IOW Logo

Dr. rer. nat. Knut Klingbeil

Knut Klingbeil
Address:
Leibniz-Institute for Baltic Sea Research
Seestrasse 15
D-18119 Rostock
Germany
Phone:
+49 381 5197 153
Fax:
+49 381 5197 440
E-Mail:

My Working Group: ECOP

My Projects:
TRR181, MOSSCO, ILWAO

Research

I am a physicist working in the department of Physical Oceanography and Instrumentation. Within the cross-cutting activity "Modelling" I am the lead developer of the coastal ocean model GETM and co-developing the numerical models GOTM, FABM and MOSSCO which are the backbone for many studies at IOW and at international partner institutions. My research interests are consistent numerical techniques for coastal ocean models, the coupling between hydrodynamics and the environment (e.g. waves, atmosphere, ice, sediment) and accurate online model analyses. In the framework of the new priority research focus on Shallow water processes and Transitions to the Baltic scale (STB) a two-way nested coupled GETM system for future high-resolution ecosystem simulations will be developed at IOW.

Latest publication

  1. Klingbeil, K. and E. Henell (2023) A rigorous derivation of the Water Mass Transformation framework, the relation between mixing and dia-surface exchange flow, and links to recent theories in estuarine research. Journal of Physical Oceanography. JPO-D-23-0130 (accepted).
Read more …

Phd student supervision

  • Erika Henell
    Erika and me investigate the diahaline circulation in the Baltic Sea. By means of simulation results from a numerical model for the Baltic with a resolution of 1 nautical mile, we succesfully quantified how local salt mixing drives the diahaline exchange flow (Henell et al., submitted to JGR Oceans). As a prerequisite we extended the coastal ocean model GETM with various online diagnostics in salinity space. The theoretical foundation for these analyzes is given by the local Water Mass Transformation framework derived earlier by us (Klingbeil and Henell, submitted to JPO).
  • Tobias Bauer
    Tobias and me developed the two-way coupled model system ICONGETM (Bauer et al., 2021), consisting of the next-generation atmosphere model ICON and the coastal ocean model GETM. ICONGETM is built on latest NUOPC coupling technology, which facilitates a unified and automated driving of coupled model systems. ESMF exchange grids enable the efficient and conservative data exchange between the unstructured-grid model ICON and the structured-grid model GETM. A demonstration of the potential of ICONGETM for coupled high-resolution simulations to investigate air-sea feedback mechanisms was given for an upwelling event in the central Baltic Sea (Bauer et al., 2021).

Successful project applications

Reviewer activities

  • Ocean Modelling
  • Continental Shelf Research
  • Parallel Computing

Links to Elsevier journals are suppressed on purpose as long as Elsevier does not agree to a fair open access policy (see DEAL for more information).