Skip to main content
Created by potrace 1.11, written by Peter Selinger 2001-2013
NO
Search oslomet.no
  • About OsloMet
  • Study at OsloMet
  • Our research
  • Work for us
  • Alumni
  • University Library
  • Contact us
  1. OsloMet
  2. ...Intermediate levels are hidden
  3. Public defences
  4. Public defence: Siri Sofie Eide
!

This public defense has already taken place.

Public defence: Siri Sofie Eide

Siri Sofie Eide defended her thesis “Exploring Complexity in Meteorological Data: Enhancing Weather Forecasts Through Deep Learning-Based Post-Processing” for the PhD in Engineering Science.

Date
10. oktober 2024
Organizer
  • Faculty of Technology, Art and Design (TKD)
Type
Previous public defences

OSLO METROPOLITAN UNIVERSITY
STORBYUNIVERSITETET

Postboks 4, St. Olavs plass
0130 Oslo
Tlf.: 67 23 50 00

Contact us

  • Facebook
  • LinkedIn
  • Instagram
  • Norwegian
  • Accessibility statement
  • Cookies policy
  • Employee directory
  • Employee website
  • Student website
  • Upcoming events
  • Work for us

Trial lecture: "Data assimilation approaches for numerical weather prediction. A review of classic and currently used approaches for ensemble data assimilation in numerical weather prediction."

Ordinary opponents: 

  • First opponent: Professor Thordis Linda Thorarinsdottir, University of Oslo
  • Second opponent: Professor Wen-Huang Cheng, National Taiwan University
  • The chair of the committee: Professor Sølve Selstø, OsloMet

Leader of the public defence: Associate Professor Boning Feng, OsloMet

Main supervisor: Professor Michael Riegler, OsloMet/SimulaMet

Co-supervisors: 

  • Professor Hugo Hammer, OsloMet/SimulaMet
  • Professor John Bjørnar Bremnes, The Norwegian Meteorological Institute

Abstract

This thesis seeks to improve weather forecasting, by investigating the question: How can we best exploit the potential that lies in the complex nature of meteorological data, using Deep Learning? The work explores different levels of complexity of deep neural networks, the benefits of combining heterogeneous input data in a multimodal neural network, and the value of providing ensembles of weather forecasts to a neural network, all with a view to identify the best ways of extracting the potential within the data. 

Through the development of two novel deep learning model architectures, the thesis finds that the combination of data sources in a multimodal network provides great value beyond the use of a single data source; increasing the complexity of the networks does not necessarily translate into improved performance; and the use of ensemble data shows promise, and ought to be explored further in future work.