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AI Smart Building Technology Could Save 1,600 Terawatt-Hours of Electricity by 2050, Exceeding Global Data Center Demand

The International Energy Agency and Lawrence Berkeley National Laboratory report that widespread adoption of AI smart building technology could reduce global building energy consumption by 19% by 2050, saving electricity on a scale exceeding the total power demand of global data centers in 2025 and offering a breakthrough opportunity for energy transition.

Editorial Team7/22/2026Updated 7/22/2026

AI Smart Building Technology Emerges as Key to Carbon Reduction

Global building operations waste approximately 2,800 terawatt-hours of electricity annually, equivalent to 10% of the world's projected total electricity consumption in 2025. A recent study by Lawrence Berkeley National Laboratory (LBNL) reveals that fully deploying AI smart management technology in commercial and residential buildings could reduce global energy use and carbon emissions by 19% by 2050, saving around 1,600 terawatt-hours of electricity. This figure not only surpasses Gartner’s estimate of 448 terawatt-hours for global data center electricity consumption in 2025 but also highlights the vast potential of AI technology in building energy efficiency.

The International Energy Agency (IEA) notes that global electricity demand grew at an above-average rate in 2024, with the expansion of AI infrastructure as one of the key drivers of rising consumption. However, building operations remain the largest energy-consuming sector globally, projected to account for 30% of the world’s total electricity use in 2025, or approximately 8,400 terawatt-hours. Research further reveals that nearly one-third of this energy is wasted during use, primarily due to inefficiencies in air conditioning, lighting, and equipment management.

How AI Technology Enables Building Energy Efficiency

AI smart building technology leverages real-time monitoring and predictive algorithms to precisely control energy use within buildings. By integrating sensors and machine learning models, the system can automatically adjust air conditioning temperatures, lighting brightness, and elevator operation modes based on foot traffic, weather conditions, and electricity price fluctuations, avoiding unnecessary energy consumption. The LBNL research team estimates that if this technology were adopted globally, the energy savings by 2050 would be equivalent to shutting down 400 coal-fired power plants or reducing carbon dioxide emissions by 1 billion tons.

For example, Google implemented an AI energy-saving system in its data centers, successfully reducing cooling energy consumption by 30%. The technology optimizes cooling equipment operation by analyzing historical data and real-time environmental parameters, achieving significant energy savings. However, compared to the billions of buildings worldwide, the current adoption of AI smart technology remains limited.

The Dual Impact of AI: Energy Consumption and Conservation

The development of AI technology presents a dual effect of both increasing energy consumption and enabling conservation. Gartner predicts that global data center electricity consumption will reach 448 terawatt-hours by 2025, with AI-related infrastructure accounting for a growing share. However, LBNL’s research indicates that the potential of AI in building energy efficiency far exceeds its electricity demand. Even if only 30% of buildings adopt AI smart technology, the potential savings of 480 terawatt-hours would be sufficient to offset the total electricity consumption of global data centers in 2025.

Experts point out that AI’s role in the energy sector is facing a “Green AI Paradox”: while it drives up electricity demand, it also serves as a powerful tool for large-scale energy waste reduction. The LBNL research team emphasizes that realizing AI’s energy-saving potential requires overcoming multiple challenges, including difficulties in integrating AI with outdated equipment in existing buildings, high initial retrofit costs, and the lack of unified software standards and intellectual property frameworks.

Industry-Government-Academia Collaboration as a Key Driver

The research team notes that AI technology is merely a tool, and a true energy transition revolution requires collaboration among industry, government, and academia. The slow progress in global building energy efficiency is primarily due to insufficient cross-sector cooperation and policy support. Experts recommend that governments accelerate the establishment of building energy efficiency standards and provide subsidies or tax incentives to encourage property owners to adopt AI smart technology. Meanwhile, the tech industry must develop more cost-effective solutions to lower the barriers for small and medium-sized buildings.

The LBNL research team states that if technical and policy barriers can be overcome, AI smart building technology could become a key driver in achieving carbon neutrality goals. According to their estimates, the energy savings from widespread adoption could not only offset the electricity consumption of AI infrastructure but also achieve net energy savings, bringing breakthrough progress to the global energy transition.

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