Simulating the impact of investment preference on low-carbon transition in power sector
Authored by Can Wang, Huadong Chen, Wenjia Cai, Jianhui Wang
Date Published: 2018
DOI: 10.1016/j.apenergy.2018.02.152
Sponsors:
Chinese National Natural Science Foundation
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Model Documentation:
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Abstract
With the deepening marketization of the electric power industry in
China, its low-carbon transition relies increasingly on enterprise
investment decisions. These decisions can be influenced by the risk
preferences and technical preferences of the enterprises, thus deviating
traditional estimation with respect to both economic optimization and
uncertainty. To evaluate the impacts of investment preferences on the
development path of the power sector, we developed an agent-based model
combined with Monte Carlo simulation to quantitatively capture the risk
preferences and adaptive technical preferences of power enterprises in
their decision-making process. Two scenarios were established with and
without risk preferences and adaptive technical preferences,
respectively. The results indicate that both the risk aversion and the
adaptive technical preference of power generation enterprises play
significant roles in promoting the low-carbon transition of the power
sector and that they exhibit a synergistic effect. In addition, the risk
aversion of power generation enterprises increases the stability of
transition in the power sector. However, these two preferences lead to
income loss and additional subsidy burden in the power sector. The
preferences of power generation enterprises should be recognized and
considered in the design and evaluation of low-carbon policies in
China's power sector.
Tags
Agent-based model
China
Policy
Risk
Electricity
Generation
Risk preference
Adaptive technical preference
Long-term low-carbon
transition
China's power sector
Multiregion optimization model
Real-options
Resource assessment
Solar
power
Uncertainties