The rapid proliferation of distributed energy resources such as photovoltaic systems, wind turbines, battery energy storage systems, and electric vehicles has transformed residential microgrids into active, transactive energy communities. However, realizing fair, efficient, and scalable peer-to-peer energy sharing under stochastic household demand, dynamic pricing, and network constraints remains a major challenge. This study develops a hybrid centralized-decentralized peer-to-peer energy-sharing framework that models heterogeneous household prosumers five distinct types equipped with photovoltaic, wind turbine, battery energy storage, and electric vehicles within a demand-supply environment. The model integrates a home energy management system with dynamic pricing derived from the balance between Feed-in Tariff and Real-Time Pricing, augmented by congestion and degradation costs to ensure market fairness. A heuristic battery control algorithm and a two-level robust optimization based on the MILP and column-and-constraint generation method are implemented to coordinate energy exchanges between prosumers and the grid. Electric vehicles are treated as active market agents capable of bidirectional energy trading to enhance grid flexibility. Case studies involving 30, 120, and 240 households simulated using MATLAB to compare three operational scenarios without P2P trading, hybrid centralized-decentralized peer to peer trading, and large-scale community participation. The findings indicate that the proposed framework increases household self-consumption rates by 64.22 %, decreases grid energy imports by 52.5 %, and elevates prosumer revenue by 41.6 %, while preserving network stability and fairness. Hybrid market structure efficiently reduces peak energy costs, ensures strong local balance, and offers scalable basis for resilient, consumer-driven energy communities.
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