In pursuit of co-creating future climate-neutral and sustainable cities, this study proposes a welfare-aware, interactive, and synergistic framework for scheduling and economic energy dispatch optimization in renewables-rich virtual energy communities, enhanced by carbon capture, utilization, and storage technologies. The model integrates carbon capture systems and x-to-x technologies into a near-zero carbon footprint-conscious operational structure, while dynamically participating in dual eco-friendly market mechanisms: carbon emission trading and green certificate trading. A six-layer architecture is developed to systematically integrate technical, economic, environmental, and welfare dimensions. The optimization is formulated as a dual-objective problem, maximizing profit and minimizing CO₂ emissions, and transformed into a single-objective formulation using an entropy-based weighting approach. Four scenario-based case studies evaluate performance under diverse carbon policies. Results demonstrate an over 29% reduction in CO₂ emissions and a >9% profit improvement under optimized dispatch, confirming robustness across fluctuating market conditions and parameter uncertainties. Moreover, a digital-social welfare assessment layer is incorporated to enhance energy equity, digital inclusion, and citizen engagement. The proposed framework provides a practical, multidimensional decision-support tool for sustainable energy planning, aligning with the long-term visions of climate-neutral and socially inclusive sustainable cities as envisioned by society stakeholders.
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