Department of the Built Environment
PhD defence by Jacob Andersen
Department of the Built Environment
Aalborg University
Auditorium C.004 (AAU-INNOVATE)
Thomas Manns Vej 25
9220 Aalborg East
or
Virtuel by Zoom
29.11.2023 Kl. 10:00 - 13:00
English
Hybrid
Department of the Built Environment
Aalborg University
Auditorium C.004 (AAU-INNOVATE)
Thomas Manns Vej 25
9220 Aalborg East
or
Virtuel by Zoom
29.11.2023 Kl. 10:00 - 13:0029.11.2023 Kl. 10:00 - 13:00
English
Hybrid
Department of the Built Environment
PhD defence by Jacob Andersen
Department of the Built Environment
Aalborg University
Auditorium C.004 (AAU-INNOVATE)
Thomas Manns Vej 25
9220 Aalborg East
or
Virtuel by Zoom
29.11.2023 Kl. 10:00 - 13:00
English
Hybrid
Department of the Built Environment
Aalborg University
Auditorium C.004 (AAU-INNOVATE)
Thomas Manns Vej 25
9220 Aalborg East
or
Virtuel by Zoom
29.11.2023 Kl. 10:00 - 13:0029.11.2023 Kl. 10:00 - 13:00
English
Hybrid
Programme
During the break, participants can email questions to the moderator or contact him or her personally in room. The moderator presents any questions received after the Q&A session with the assessment committee.
The assessment committee enters another room, evaluates, and writes the final assessment.
Moderator for the defence
Associate Professor Peter Frigaard, Dept. of the Built Environment, Aalborg University, pf@build.aau.dk.
How to participate online
If you are not joining the defence on location, you can join us at:
Zoom
https://aaudk.zoom.us/j/69420599473
Meeting ID: 694 2059 9473
Passcode: 213065
Thesis title
Hydrodynamic Modelling of Offshore Renewables: Experimental Benchmark Datasets and Numerical Simulation.
Summary of the thesis
The transition from fossil fuels to renewable energy sources is critical to reduce greenhouse gas emissions and increase global energy access and security. To harness the abundant renewable energy resources from and at the ocean, the European Union has set ambitious targets to increase its installed capacity of offshore renewable energy technologies by 2050. To reach these targets, the levelized cost of energy of emerging offshore renewables must be reduced in which accurate and efficient hydrodynamic models are paramount.
The dissertation revolves around the hydrodynamic modelling of offshore renewables with emphasis on offshore wind turbines (bottom-fixed and floating) and wave energy converters. The dissertation presents validation experiments dedicated to the construction of public experimental benchmark datasets as well as numerical studies aimed at improving the understanding of the governing hydrodynamics and suitability of different hydrodynamic models for selected flow problems. Furthermore, the dissertation accounts for hydrodynamic investigations of the early designs of a perforated monopile and the wave-activated body of a wave energy converter.
Copy of thesis
For a copy of the thesis, please email inst.build.phd@build.aau.dk.
Assessment committee
- Associate Professor Jannie Sønderkær Nielsen, Dept. of the Built Environment, Aalborg University (chairperson)
- Professor Peter Troch, Ghent University, Belgium
- Associate Professor Luca Martinelli, University of Padova, Italy
PhD supervisors
- PhD supervisor, Assoc. Prof. Morten Bech Kramer, Dept. of the Built Environment, Aalborg University
- PhD co-supervisor, Assoc. Prof. Claes Eskilsson, Dept. of the Built Environment, Aalborg University
Graduate programme
- Civil Engineering