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Co-op Energy Storage is accelerating as not-for-profit utilities deploy distributed batteries to manage data center load, shave peaks, bolster resilience, and defer T&D upgrades, leveraging behind-the-meter assets and distribution-connected systems to hedge wholesale power costs.
The Core Facts
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Co-ops and munis deploy distributed batteries to meet rising load
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NRECA tallies 439 MW/1,047 MWh; capacity could triple by 2028
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GVEC expanding a residential battery pilot from 2 MW to 50 MW
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EPB Chattanooga doubling storage; shaves TVA demand peak charges
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BRPA planning 25 MW across five distribution sites in Virginia
Not-for-profit utilities are moving quickly to add energy storage as large new loads and broader electrification pressure power supply and reliability. Cooperative and municipal providers are prioritizing distribution-connected and behind-the-meter batteries to shave peaks, hedge wholesale costs, and avoid expensive substation or feeder upgrades as demand from data centers and other growth sectors mounts. For added context on load growth trends, see Ontario electricity demand up for perspective on regional demand signals.
By last summer, rural electric cooperatives had about 439 MW and 1,047 MWh of operating battery capacity, according to industry data cited in recent filings, with dozens of additional projects in development that could more than triple cooperative storage by 2028. Those figures remain a small share of the 28 GW and 57 GWh of storage that connected to the U.S. grid in 2025, underscoring how quickly the broader market has scaled even as co-ops and munis ramp up targeted deployments.
Member-owned providers are pairing mature demand response with batteries to deepen flexibility. In Minnesota, Meeker Energy is piloting residential systems to improve resilience and demand-side control after assessing the economics of standby generation versus partial-or whole-home batteries. Leaders there note that more than half of members already participate in load-management programs, and batteries can extend those gains, including efforts to keep electricity kept on during disruptive events.
Co-ops are also scaling up distribution-side assets to relieve capacity and congestion. In Texas, Guadalupe Valley Electric Cooperative plans to grow a residential battery program from roughly 2 MW to 50 MW over the next few years, describing the distributed approach in ERCOT as more cost-effective than building grid-scale storage. For readers tracking site-level implementation, see Woodstock battery storage for additional community context.
Municipal and joint-action agencies are pursuing similar strategies. A Virginia wholesale agency for municipal and cooperative utilities outlined plans for about 25 MW of distribution-connected batteries across five locations to charge during low-demand hours and discharge during peak periods. In Tennessee, a city utility operates 45 MW and 95 MWh today and plans to double that within a year, using storage largely to manage monthly demand charges that can represent a significant share of wholesale purchase costs; one new four-hour system will anchor a microgrid serving a mountainous area prone to outages. The sector's crisis-planning playbooks, including American grid COVID reflections, reinforced the value of modular assets for service continuity.
Because not-for-profit utilities do not earn a regulated return on capital, many are cautious about ownership and program design. A recently approved Minnesota pilot envisions up to 200 MW of utility-owned, distribution-connected batteries by 2028, sparking debate over whether third-party aggregation of customer assets could deliver better risk allocation and value. The utility plans to continually evaluate costs and benefits and provide interim reporting through August 2028.
Storage, often paired with local generation, is also advancing in remote and islanded territories to reduce fuel burn and ride through transmission contingencies. In Alaska, one cooperative built a 46.5 MW, 93 MWh system in 2022 and secured financing in 2024 for an additional 45 MW, 180 MWh nearby; another Alaska utility lined up funding for two cold-hardened units totaling 92 MWh. In Hawaii, regulators cleared a 43 MW and 172 MWh solar-plus-storage project expected to cover nearly one-fifth of a cooperative's load and lower member bills over the long term. For pandemic-era operations takeaways, see US grid virus reponse and how contingency planning intersects with DER investments, including storage.
Larger public providers are also scaling capacity. One federal power entity targets about 1.5 GW of storage by 2029, beginning with a 200 MW and 800 MWh installation in Alabama. In Minnesota, a large cooperative that built the state's first megawatt-scale grid batteries in 2018 has since added a 2.5 MW, 10 MWh substation asset to avoid a transformer upgrade; the unit is registered as a capacity resource, enabling additional wholesale value through strategic dispatch.
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