This work presents a practical roadmap for developing PEDs, emphasizing the strategic integration of Building Integrated Photovoltaics (BIPV). A case study in Žižkov-Prague demonstrated the proposed methodology. The study integrates architectural design and energy analysis within a simulation environment, optimizing BIPV positioning. The results revealed that BIPV can potentially fulfill 50% of the energy demand on its own. Furthermore, we explore how PEDs can function as microgrids, tapping into surplus energy for grid services. We dissect loadfollowing, peak-shaving, and smart control strategies, which optimize energy utilization and boost economic gains. Our findings underscore the pivotal role of energy storage capacity and real-time pricing considerations. In the realm of architecture, we bridge the gap between energy performance and aesthetics, offering two design approaches that show how solar modules can blend seamlessly into architectural structures while covering up to 80% of energy needs. This study underscores the immense potential of PEDs with BIPV integration in shaping sustainable, resilient, and economically viable urban spaces, contributing to a greener future and climate neutrality objectives. Keywords: Building-integrated Photovoltaics, Positive Energy Districts, microgrids
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