Table 4 Typical design and operation cases of integrated energy systems

From: A review of smart integrated energy systems towards industrial carbon neutrality: Opportunity and challenge

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