An efficient interactive framework for improving resilience of power-water distribution systems with multiple privately-owned microgrids

Najafi, Javad; Peiravi, Ali; Anvari‐Moghaddam, Amjad

doi:10.1016/j.ijepes.2019.105550

Cited by 59 publications

(20 citation statements)

References 32 publications

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“…In distribution networks, overhead distribution lines (conductors) and poles can be damaged by hurricanes. The fragility function of conductors and poles is given as follows [30][31][32]:…”

Section: Line Damage Scenarios Generationmentioning

confidence: 99%

A Stochastic Planning Model for Improving Resilience of Distribution System Considering Master-Slave Distributed Generators and Network Reconfiguration

et al. 2021

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The recent experiences of extreme weather events highlight the significance of boosting the resilience of distribution systems. In this situation, the resilience of distribution systems planning leads to an efficient solution for protecting the system from these events via line hardening and the installation of distributed generators (DGs). For this aim, this study presents a new two-stage stochastic mixed-integer linear programming model (SMILP) to hedge against natural disaster uncertainty. The first stage involves making investment decisions about line hardening and DG installation. Then, in the second stage, the dynamic microgrids are created according to a master-slave concept with the ability of integrating distributed generators to minimize the cost of loss of load in each uncertain outage scenario. In particular, this paper presents an approach to select the line damage scenarios for the SMILP. In addition, the operational strategies such as load control capability, microgrid formation and network reconfiguration are integrated into the distribution system plans for resilience improvement in both planning and emergency response steps. The simulation results for an IEEE 33-bus test system demonstrate the effectiveness of the proposed model in improving disaster-induced the resilience of distribution systems.

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“…In distribution networks, overhead distribution lines (conductors) and poles can be damaged by hurricanes. The fragility function of conductors and poles is given as follows [30][31][32]:…”

Section: Line Damage Scenarios Generationmentioning

confidence: 99%

A Stochastic Planning Model for Improving Resilience of Distribution System Considering Master-Slave Distributed Generators and Network Reconfiguration

et al. 2021

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“…This subsection summarises the application of multi‐objective optimal planning in multi‐energy hybrid systems. The planning problem of energy systems is more complexed when the interactions among various energy systems are considered [146, 147]. Multi‐energy system is a combination of various forms of energies such as electricity, gas, water, thermal etc.…”

Section: Multi‐objective Optimisation Of Hybrid Standalone/grid‐connementioning

confidence: 99%

Review on the state‐of‐the‐art multi‐objective optimisation of hybrid standalone/grid‐connected energy systems

Khezri

Mahmoudi

2020

IET Generation, Transmission & Distribution

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“…There are many energy linkages and interactions in integrated energy systems. An effective interactive framework can greatly enhance resilience to natural disasters [71]. Then, in the operation of the system, it is necessary to plan and dispatch all kinds of energy, so that the future energy system technology will be more mature, the structure will be clearer, and the resilience of the system will be improved [72].…”

Section: Application Of Game Theory In Planning and Dispatching Omentioning

confidence: 99%

Application of Game Theory in Integrated Energy System Systems: A Review

Li³

et al. 2020

IEEE Access

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With the rapid development of society, global energy is in short supply. China has put forward an integrated energy system focusing on interconnecting energy resources and harnessing their complementary advantages to address the energy crisis, thus no longer pursuing the production, transportation and supply of a single source of energy. In the continuous development of integrated energy systems, the elements of participation and interaction are becoming more complex. Game theory, which can effectively solve the problems arising from multi-agent trading, is naturally introduced to the integrated energy system. This paper provides a comprehensive overview of the introduction of game theory into the integrated energy system. First, the development of integrated energy is briefly introduced, game scenarios in integrated energy systems is proposed, and game scenarios considering the energy supply side, distribution network, demand side and common planning and dispatching problems in integrated energy systems are summarized. Secondly, main game theory models in the integrated energy system are summarized, such as cooperative game theory model, the non-cooperative game theory model and the Stackelberg game theory model. Finally, the future prospect and challenge for the application of game theory in integrated energy systems is proposed. The new game models are introduced to the integrated energy system, and a mixed game is considered to solve related problems. It is hoped that this work can serve as a reference for the researchers in this field. INDEX TERMS Integrated energy system, game theory, energy management, demand response.

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An efficient interactive framework for improving resilience of power-water distribution systems with multiple privately-owned microgrids

Cited by 59 publications

References 32 publications

A Stochastic Planning Model for Improving Resilience of Distribution System Considering Master-Slave Distributed Generators and Network Reconfiguration

A Stochastic Planning Model for Improving Resilience of Distribution System Considering Master-Slave Distributed Generators and Network Reconfiguration

Review on the state‐of‐the‐art multi‐objective optimisation of hybrid standalone/grid‐connected energy systems

Application of Game Theory in Integrated Energy System Systems: A Review

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