Reaching data centers with long-duration energy storage

My Account

Submitted by Benjamin Campbell on

Key takeaways

  • Long-duration energy storage (LDES) previously deployed in isolated places with severe grid constraints and where importing fuel was expensive or transmission scarce, but AI data centers are driving new growth in LDES demand.
  • The AI load has outstripped transmission and natural gas generation, making the cheap, firm alternative that undercut LDES unavailable for now.
  • Capacity value is the engine.

What technologies are competing to solve the power challenges of AI data center load management?

My Account

Submitted by Emily Sedlacek on

Key takeaways

  • Lithium-ion (Li-ion) remains the main battery chemistry for battery energy storage systems (BESS), but sodium-ion (Na-ion) and flow batteries could soon see adoption as backup power storage.
  • Data centers can use software to distribute compute tasks across multiple sites and match workloads to available power.
  • Rapid improvements in processing architectures and algorithms, and the value proposition of BESS and other back-up systems, will evolve against this highly volatile back

Why are batteries becoming essential for AI data center load management?

My Account

Submitted by Emily Sedlacek on

Key takeaways

  • AI data centers combine huge power demands with rapid fluctuations, reshaping how operators, technology providers, and utilities shape infrastructure.
  • Data centers consume so much power that operators must consider how to match data center demand to utility supply instead of matching supply to demand.
  • AI data center power strategies must address four distinct but interrelated challenges: bridging short-duration outages, smoothing ultrafast load fluctuations, managing peak demand, and

Uncompromising high-performance thermal protection in battery energy storage systems with GORE battery insulation technology

My Account

Submitted by Catherine Forrest on

Battery energy storage systems (BESS) face critical safety challenges in managing thermal runaway events while maintaining optimal performance. Traditional thermal barriers may stop working well during thermal runaway, when both temperature and pressure get very high. This white paper looks at how a new technology from W. L. Gore & Associates, Inc.

How is China’s EV demand affecting the costs of energy storage systems in the US and Canada?

My Account

Submitted by Joshua Sorensen on

Key takeaways

  • The supply chain for US and Canadian stationary batteries isn’t stand-alone but part of the global supply chain.

Slower adoption, higher prices, and an altered domestic supply chain: How policy changes could affect the US battery market

My Account

Submitted by Joshua Sorensen on

Key takeaways

  • We revised our EV demand forecast between 2025–2032 to reflect the rise in EV prices as tariffs roll out and incentives roll back.
  • Proposed tariffs, like the 921% antidumping tariff on graphite materials, threaten to erase the last two years of battery price declines and unbalance ESS economics.
  • Policy uncertainty will slow investments across the battery supply chain along with the adoption of stationary energy storage and EVs.

Are lithium iron phosphate batteries the Stanley tumbler of grid storage applications?

My Account

Submitted by Sara Fortin on

Utilities and battery storage project developers around the globe are switching from the widely used chemistry of nickel manganese cobalt (NMC) to lithium iron phosphate (LFP).

Subscribe to Battery Next

Get in touch

Let's meet today's demands - and plan for what's next.

What challenge is top of mind for your team right now? Reach out to start a focused conversation about your priorities and explore solutions shaped around your specific goals.