China Activates Twin 1,000 MW Renewable Energy Projects in Inner Mongolia
Published · Updated · 4 min read
Two major renewable energy projects began commercial operations on February 9 in Chifeng, Inner Mongolia, marking a significant advance in China’s clean energy transition and desert control efforts.
The projects include a 1,000 MW wind-solar-storage desert-control demonstration base and a 1,000 MW wind power ecological governance project. Both facilities combine clean electricity generation with environmental restoration in one of China’s most challenging landscapes.
Merging Energy Production with Desert Control
The wind-solar-storage demonstration project represents a new approach to renewable development in desert regions. The facility integrates solar panels, wind turbines, and battery storage into a single system designed to produce reliable electricity despite unpredictable weather conditions.
The storage component allows the facility to save excess energy during high production periods and release it during peak demand or when wind and sun are insufficient. This capability addresses one of the biggest challenges facing renewable energy: maintaining stable power supply when weather conditions change.
The timing aligns with China’s shift toward grid integration and energy storage deployment, rather than simply building more generation capacity. These elements are essential to ensure renewable investments translate into reliable electricity supply.
Wind Farms as Environmental Restoration Tools
The companion wind power project explicitly links energy production with ecological governance. Inner Mongolia has long struggled with desertification, a problem affecting nearly eighteen percent of China’s total landmass.
Wind farm operations in desert areas require extensive site preparation and ongoing maintenance. Companies install protective barriers and manage sand accumulation on equipment. These necessary activities help stabilize sand dunes and prevent wind-driven erosion.
The approach reflects a growing understanding that energy infrastructure and environmental restoration can reinforce each other rather than compete. By tying renewable investment to measurable land restoration outcomes, the projects create financial incentives for environmental work that previously relied primarily on government subsidies.
Record-Breaking National Expansion
The Chifeng projects operate within the context of extraordinary growth in China’s renewable sector. In 2025, the country installed over 430 million kilowatts of new solar and wind capacity, a twenty-two percent increase year-on-year.
More significantly, cumulative wind and solar capacity reached 1.84 billion kilowatts, accounting for 47.3 percent of total installed power capacity. This marked the first time renewable sources surpassed thermal power in China’s modern history.
China’s installed wind power capacity alone exceeded 600 million kilowatts by November 2025. The nation has maintained its position as global leader in wind power capacity for fifteen consecutive years.
Inner Mongolia accounts for approximately sixteen percent of China’s total installed wind capacity, the largest share among all provinces.
Ambitious Targets Drive Future Development
The national government has set aggressive targets for the coming years. During the 15th Five-Year Plan period covering 2026 to 2030, China aims to add at least 120 gigawatts of new wind capacity annually—double the amount installed between 2020 and 2024.
The country targets 1,300 GW of total wind capacity by 2030 and 1,500 GW of solar capacity, supporting its long-term objective of carbon neutrality before 2060.
Massive Grid Investment Supports Expansion
The State Grid Corporation of China plans to invest 4 trillion yuan (approximately $574 billion) in fixed assets during the 15th Five-Year Plan period, a 40 percent increase from the previous cycle. Much of this capital will support ultra-high-voltage transmission lines carrying renewable energy from western regions to major population centers in the east.
Energy storage deployment has become critical infrastructure. China installed a record 315 gigawatt-hours of battery energy storage capacity in 2025, with December alone accounting for 65 gigawatt-hours—exceeding the total amount the United States deployed over the entire year.
These storage systems help address curtailment, where renewable energy is generated but cannot be used due to transmission bottlenecks or supply-demand mismatches.
Regional Energy Transformation
For Inner Mongolia, the Chifeng projects contribute to broader regional goals. The province has set targets to export one-third of its total electricity generation outside the region by 2025, rising to another third by 2030.
These export targets position the province as a critical energy supplier to major consumption centers in North China, including Beijing and the Tianjin-Hebei industrial region.
The projects also support China’s decades-long “west-to-east power transmission” strategy. West-to-east transmission capacity reached 340 gigawatts by the end of 2025, meeting approximately twenty-three percent of the nation’s peak demand. The State Grid aims to expand this capacity to over 420 gigawatts by 2030.
What Comes Next
The government has shifted policy focus from generation to utilization, mandating that renewable energy consumption reach 1 billion tons of standard coal equivalent annually by 2025. This addresses concerns that China was building renewable capacity faster than it could effectively integrate and use that electricity.
With the 15th Five-Year Plan now taking concrete form across provinces, the pace of new renewable project commissions is expected to accelerate. The next several years will likely see continued announcements of major renewable facilities, transmission infrastructure upgrades, and energy storage deployments.
The successful commissioning of the Chifeng projects demonstrates that Chinese companies have developed practical solutions for integrating wind, solar, and storage technologies while simultaneously addressing regional environmental challenges.
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