North America held 40% of market value in 2025; Asia Pacific is named the fastest-growing region, propelled by sovereign AI initiatives and expanding cloud construction
Decision Focus
A July 2026 MarketsandMarkets report projects the global data center pumps market will grow from roughly $2.74 billion this year to $7.35 billion by 2032, at a compound annual rate of 17.9%. The primary driver is accelerating adoption of liquid cooling across hyperscale and colocation facilities. For Global Heads of Data Center Energy, the operational signal is not the pump market itself—it is what this capital flow confirms about the pace at which cooling infrastructure is migrating away from air-side systems, and what that migration does to power load profiles, PUE assumptions, and energy planning cycles.
90-Second Brief
Now, marketsandMarkets forecasts the global pump market serving data centers will nearly triple by 2032, with hyperscale operators driving both the largest current share and the fastest projected growth. North America held 40% of market value in 2025; Asia Pacific is named the fastest-growing region, propelled by sovereign AI initiatives and expanding cloud construction. Cooling and thermal management applications dominate demand, and centrifugal pumps, used across chilled-water, condenser-water, and cooling-tower circuits, held a 22% value share in 2025. The timing matters because pump procurement runs on multi-year cycles, and sites being designed now will lock in fluid-based infrastructure assumptions that shape energy loads through the mid-2030s.
What Is Really Happening?
The underlying shift is a structural change in how heat is removed from computing equipment. Rising rack power densities—driven by AI accelerator deployments—have made air cooling insufficient at the unit level, pushing operators toward direct-to-chip, immersion, and chilled-water architectures. Each requires active fluid circulation, which is where pump infrastructure enters the energy equation directly.
This is not simply an equipment procurement story. Pump systems are parasitic loads: they consume electrical power continuously to move the fluids that enable computing. As liquid cooling penetration deepens across hyperscale campuses, the share of facility power consumed by cooling fluid infrastructure grows alongside it. PUE models built on air-cooled assumptions underestimate this effect, and energy procurement volumes sized to historical cooling load factors may need revision as new liquid-cooled capacity comes online.
The hyperscale segment holds both the largest current market share and the highest projected CAGR—confirming that the largest power consumers are also the fastest movers on this transition. That is a material signal for energy planning: the operators spending most on pumping infrastructure are the same operators carrying the largest interconnection requests and the tightest renewable matching obligations.
Why It Matters for Global Heads of Data Center Energy
Three direct consequences are worth isolating. First, pump electrical load adds to facility energy consumption in ways that often sit outside the energy procurement model. If cooling systems are costed and contracted separately from the power team’s visibility, aggregate load projections for new campuses may be understated—a gap that compounds when a ten-year PPA is priced against an incomplete load forecast.
Second, Asia Pacific’s emergence as the fastest-growing pump market signals that data center construction is accelerating in regions where grid infrastructure, renewable supply, and interconnection timelines are less mature than in North America or Western Europe. Energy teams evaluating Asia-Pacific expansion should treat liquid cooling infrastructure lead times and local pump supply chain depth as a site readiness variable, not merely a facilities variable.
Third, the retrofit dimension of pump market growth—the report notes ongoing investment in data center modernization, not only new construction—means existing facilities are being re-engineered for higher rack densities. Each retrofit that replaces air handlers with liquid cooling circuits changes the facility’s energy consumption profile mid-lease, potentially against a fixed-tariff or fixed-PPA structure that did not anticipate the shift.
Forward View
If the projected growth rate holds, three fronts are worth monitoring. First, pump-related parasitic load could become a formal input in energy efficiency reporting as sustainability frameworks tighten disclosure requirements around facility-level Scope 2 emissions. Currently, this load is typically aggregated inside PUE rather than broken out; regulators or voluntary frameworks may change that.
Second, competitive pressure to shorten liquid cooling deployment timelines could stress equipment supply chains in the same way transformer procurement did in the early 2020s. If pump lead times extend as demand accelerates, it becomes a project scheduling constraint with energy delivery implications—sites may be energized and waiting on cooling infrastructure before compute loads can be brought online.
Third, the colocation sector’s move toward liquid-cooling-ready facility designs means enterprise tenants arriving with legacy air-cooled equipment will face increasing pressure to upgrade. That shift changes the power density profile of colocation campuses and, consequently, the energy volume those operators must procure and deliver to the meter.
What Is Still Uncertain
The market forecast originates from a commercial research firm with a financial interest in the report’s reach; the methodology behind the CAGR and regional share figures is not independently audited in this release. The 17.9% compound growth projection should be treated as directionally useful rather than operationally precise for budget-setting purposes.
More importantly, the report does not quantify the incremental electrical load that pump infrastructure adds per megawatt of deployed compute—the figure that would make this directly actionable for energy procurement. Without that conversion factor, the pump market trajectory confirms the directional shift but cannot be translated into watt-hours without additional facility-level modeling. The relationship between pump adoption rates and actual PUE changes across different cooling architectures also remains an open variable that this data alone does not resolve.
One Question for Your Team
When your team models energy consumption for a new liquid-cooled hyperscale campus or retrofit project, what specific line item accounts for cooling system parasitic load—and does that figure feed back into your PPA volume and duration assumptions?
Sources
- Prnewswire — Data Center Pumps Market worth $7.35 billion by 2032 – Exclusive Report by MarketsandMarkets™ (Link)
