Table 4 Typical design and operation cases of integrated energy systems
Project | Year | System types | Energy forms | Key technologies |
|---|---|---|---|---|
Germany (EUREF-Campus)289 | 2023 | 5.5-ha urban quarter with over 150 enterprises | Electricity (solar, wind), heat (geothermal, waste heat), biomethane, cooling | Comprehensive smart energy management system for centralized and precise energy control |
Chile (Aysén SMA)290 | 2023 | Isolated regional electricity systems in the developing world | Electricity (diesel generation, hydro, wind), heat, hydrogen, firewood | Stochastic planning to capture uncertainty for decarbonization and environmental remediation |
China (Muse-Ruili Industrial Park)291 | 2023 | A cross-border China–Myanmar industrial park with abundant renewable resources | Electricity (solar, wind, hydro), heat (geothermal, steam), cooling, gas | Steam Carnot battery designed to enhance electro-thermal complementarity and meet industrial energy needs |
America (Arizona Community)292 | 2024 | Smart district with renewable energy and carbon capture technology | Electricity (solar, wind), cooling, heat, gas | Integration of modular energy management, incorporating AI-based time-series prediction and autonomous scheduling |
Netherlands (Leeuwarden)293 | 2025 | Regional business and shopping park | Electricity (solar, wind), heat (waste heat), gas | Incorporating energy planning into urban development with a dedicated network of public and private stakeholders |
Australia (Offshore Renewable Energy Zone)294 | 2025 | Offshore energy systems for industrial, transportation, and residential usage | Electricity (solar, wind), hydrogen | Large-scale battery energy storage systems and smart power management strategy |