern deployment strategy using Docker and Kubernetes.
Batsaikhan, Anudari; Kurtz, Wolfgang; Hachinger, Stephan (2022)
Digital 2 (1), 53–64.
DOI: 10.3390/digital2010004
In citizen science, citizens are encouraged to participate in research, with web technologies promoting location-independent participation and broad knowledge sharing. In this study, web technologies were extracted from 112 citizen science projects listed on the “Bürger schaffen Wissen”. Four indicators on web technologies—Online platforms, Educational tools, Social media, and Data sharing between projects—were chosen to quantify the extent to which web technologies are used within citizen science projects. The results show that the use of web technologies is already very well established in both the natural and social science projects and only the possibilities for data sharing between projects are limited.
Leibniz-Rechenzentrum der Bayerischen Akademie der Wissenschaften
Boltzmannstraße 1
85748 Garching