Summary
- Schneider Electric reported first-half revenue of €21.2 billion and adjusted EBITA of €4.1 billion.
- Data centre demand supported growth in electrical systems, installation, commissioning, and related services.
- Supplier growth remains concentrated in regions where projects can secure power, equipment, labour, and construction schedules.
Schneider Electric has raised its 2026 financial targets after data centre demand helped deliver record first-half revenue and earnings across its energy-management business.
Revenue reached €21.2 billion during the first six months, an organic increase of 14%, while adjusted earnings before interest, tax, and amortisation rose by 22% to €4.1 billion. The adjusted EBITA margin increased to 19.3%, and net income reached €2.5 billion.
Schneider now expects adjusted EBITA growth of 14%–19% for the full year, compared with its previous 10%–15% range. Its organic revenue-growth target has moved to 10%–13%, from 7%–10%.
Orders arrive before capacity opens
The company’s half-year results show how data centre investment is flowing through the critical-systems supply chain before new halls enter service. Second-quarter revenue reached €11.5 billion, up 17% organically, while the Energy Management business grew by 18%.
Installation and commissioning services benefited from continuing data centre activity, indicating that part of the demand has progressed beyond equipment reservation into physical deployment. Schneider’s portfolio spans medium- and low-voltage distribution, switchgear, UPS systems, busway, racks, cooling, controls, prefabricated modules, and field services.
Supplier revenue provides a wider market signal than individual campus launches because electrical and mechanical packages are ordered months or years before a facility is commissioned. It can also include equipment for retrofits, phased extensions, and projects whose final grid connection remains some distance away.
North America led the group’s geographic growth during the second quarter, expanding by 23% organically, while China and East Asia grew by 20%. Europe remains an active data centre market, although its projects frequently face longer planning procedures, fragmented grid regimes, and tighter power availability.
High-density AI halls increase the electrical and cooling content installed behind each megawatt of IT load. Larger busway, more closely monitored distribution, additional pumping, liquid-cooling interfaces, and greater heat-rejection capacity can increase project value even where the building footprint changes little.
Existing facilities are contributing alongside new construction. Operators are adding UPS modules, replacing switchgear, upgrading controls, reinforcing distribution paths, and installing liquid-cooling loops where buildings were designed around lower-density air-cooled equipment.
Factories and sites share the same pressure
Strong demand creates a delivery challenge for both equipment manufacturers and construction programmes. Transformers, switchgear, generators, cooling equipment, and control systems are required by data centres, utilities, manufacturing, transport, and other infrastructure sectors at the same time.
Schneider and its peers have expanded manufacturing capacity, but large projects still need to place orders early and maintain stable specifications. Changes made after equipment enters production can affect factory slots, testing, shipping, and commissioning.
AI hardware cycles make those design freezes difficult. Developers often need to procure the electrical and mechanical backbone before customers have confirmed the processor generation, rack density, or cooling interface. A design built too closely around current hardware may age quickly, while excess capacity increases cost and reduces utilisation.
Modular electrical and cooling systems can limit some of that exposure by allowing equipment to be added with the load. The building must still reserve the space, structural capacity, pipe routes, cable containment, and control architecture needed to support later modules.
Data centre growth is also influencing service revenue. Installation, commissioning, maintenance, and retrofit work require experienced engineers who understand the interaction between utility supplies, generators, UPS systems, switchgear, cooling, and controls. The simultaneous construction of several campuses can stretch that labour pool as severely as the equipment chain.
Higher revenue does not show how much European capacity will open on schedule. Orders can sit against facilities awaiting grid work, and manufacturers may recognise sales before the customer’s building begins commercial operation.
Inflation and geopolitical disruption remain capable of increasing material, shipping, and labour costs. Schneider’s updated outlook reflects current order and execution strength, while the final margin on long programmes can still be affected by price movements and design changes.
The results confirm that spending on data centre power and cooling infrastructure remains elevated, with capital moving through manufacturers, integrators, and service teams. Backlog conversion, regional order growth, factory capacity, and commissioning activity will show how quickly that spending becomes operating megawatts rather than a larger queue of projects and equipment packages.
