The United States has made significant progress in producing its own energy storage systems, with batteries accounting for 28 percent of new power plant capacity this year. President Joe Biden's Inflation Reduction Act has incentivized domestic battery production, leading to self-sufficiency in grid battery enclosures and cells. By the end of 2025, the US is projected to have the capacity to produce 145 gigawatt-hours of finished grid storage systems annually. The industry now faces the challenge of potentially exporting surplus batteries to maintain manufacturing potential. LG Energy Solution Vertech is leading the rapid growth in grid-battery manufacturing, with plans to increase cell production capacity to 50 gigawatt-hours across North America this year. The Department of Energy is investing $500 million in funding to strengthen battery supply chains domestically, emphasizing the importance of a resilient and responsive supply chain for delivering power quickly. U.S. manufacturing can improve delivery certainty and shorten project timelines, with industrial reshoring seen as a way to protect against geopolitical uncertainties and disruptions caused by the White House. A local supply chain helps protect against U.S.-led disruptions in the global trade.
Tag: the United States
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The US Is Sitting On 161 Gigawatts Of Wind Farm Capacity
Repowering older wind farms in the US with new, more efficient turbines could add an additional 161 gigawatts in capacity without requiring additional land. This process involves replacing outdated equipment with new rotors, blades, and taller turbine towers to increase capacity, reduce operating expenses, neighbor complaints, and wildlife impacts, while freeing up land for other purposes. Wind repowering is highlighted as a key strategy to accelerate the transition to sustainable energy in the United States, with the potential to more than double the capacity of existing wind farms by 2024. The importance of repowering projects in addressing societal factors, regulation, and development principles is noted, emphasizing the need for a negotiated process between communities and developers to unlock the full potential of wind energy. Trump's policies are mentioned but wind energy continues to grow and play a key role in the nation's energy mix, with utility-scale solar and storage leading the way in capacity additions for 2026.
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BrightDrop Died in America, While China Made Electric Vans Normal
China has pulled ahead in the electric van market due to several key factors, including favorable duty cycles, affordable pricing, and supportive policies. The country has successfully integrated electric vans into urban logistics, with high market penetration rates, highlighting the importance of creating conditions for electric vehicles to succeed at scale in the logistics sector. The financial benefits of transitioning to electric vans, particularly in terms of cost savings associated with fuel and maintenance expenses, are emphasized. An analysis of Class 2b and 3 vans in the United States found that over a five-year ownership period, battery electric vans were cheaper to own than diesel vans for a 200-mile range. The section stresses the importance of a holistic approach to clean logistics, as the country that makes it cheaper benefits from cleaner streets and better economics.
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Global renewable capacity to reach 8.4 TW by 2031, says GlobalData
GlobalData predicts that global renewable capacity will more than double to 8.4 TW by 2031, with solar PV leading the expansion and accounting for 56.1% of global renewable capacity. The Asia-Pacific region, led by China, is at the forefront of wind and solar deployment. However, the energy transition is uneven across regions, with potential weakening support for renewables in the United States. Artificial intelligence is increasingly being utilized in the power sector to improve generation forecasting and optimize energy storage, highlighting the importance of technological advancements in achieving climate solutions.
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Solar, storage to lead record 86 GW of US capacity in 2026
Solar and battery storage are set to account for 79% of 86 GW of new utility-scale capacity planned in the United States in 2026, with analysts projecting one in eight American homes will have solar, many with storage for self-consumption. Distributed small-scale solar generation is increasing, with a focus on integrated energy systems and high battery attachment rates. Renewables and storage are expected to make up 93% of new utility-scale capacity this year, with a significant growth in solar generation. The key focus now is on how quickly the infrastructure can be interconnected to the grid to ensure grid stability and maximize the benefits of these climate solutions.
https://www.pv-magazine.com/2026/02/26/solar-storage-to-lead-record-86-gw-of-us-capacity-in-2026/
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Environmental News Network – Exploring the Promise of Regenerative Aquaculture at an Arkansas Fish Farm
MIT engineering student Kiyoko "Kik" Hayano collaborated with Keo Fish Farms through MIT D-Lab to create a model for regenerative water systems, showcasing a trend in U.S. universities towards addressing national food security challenges in rural communities. This partnership exemplifies how applied engineering and academic collaborations can result in innovative solutions for regenerative agriculture in the United States.
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Common Charge and Advancing Distributed Energy
Common Charge, a new energy coalition launched in September, is advocating for distributed energy resources in the United States to address energy challenges. Focused on delivering affordable energy and strengthening grid resilience, the organization aims to protect ratepayers from price hikes and provide energy security against blackouts or outages. With the increasing electrification, data centers, and AI, Common Charge sees distributed assets as a key solution for the future. Learn more about their goals and initiatives in a podcast discussion available on various platforms.
https://cleantechnica.com/2026/01/11/common-charge-and-advancing-distributed-energy/
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Agrivoltaic Company Okovate Acquires Stanford University & Carnegie Mellon Tech Startup
Agrivoltaics, the combination of solar power plants with farmland, is gaining popularity in the solar power industry. Washington, DC-based company Okovate Sustainable Energy has acquired the assets of startup Fundusol to improve the planning and development of agrivoltaic projects. The acquisition allows Okovate to integrate a modeling platform developed at Stanford University and Carnegie Mellon, providing data-driven precision in co-locating solar energy and agriculture. The company's technology utilizes genetic algorithms and advanced data visualization to optimize solar array configurations for different crop types, aiming to strengthen the economic fabric of farming communities. Efforts are being made to increase the cost effectiveness and appeal of solar PV power in 2025, with plans to roll out more solar power on farmland across the United States and make additional announcements in 2026.
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Batteries now cheap enough to make dispatchable solar economically feasible
Utility-scale battery costs have fallen to $65/MWh outside China and the United States, making solar power more reliable. Ember reports a significant drop in battery costs in 2024 and further declines in 2025, making storage more accessible for dispatchable solar projects. The cost of a full utility-scale battery system is $125/kWh for long-duration projects of four hours or more. The levelized cost of storage (LCOS) is calculated at $65/MWh, factoring in various costs and improvements in efficiency and financing. Solar power is now considered anytime dispatchable electricity, changing the game for countries with high solar resources and growing energy demand.
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Photonic curing could accelerate transition to copper-metallized solar cells
Researchers in the United States have developed a photonic curing technique using laser sintering to improve the copper metallization of solar cells by reducing oxidation. This process produces dense, low-porosity copper layers with strong adhesion to indium tin oxide, achieving low bulk and contact resistivity. The technique allows for rapid, localized heating of copper pastes on temperature-sensitive substrates without causing thermal stress. The researchers aim to reduce copper consumption and improve the efficiency of solar cells through this innovative method, which is scalable and compatible with high-volume photovoltaic manufacturing. This new technique for solar cell manufacturing using photonic curing of copper inks could provide a pathway to scalable copper metallization for solar cells, as presented in a paper published in physica status solidi (PSS) by a research team including academics from the University of Delaware.