Department of Civil Engineering & Management (CEM)

Automated Calibration of a Shoreline Model Using Satellite-Derived Shoreline Observations 35.26

Assignment number: 35.26

Start of the project: Early 2027

Required course(s): -

Required skills (optional):

  • Programming experience, preferably in Python, and willingness to work with an existing modelling codebase.
  • You have an interest in data-driven methods including machine learning applications.
  • You are interested in coastal morphology, numerical modelling and satellite-derived shoreliEarlne observations
  • You can manage an independent research cycle, critically assess results and communicate findings in clear English.
  • And finally: Being enthusiastic about satellite data and levering this to leave a positive sustainable impact on the world!

Recommended courses (optional): Mathematical Physics of Water Systems, Wave-dominated Coastal Dynamics, Short Waves & Long Waves & Tidal Morphodynamics, Morphology

Involved organisation: Haskoning

Short description and objective of the project:

Help develop a data-informed method for predicting shoreline evolution and informing nourishment design and coastal management decisions. As a graduation intern at Haskoning, you will combine satellite observations, shoreline modelling and machine learning in a workflow with direct engineering relevance. Coastal engineers increasingly use satellite-derived shoreline observations to analyse shoreline behaviour over large spatial and temporal scales. More specifically:

·         CoastSat: an open-source toolkit that extracts shoreline positions from satellite imagery and has become widely used for coastal monitoring and research.

·         ShorelineS: a physics-based coastline evolution model developed by Deltares that simulates shoreline change under varying wave and sediment transport conditions.

This thesis investigates how satellite-derived shoreline observations from CoastSat can be used to automatically calibrate ShorelineS. The objective is to develop a probabilistic, data-informed calibration workflow inspired by approaches such as CoSMoS-COAST, while extending the methodology to more complex environments with structures, nourishments, and other forms of human interference. To achieve this goal, you will:

·         Set up a ShorelineS model using nearshore wave conditions and initial coastline geometry.

·         Design and evaluate an automated calibration framework for ShorelineS using satellite-derived shoreline observations.

·         Evaluate parameter uncertainty, model skill and the implications for complex coastal areas with human interference such as structures or nourishments.

Head Graduation Committee:

To be determined (dr.ir. Jebbe J. van der Werf, dr.ir Pieter C. Roos or other)

Daily Supervisors:

Arend Timmer (Haskoning), supplemented with supervisor from UT t.b.d.

Are you interested in this assignment? Contact the Master thesis coordinator: