Start Date
Immediate
Expiry Date
04 Dec, 25
Salary
0.0
Posted On
06 Sep, 25
Experience
0 year(s) or above
Remote Job
Yes
Telecommute
Yes
Sponsor Visa
No
Skills
Good communication skills
Industry
Information Technology/IT
Beginn der Ausschreibung
01.09.2025
Ende der Ausschreibung
12.10.2025
Institut bzw. Bereich
Institut für Küstensysteme - Analyse und Modellierung
Standort
Geesthacht
The department Ecosystem Modeling identifies key mechanisms of the human-driven transformation of marine ecosystems (www.hereon.de/ecomod). Within the collaborative JPI-Ocean research project “Impacts of artificial light at night on pelagic ecosystems in European seas” (ALANIS), we examine how changing lightscapes through artificial light at night or coastal darkening (increases in light attenuation) impact marine food-webs and ecosystem functioning. By bringing together field observations and mechanistic models, the candidate should specifically investigate how changing lightscapes affect visual predation by fish and vertical mobility patterns of fish and plankton, and how the effects propagate down to the base of the food-web. Identified relationships should then be extrapolated to different ecosystems in European seas, also in support of management efforts.
Our team is internationally renowned in the field of trait-based marine modeling. Within our research institute and the project ALANIS, your work will be tightly embedded into an interdisciplinary and inter-institutional network. As a postdoctoral researcher in coupled hydrodynamic-ecological modeling (24 months, 100%), you will fill a central position to reach important objectives of the project.
Equal opportunity is an important part of our personnel policy. We would therefore strongly encourage qualified women to apply for the position. The position is full-time (39 hours/week).
WE OFFER YOU
How To Apply:
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Incorporate visual predation and vertical migration into an existing trait-based ecosystem model; Couple the model to a 1D physical model (GOTM) through the FABM framework; Validate the coupled model using published and newly gathered observational data; Conduct numerical experiments to understand responses to changing lightscapes and to unravel future pathways across European seas; Publish joint studies on the role of light in bottom-up and top-down control of ecosystem dynamics.
Content-related enquiries can be directed to
Prof. Dr. Kai Wirtz