Dynamic Modelling of Carbon Energy Flow in Grid-connected Combined Cooling, Heating and Electricity Generation Energy Station and Optimization of Low-carbon Interaction Between Station and Network
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Dynamic Modelling of Carbon Energy Flow in Grid-connected Combined Cooling, Heating and Electricity Generation Energy Station and Optimization of Low-carbon Interaction Between Station and Network
Chinese Journal of Power EngineeringVol. 45, Issue 12, Pages: 2151-2161(2025)
Dynamic Modelling of Carbon Energy Flow in Grid-connected Combined Cooling, Heating and Electricity Generation Energy Station and Optimization of Low-carbon Interaction Between Station and Network
In response to the unclear topology of energy supply network within energy station
the complexity of multi-energy and carbon energy interrelationships
as well as the insufficient modeling of carbon-electric coupling in the interaction process of station network
by fully considering the dynamic impact of charging and discharging process of energy storage equipment on distribution of carbon flow in supply network
a dynamic modeling method for carbon energy flow in grid-connected energy stations with CCHP combined energy supply was proposed. Based on this
a low-carbon interactive optimization model for the power grid was constructed by considering the impact of time-of-use electricity pricing and the internal dynamic carbon potential of the system on energy conservation and carbon reduction of the system. Results show that the energy supply network topology of the grid-connected combined heat
power and cooling energy station presents a star-like structure
and the dynamic charging and discharging process of the energy storage equipment has a significant impact on the carbon flow distribution of the energy supply network. Furthermore
the proposed low-carbon interactive optimization model can reduce the operating costs of energy stations by 3.9% and carbon emissions by 4.4%
while also supporting the power supply and demand balance and low-carbon development of distribution network.
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