Abstract

This paper investigates three models to implement Tradable Green Certificates (TGC) system with aid of game theory approach. In particular, the competition between thermal and renewable power plants is formulated in three models: namely cooperative, Nash and Stackelberg game models. The price of TGC is assumed to be determined by the legislative body (government) which is fixed. Numerical examples presented in this paper include sensitivity analysis of some key parameters and comparison of the results of different models. In all three game models, the parameters that influence pricing of the TGC based on the optimal amounts are obtained. The numerical examples demonstrate that in all models: there is a reverse relation between the price of electricity and the TGC price, as well as a direct relation between the price of electricity and the share of green electricity in total electricity generation. It is found that Stackelberg model is an appropriate structure to implement the TGC system. In this model, the supply of electricity and the production of green electricity are at the highest level, while the price of electricity is at the lowest levels. In addition, payoff of the thermal power plant is at the highest levels in the Nash model. Hence this model can be an applicatory structure for implementation of the TGC system in developing countries, where the number of thermal power plants is significantly greater than the number of renewable power plants.

Highlights

  • This paper investigates three models to implement Tradable Green Certificates (TGC) system with aid of game theory approach

  • The supply of electricity and the production of green electricity are at the highest level, while the price of electricity is at the lowest levels

  • This paper considers the problem of interaction between the thermal and renewable power plants under TGC system conditions

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Summary

Literature review

TGC are financial assets provided for green electricity producers for the amount of green electricity measured and fed into the electricity grid. Zhou and Tamas (2010) investigated the influences of integrating the production of green and thermal electricity on performance of the TGC system They assumed that both the electricity and the certificate markets are imperfect. We adopted profit functions proposed by Currier and Sun (2014), and considering relation between wholesale price and end-user price of electricity explained by Amundsen and Bergman (2012) In their model, producer of green electricity can sell both electricity generated on the electricity market as well as certificates on separate market. Proposition 2 If detðHÞ [ 0, the optimal amounts for production of the green and thermal power plants in the cooperative game model will be: qÃR1⁄2CŠ. Considering that aim of the TGC system is supporting than increasing pÃR1⁄2CŠ 1⁄4

D À b2 b þ aaRÞ þ bðB þ bR À cÞ þ aTCÞ D À b2 þ À
Findings
Conclusion
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