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AEP expects to add 24 GW of load by 2030, mainly from data centers - American Electric Power expects 24 GW of new demand by 2030, a 65% jump over its current 37 GW peak. Most of it comes from data centers and crypto, concentrated in Texas and PJM states. With 190 GW of interest waiting, fuel cells may help at the margins—but big questions remain about how the grid will scale.
The U.S. grid is about to take on a huge wave of demand.
American Electric Power (AEP) operates a system with a current peak capacity of 37GW. It now expects its utilities to interconnect an additional 24 GW of new demand by 2030, up from its earlier forecast of 20 GW.
To break it down: If all 24 GW were realized and coincided with peak demand, it would represent a ~65% increase over AEP's current 37 GW peak load. That’s roughly equal to the capacity of 24 large nuclear plants operating near full capacity. (given ~1 GW of capacity per large nuclear plant).
Where is all this demand coming from?
Breaking it down by geography:
This load is backed by signed commitments, not just inquiries. In fact, AEP has received interest totaling 190 GW, five times its current 37 GW system. That kind of demand can overload infrastructure fast.
To bridge the gap, AEP is deploying 100 MW of Bloom Energy fuel cells now, with the option to expand to 1 GW this year.
In Ohio specifically, regulators approved two projects—at Amazon Web Services and Cologix data centers—with a combined 98 MW of fuel cells. These are already greenlit and funded by the customers themselves.
But let’s be real, 100 MW is a drop in the ocean compared to the 24 GW coming online. It’s a smart temporary measure, not a solution.
Policy is part of the story, too. Ohio has repealed the law allowing utilities to install customer-sited solutions like fuel cells–except for two contracts already in place. Texas is taking the opposite path, passing legislation that helps utilities recover costs faster and improve returns, encouraging investment.
Will the grid planners lean into rapid, distributed solutions like fuel cells and storage—or double down on traditional grid expansion? And which path delivers the best outcomes for utilities, businesses, and everyday people?
It’ll be fascinating to watch which approach pays off—and where energy delivery ends up.
Author: Ethan Howland