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Dell forecasts AI will make up 75 percent of data centre demand by 2030

A 200 GW power forecast and a $95 billion backlog show why data centre planning now starts with electricity rather than floor space.

Square 1 AI Newsroom5 min read

Dell has told investors that artificial intelligence will represent 75 percent of all data centre demand by 2030, a shift the company says will require roughly 200 gigawatts of additional power over the same period. The forecast came from Jeff Clarke, Dell's chief operating officer and vice chairman, during the earnings call for the second quarter of the company's fiscal 2027, which ended on 31 July. The Next Platform reported the projections on 7 September 2026.

Clarke set out the scale of the demand Dell expects. By 2030 the company projects inference workloads of 3,600 quadrillion tokens, an 87-fold increase, and training demand of 850 zettaflops, a fivefold increase. Dell estimates that about half of the 200 GW of additional power will be consumed by neoclouds, sovereign projects and enterprises rather than the largest hyperscalers, and describes the total opportunity as more than $1 trillion over the period.

The latest quarter gives a sense of the ramp. Dell's AI systems sales reached $16.4 billion, double the year-ago figure, with $60.9 billion in bookings during the quarter and a backlog of $95 billion, 8.1 times larger than a year earlier. Dell projects $19 billion in AI system sales in the third quarter, $22.5 billion in the fourth and $74 billion for the full year. Overall revenue was $46.97 billion, up 57.7 percent, with the Infrastructure Solutions Group contributing $31.78 billion.

Dell also pointed to consolidation of older hardware as a second driver. The company says 1.2 million servers in its installed base are PowerEdge 14G or older, a generation announced in 2017, and cites consolidation ratios of six to eight legacy servers onto one 17G machine and 12 to 14 onto one 18G machine. Dell reports that 6,500 organisations have deployed AI systems on PowerEdge servers, with the most recent 3,300 customers arriving in three quarters compared with eight quarters for the first 3,200.

Why it matters

A vendor projecting that three-quarters of data centre demand will be AI within four years reframes the data centre from a general-purpose facility into a specialised power and cooling problem. The 200 GW figure puts the constraint squarely on electricity supply and grid connection rather than on chip availability alone. The consolidation story matters too, because replacing many old servers with fewer dense ones frees rack space and power for accelerators without new buildings. Whether or not the forecast lands exactly, the industry is planning as if it will.

Dell AI systems sales, actual and projected (US$ billion)
  • Q2 FY2027 actual$16.4bn
  • Q3 FY2027 projected$19bn
  • Q4 FY2027 projected$22.5bn
  • AI systems backlog$95bn

Figures: Dell fiscal 2027 earnings call figures as reported by The Next Platform

What you can learn from this

  • Power is the binding constraint on AI data centres. A rack of AI accelerators can draw several times the power of a rack of conventional servers, so capacity is now described in megawatts and gigawatts rather than square metres. Utility interconnection agreements, transformer lead times and substation build-outs typically take years, far longer than the time needed to order servers. That mismatch explains why a hardware vendor is talking about grid capacity on an earnings call. When power is scarce, the sites that already have it become the most valuable asset in the chain.

  • Training and inference load a facility differently. Training runs a small number of enormous jobs that keep every accelerator busy for weeks and demand very fast networking between them. Inference serves many independent requests, is measured in tokens produced, and scales with user demand rather than model size. Dell's split of an 87-fold rise in inference tokens against a fivefold rise in training compute reflects the expectation that inference grows with adoption. Inference capacity can be distributed closer to users, while training clusters tend to concentrate where power is cheapest.

  • Server consolidation is a power play, not just a cost saving. Each processor generation delivers more cores and better performance per watt, so one modern machine can absorb the work of several older ones. Retiring a dozen old servers for one new one returns the electrical and cooling headroom those machines used. In a constrained site, that recovered power is what makes room for accelerators. This is why vendors pair AI pitches with refresh pitches: the two compete for the same watts.

  • Backlog and bookings describe future load, not current load. A backlog is the value of orders received but not yet delivered, and bookings are orders taken within a period. For data centre planners, a large backlog signals hardware that will arrive and need power and cooling in the coming quarters. Read alongside a power forecast, it is a rough leading indicator of where capacity pressure will appear next. It also shows why supply chains for transformers and chillers are watched as closely as chip supply.

  • Neoclouds and sovereign deployments change where capacity is built. Neoclouds are smaller providers that rent accelerator capacity, and sovereign projects are national or regional deployments meant to keep data and compute within a jurisdiction. Dell's estimate that half of the new power demand comes from these buyers plus enterprises implies many mid-sized facilities rather than a handful of giant campuses. That pattern spreads grid impact across more regions and more utilities. It also means more organisations need in-house skills for siting, power and cooling.

How to use this in practice

  • Build a rack power budget spreadsheet. Take a hypothetical rack: list its components (a number of accelerator servers, top-of-rack switches, storage) with their published maximum power draw, sum them, and compare the total against common rack feeds of 10, 20 and 40 kW. Add a column for facility overhead using an assumed power usage effectiveness such as 1.2, then vary the number of accelerator servers per rack to see how quickly the feed is exhausted. Done looks like a sheet that shows how many such racks a 1 MW hall could support under each assumption.

  • Convert a gigawatt into something you can picture. Work through the arithmetic: 200 GW of additional demand divided by an assumed 100 MW per large facility gives a rough count of sites. Then divide by a smaller site size, such as 20 MW, to see what the neocloud picture implies, and finally compare the total against the published capacity of a power station you know. Done looks like a short note with all three numbers and the assumptions written beside them.

  • Draw a layered diagram of a data centre's power path. Sketch the chain from grid substation to on-site transformer to switchgear to uninterruptible power supply to power distribution unit to rack. Label each stage with its function and mark which stages usually have the longest procurement lead times, then add a second path for the cooling plant so the two dependencies sit side by side. Done looks like a one-page diagram you could explain to a colleague in two minutes.

  • Estimate a consolidation ratio from public specifications. Pick a server model from around 2017 and a current-generation model from any vendor, look up core counts and published benchmark scores, and calculate roughly how many old machines one new one could replace. Compare your figure with the six-to-fourteen range Dell quotes and write down why the two might differ. Done looks like a paragraph with your ratio and your reasoning.

Sources

Our reporting is an original summary; full coverage is at the links above.

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