Abstract

Flow Based Market Coupling is the target model for determining exchange capacities in the internal European Electricity Market. It has been in operation in Central Western Europe since 2015 and is scheduled to be extended to the wider Core region in the near future. Exchange capacities have a significant impact on market prices, exchanges and the energy mix, thus also determining the CO{}_{2} footprint of electricity generation in the system. Stakeholders therefore need to develop an understanding for the impact of Flow Based Market Coupling and the parameter choice, like the minimum exchange capacities introduced in 2020, on the market outcome. This article presents a framework to model Flow Based Market Coupling and analyse the impact of different levels of regulatory induced minimum trading capacities as well as the effect of the extension towards the Core region. Electricity prices, exchange positions and the number and nature of binding constraints in the market results under different market coupling scenarios are investigated. The results show that increased level of minimum trading capacities in CWE market coupling decrease the German net export position by up to 7 TW h or 23%, while French exports increase by up to 10 TW h or 9%. The different transfer capacity in the scenarios induce a price difference of up to 13%. Increased exchange capacities allow for more base load generation with the corresponding effects for the CO{}_{2} emissions of the system. The nature of coupling constraints is highly dynamic and dependent on the system state, which makes the suitability of static NTC values in energy system scenarios questionable.

Highlights

  • Electricity wholesale prices are the basis for many analyses in energy economics, where cost of electricity impacts investment decisions in generation and demand technologies

  • Flow Based Market Coupling (FBMC) generally offers superior competition for scarce capacity compared to Net Transfer Capacities (NTC) market coupling

  • The developed framework is used to study the impact of different minimum transfer capacities for FBMC and compare its application in the Central Western Europe and the extended Core region, where FBMC is going to be introduced in the near future

Read more

Summary

Introduction

Electricity wholesale prices are the basis for many analyses in energy economics, where cost of electricity impacts investment decisions in generation and demand technologies. Market Coupling and the respective determination of available transfer capacities have a large impact on the outcome of electricity markets It allows for the efficient utilization of physical transport capacities and increases liquidity in markets ( Kraftwerke (2021)), impacting energy mix, fuel consumption and CO 2 emissions in the coupled market zones. The market coupling between price zones is based on bilateral exchange capacities, so-called Net Transfer Capacities (NTC), which are widely applied scenario-based energy system analyses. NTCs cannot account for the physical reality in meshed electricity networks, because they do not reflect how exchanges affect each other. This is due to the fact, that power flows follow the physical

Methods
Results
Conclusion
Full Text
Published version (Free)

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call