University of Groningen
Modelling, simulation and analysis of security of supply scenarios in integrated gas and
electricity transmission networks
Pambour, Kwabena Addo
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Publication date: 2018
Link to publication in University of Groningen/UMCG research database
Citation for published version (APA):
Pambour, K. A. (2018). Modelling, simulation and analysis of security of supply scenarios in integrated gas and electricity transmission networks. University of Groningen.
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Propositions belonging to the dissertation
Modelling, simulation and analysis of security of supply scenarios in
integrated gas and electricity transmission networks
by Kwabena Addo Pambour
17 September 2018
1. Steady state gas network models are inappropriate for quantifying the impact of disruptions on security gas supply. (this dissertation)
2. To capture the bi-directional interdependence between gas and electricity networks appropriately requires the use of combined simulation models that solve the physical and coupling equations simultaneously. (this dissertation) 3. Analysing coupled gas and electricity networks in an integrated manner helps
detect potential threats to security of supply. (this dissertation)
4. Security of supply parameters, such as energy not supplied, percentage of energy not supplied, and survival time are helpful to quantify and compare the impact of disruptions on security of energy supply. (this dissertation)
5. The transition to a low carbon energy system cannot be achieved without natural gas as the main back-up fuel for variable renewable energy sources.
6. The coupling between gas, electricity and heat networks will increase as more variable renewable energy sources are integrated into the electric power system. 7. Power to Gas and Power to Heat are key technologies for meeting the growing
demand for flexibility and energy storage in the electric power system. 8. The probability to complete an external PhD thesis is much lower than the
probability to complete an internal PhD thesis funded by the university
These propositions are considered opposable and defendable and as such have been approved by the supervisor, Prof. R. Herber.