V. V. S. N. Murty, Ashwani Kumar. Multi-objective energy management inmicrogrids with hybrid energy sources andbattery energy storage systems[J]. Protection and Control of Modern Power Systems, 2020, 5(1).
DOI:
V. V. S. N. Murty, Ashwani Kumar. Multi-objective energy management inmicrogrids with hybrid energy sources andbattery energy storage systems[J]. Protection and Control of Modern Power Systems, 2020, 5(1).DOI: 10.1186/s41601-019-0147-z.
Multi-objective energy management inmicrogrids with hybrid energy sources andbattery energy storage systems
Microgrid with hybrid renewable energy sources is a promising solution where the distribution network expansion is unfeasible or not economical. Integration of renewable energy sources provides energy security
substantial cost savings and reduction in greenhouse gas emissions
enabling nation to meet emission targets. Microgrid energy management is a challenging task for microgrid operator (MGO) for optimal energy utilization in microgrid with penetration of renewable energy sources
energy storage devices and demand response. In this paper
optimal energy dispatch strategy is established for grid connected and standalone microgrids integrated with photovoltaic (PV)
wind turbine (WT)
fuel cell (FC)
micro turbine (MT)
diesel generator (DG) and battery energy storage system (ESS). Techno-economic benefits are demonstrated for the hybrid power system. So far
microgrid energy management problem has been addressed with the aim of minimizing operating cost only. However
the issues of power losses and environment i.e.
emission-related objectives need to be addressed for effective energy management of microgrid system. In this paper
microgrid energy management (MGEM) is formulated as mixedinteger linear programming and a new multi-objective solution is proposed for MGEM along with demand response program. Demand response is included in the optimization problem to demonstrate it’s impact on optimal energy dispatch and techno-commercial benefits. Fuzzy interface has been developed for optimal scheduling of ESS. Simulation results are obtained for the optimal capacity of PV
WT
DG
MT
FC
converter
BES
charging/discharging scheduling
state of charge of battery
power exchange with grid
annual net present cost
cost of energy
initial cost
operational cost
fuel cost and penalty of greenhouse gases emissions. The results show that CO2 emissions in standalone hybrid microgrid system is reduced by 51.60% compared to traditional system with grid only. Simulation results obtained with the proposed method is compared with various evolutionary algorithms to verify it’s effectiveness.
Abstract
Microgrid with hybrid renewable energy sources is a promising solution where the distribution network expansion is unfeasible or not economical. Integration of renewable energy sources provides energy security
substantial cost savings and reduction in greenhouse gas emissions
enabling nation to meet emission targets. Microgrid energy management is a challenging task for microgrid operator (MGO) for optimal energy utilization in microgrid with penetration of renewable energy sources
energy storage devices and demand response. In this paper
optimal energy dispatch strategy is established for grid connected and standalone microgrids integrated with photovoltaic (PV)
wind turbine (WT)
fuel cell (FC)
micro turbine (MT)
diesel generator (DG) and battery energy storage system (ESS). Techno-economic benefits are demonstrated for the hybrid power system. So far
microgrid energy management problem has been addressed with the aim of minimizing operating cost only. However
the issues of power losses and environment i.e.
emission-related objectives need to be addressed for effective energy management of microgrid system. In this paper
microgrid energy management (MGEM) is formulated as mixedinteger linear programming and a new multi-objective solution is proposed for MGEM along with demand response program. Demand response is included in the optimization problem to demonstrate it’s impact on optimal energy dispatch and techno-commercial benefits. Fuzzy interface has been developed for optimal scheduling of ESS. Simulation results are obtained for the optimal capacity of PV
WT
DG
MT
FC
converter
BES
charging/discharging scheduling
state of charge of battery
power exchange with grid
annual net present cost
cost of energy
initial cost
operational cost
fuel cost and penalty of greenhouse gases emissions. The results show that CO2 emissions in standalone hybrid microgrid system is reduced by 51.60% compared to traditional system with grid only. Simulation results obtained with the proposed method is compared with various evolutionary algorithms to verify it’s effectiveness.