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by bob1029
3 days ago
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I'm a bit confused about why this is a serious engineering problem. If a gigawatt class DC suddenly needs to take its sensitive IT loads off grid, it could be designed with load banks on site to stand in for the IT load. These would be exceptional use only, so the specific cooling technology (obviously we want to boil water) is not much of an ecological concern. A gigawatt will vaporize ~100 gallons of water per second. How long until the grid can adapt? Five minutes? That's not exactly a heroic amount of water for these projects. |
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Yes, but that's not what's happening. These giant loads are suddenly going offline and are making it the transmission and generation networks' problem. The DCs aren't going to pay for it when they can socialize the costs and problems onto others.
The most obvious answer is these big loads need FFR and M-FFR BESS (battery) capacity near them or on-site to decouple and absorb these huge transient load swings into something the grid can handle. ERCOT should set additional rules that large load customers must use load smoothing rather than simply dumping load at auto-reclosers/auto-cutouts. Not doing so forces the entire grid to be at risk of low inertia transient over-generation.