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		<title>MISO Forecasts 35% Load Growth by 2035 as Data Centers Reshape the Grid</title>
		<link>/miso-35-percent-load-growth-2035-data-centers/</link>
		
		<dc:creator><![CDATA[Deepak Jain]]></dc:creator>
		<pubDate>Tue, 21 Apr 2026 16:00:00 +0000</pubDate>
				<category><![CDATA[Power Infrastructure]]></category>
		<category><![CDATA[AI infrastructure]]></category>
		<category><![CDATA[data center power]]></category>
		<category><![CDATA[grid planning]]></category>
		<category><![CDATA[interconnection]]></category>
		<category><![CDATA[load growth]]></category>
		<category><![CDATA[MISO]]></category>
		<category><![CDATA[transmission]]></category>
		<category><![CDATA[utilities]]></category>
		<guid isPermaLink="false">/miso-35-percent-load-growth-2035-data-centers/</guid>

					<description><![CDATA[MISO expects electricity demand across its footprint to jump 35% by 2035, driven largely by data center growth. Here is what that forecast means for utilities, grid planners, and the data center operators whose projects now dominate interconnection queues across the Midwest and South.]]></description>
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<p>The Midcontinent Independent System Operator (MISO) — the grid operator coordinating electricity across a footprint spanning 15 U.S. states and the Canadian province of Manitoba — expects electric load to jump roughly 35% by 2035, according to an April 2026 report from Utility Dive. The primary driver named in the forecast is data center growth.</p>
<p>A 35% increase over roughly a decade represents a dramatic break from the era of essentially flat U.S. electricity demand that prevailed from the late 2000s through the early 2020s, and it puts one of the largest grid operators in North America on record quantifying the scale of the AI-and-cloud buildout.</p>
<h2>Executive Summary</h2>
<p>MISO&#8217;s forecast is a planning document, not a press release from a company selling something — which makes it one of the more consequential data points in the ongoing debate over how much electricity the data center boom will actually consume. Regional transmission organizations (RTOs) like MISO exist to keep supply and demand balanced in real time and to plan the wires and generation needed years ahead. When an RTO raises its ten-year demand outlook by more than a third, that number flows directly into transmission planning, capacity auctions, and the resource plans of dozens of utilities.</p>
<p>The significance is twofold. First, it validates what individual utilities across the Midwest and Gulf South have been reporting piecemeal: hyperscale data center projects are arriving in interconnection queues at a pace with no modern precedent. Second, it sets up a decade of hard trade-offs. Meeting 35% growth requires new generation, new transmission, and new large-load interconnection rules — all on timelines that historically run slower than the two-to-three-year construction schedule of a data center campus.</p>
<p>For the infrastructure industry, the headline number is both an opportunity signal and a warning: the grid is now the binding constraint on digital infrastructure growth, and the regions that solve power delivery fastest will win the next wave of siting decisions.</p>
<h2>The End of Flat Demand Is Now Official Planning Doctrine</h2>
<p>For roughly fifteen years, U.S. grid planners could assume that efficiency gains — LED lighting, better HVAC, industrial offshoring — would offset economic growth, keeping total electricity demand nearly flat. That assumption underpinned everything from utility rate cases to power plant retirement schedules. A 35% load-growth forecast from MISO formally retires it for one of the largest grid footprints in North America.</p>
<p>What makes an RTO forecast different from a consultant&#8217;s projection is accountability: MISO must plan transmission and resource adequacy against this number. If the forecast is right and the buildout lags, the result is capacity shortfalls and price spikes. If the forecast is wrong and infrastructure is overbuilt, ratepayers carry stranded costs. Either error is expensive, which is why the assumptions behind the number — how much announced data center load actually materializes — deserve as much scrutiny as the number itself.</p>
<h2>Data Centers as the Marginal Buyer of Power</h2>
<p>A data center is, from the grid&#8217;s perspective, an unusual customer: it demands large blocks of power (often hundreds of megawatts per campus), runs at high utilization around the clock, and wants to connect years faster than traditional industrial load. When such customers become the dominant source of demand growth, they effectively set the terms of grid expansion — and grid operators, utilities, and regulators are still working out who pays for the upgrades those connections require.</p>
<p>The economics cut in several directions. Utilities in MISO territory gain a growth story they have not had in a generation, which supports investment in wires and generation. Existing ratepayers face the risk of subsidizing infrastructure built for loads that may not fully arrive — a concern regulators in several states are already addressing through special large-load tariffs and financial-commitment requirements. Data center developers, meanwhile, face the reality that power availability, not land or fiber, now determines where and when they can build.</p>
<h2>Winners, Losers, and the Speed Mismatch</h2>
<p>The core tension in a 35%-by-2035 scenario is timing. Gas turbines face multi-year order backlogs, new nuclear operates on decade-plus horizons, and large transmission projects routinely take seven to ten years from planning to energization. Data center campuses go from groundbreaking to load in two or three. That mismatch favors whoever can bridge it: developers with early interconnection positions, utilities with spare capacity or fast-track large-load processes, suppliers of grid equipment, and operators pursuing on-site or co-located generation.</p>
<p>It also raises competitive stakes between regions. MISO&#8217;s footprint — stretching from the upper Midwest to the Gulf Coast — competes with PJM, ERCOT, and the Southeast for hyperscale siting. A credible, well-executed plan to serve 35% more load is itself an economic-development asset; a forecast without matching buildout is a queue of frustrated customers who will site elsewhere.</p>
<h2>Forecast Versus Reality: The Phantom Load Question</h2>
<p>Every load forecast in the current environment must grapple with duplicate and speculative requests. Developers commonly file interconnection requests in multiple jurisdictions for the same project, and some announced campuses will never be built. Grid operators know this and apply screening assumptions, but the industry has little historical data on what fraction of AI-era announced load converts to actual consumption. The honest read of any 35% figure is that it is a planning scenario with meaningful uncertainty in both directions — actual growth could undershoot if projects evaporate, or overshoot if AI demand keeps compounding.</p>
<p>That uncertainty is not a reason to dismiss the forecast; it is a reason to watch how MISO and its member utilities structure commitments. Mechanisms that require large customers to put capital at risk — minimum-take contracts, collateral requirements, contribution to network upgrades — are the market&#8217;s way of separating real load from phantom load, and their adoption across the footprint will be a better indicator of true demand than any single projection.</p>
<h2>Background</h2>
<p>MISO was founded in 1998 and became the first FERC-approved regional transmission organization in the United States in 2001. It coordinates generation and high-voltage transmission across a footprint stretching from the upper Midwest down through the Gulf South, serving tens of millions of people through its member utilities. Like other RTOs, it does not own power plants or lines; it operates markets and plans the system that its members build.</p>
<p>The forecast arrives amid a broader U.S. re-acceleration of electricity demand after more than a decade of stagnation, driven by AI and cloud data center construction, manufacturing reshoring, and electrification. Grid operators across the country have been revising load outlooks upward repeatedly since the early 2020s, and interconnection queues for both large loads and new generation have swelled to historic levels — making forecasts like this one central to the industry debate over how much of the announced boom is real.</p>
<p>Source: <a href="https://news.google.com/rss/articles/CBMigwFBVV95cUxQVXhmckJJbmR1S0liV3dsRGFtbzJxdGhEM19lRkZiTV90TDU5NDJYRlFhM0lTU2s3eTNYbkxsQzNHeDBvMkxpRzhaYzVqSlFRZ0pmeS01MkFWbmtFUHJPRGM5SGUzVzNzT3JUWlRZZkFyd1dDYVR6SGs4RWh0Z292cFNVQQ?oc=5">MISO expects load to jump 35% by 2035 on data center growth</a> — Utility Dive report, April 21, 2026, on MISO&#8217;s ten-year load forecast.</p>
</div>
<aside class="jain-rail">
<section class="jain-gaps" aria-label="What the release does not say">
<p class="jain-gaps-kicker">⚠ What They Aren’t Saying</p>
<h2>What the Release Doesn&#8217;t Say</h2>
<p>The source item is a brief news summary, and several material questions sit behind the headline number. The available text does not specify the baseline against which the 35% growth is measured (peak demand versus annual energy, and from which year), how much of the growth MISO attributes to data centers versus electrification of transport, heating, and manufacturing, or what probability screens MISO applied to speculative interconnection requests.</p>
<ul>
<li>What resource mix — gas, renewables, storage, nuclear, demand response — does MISO assume will serve the added load, and does its capacity outlook show a shortfall in any planning year?</li>
<li>What transmission expansion is required, at what estimated cost, and how would those costs be allocated between large new loads and existing ratepayers?</li>
<li>What large-load interconnection reforms, tariff structures, or financial-commitment requirements accompany the forecast to filter out duplicate or phantom projects?</li>
<li>How does this forecast compare with MISO&#8217;s prior outlooks — i.e., how quickly is the projection itself being revised upward, and what would trigger the next revision?</li>
</ul>
</section>
<section class="jain-faq">
<h2>Frequently Asked Questions</h2>
<h3>What did MISO announce?</h3>
<p>According to an April 2026 Utility Dive report, MISO — the grid operator for a footprint covering 15 U.S. states and Manitoba — expects electric load across its system to jump roughly 35% by 2035, with data center growth cited as the primary driver.</p>
<h3>What is MISO?</h3>
<p>MISO, the Midcontinent Independent System Operator, is a nonprofit regional transmission organization that operates the high-voltage grid and wholesale power markets across much of the U.S. Midwest and Gulf South plus Manitoba, balancing supply and demand in real time and planning transmission years ahead.</p>
<h3>Why is a 35% load-growth forecast such a big deal?</h3>
<p>U.S. electricity demand was essentially flat from the late 2000s through the early 2020s, and grid planning was built around that assumption. A 35% increase in roughly a decade reverses it, forcing new generation, new transmission, and new rules for connecting very large customers.</p>
<h3>Why do data centers drive so much electricity demand?</h3>
<p>Modern hyperscale and AI data centers draw large blocks of power — often hundreds of megawatts per campus — and run at high utilization around the clock. AI training and inference workloads have sharply increased power density, making data centers the fastest-growing category of grid load.</p>
<h3>How does an RTO forecast differ from a company or analyst projection?</h3>
<p>An RTO must plan real infrastructure against its forecast: transmission expansion, capacity requirements, and reliability assessments all flow from it. That accountability makes the number more consequential than marketing projections, though it is still a scenario subject to revision.</p>
<h3>Is the 35% figure certain to materialize?</h3>
<p>No. Load forecasts in the AI era carry real uncertainty because developers file duplicate and speculative interconnection requests, and some announced projects never get built. Actual growth could come in below the forecast — or above it if AI demand keeps compounding.</p>
<h3>What is &#x27;phantom load&#x27; and why does it matter here?</h3>
<p>Phantom load refers to interconnection requests for projects that are duplicated across jurisdictions or never built. If planners treat all requests as real, they overbuild; if they discount too aggressively, they underbuild. Financial-commitment requirements help separate real projects from speculative ones.</p>
<h3>Who pays for the grid upgrades this growth requires?</h3>
<p>That is one of the central unresolved questions. Costs can fall on the large new customers through special tariffs and upgrade contributions, or spread across all ratepayers. Regulators in several states are developing large-load tariffs to keep existing customers from subsidizing data center growth.</p>
<h3>Can new power supply be built fast enough to meet 2035 demand?</h3>
<p>It is the industry&#8217;s core timing problem. Data center campuses can be built in two to three years, while gas turbines face multi-year backlogs and major transmission lines often take seven to ten years. Closing that gap will require faster interconnection processes and, in some cases, on-site generation.</p>
<h3>What does this mean for data center developers and operators?</h3>
<p>Power availability, rather than land or fiber, is now the binding constraint on siting and schedules. Developers with early interconnection positions or access to utilities with spare capacity hold a real advantage, and securing power commitments has become a core part of project development.</p>
<h3>What does it mean for utilities in the MISO footprint?</h3>
<p>It hands them their first major growth story in a generation, supporting investment in generation and wires. The accompanying risk is stranded cost: infrastructure built for announced loads that never arrive, which is why utilities are increasingly requiring contractual commitments from large customers.</p>
<h3>How does MISO&#x27;s situation compare with other U.S. grid regions?</h3>
<p>Other regions, including PJM in the mid-Atlantic and ERCOT in Texas, are reporting similar data-center-driven demand surges. The regions compete for hyperscale siting, so the speed and credibility of each grid operator&#8217;s buildout plan directly affects where the next wave of projects lands.</p>
<h3>What should investors watch to gauge whether the forecast is realistic?</h3>
<p>Watch conversion signals rather than announcements: signed large-load contracts with financial commitments, transmission projects that reach construction, capacity auction results, and whether MISO&#8217;s subsequent forecasts revise the number up or down as speculative projects wash out of the queue.</p>
<h3>Does electrification play a role beyond data centers?</h3>
<p>The Utility Dive summary names data center growth as the driver of MISO&#8217;s forecast, but electrification of vehicles, heating, and manufacturing is generally a contributing factor in long-range load outlooks. How MISO splits the growth among these sources is not detailed in the available text.</p>
</section>
</aside>
</div>
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