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  • Data centre

    Insight report

    Can AI keep its cool?

    Our COP31 report explores practical solutions for more sustainable and resilient data centre growth.

Report highlights

A low-angle shot of a factory machine, with electric wires

AI is putting pressure on energy systems

Data centre electricity demand could roughly double to around 1,100TWh by 2030, increasing pressure on power generation, grids and local infrastructure.

A woman walking through a data centre

Efficiency could change the equation

More efficient computing, advanced cooling and new power architectures could reduce the energy and water needed for each unit of compute, helping moderate the impact of rapid growth.

Arial view of a factory with wind turbines

Could AI help drive new energy investment?

An AI infrastructure build-out of up to USD9 trillion through 2040 could create a powerful new anchor for investment in clean power, grids and energy infrastructure.

Amazon, Google, Meta and Microsoft have already contracted 140GW+ of renewable power, including almost 35GW in 2025.

About the report

Inside Can AI keep its cool? The choices shaping sustainable AI growth

AI is accelerating a global data centre infrastructure super cycle, bringing investment opportunities alongside legitimate questions about electricity demand, water use, emissions and pressure on local infrastructure.

Authored by Eugene Klerk, Head of Sustainability Insights, the report moves beyond headline claims to understand where these impacts arise, how they vary by location and operator, and which solutions can make the biggest difference.

Drawing on inputs from Microsoft, NVIDIA and Trane Technologies, it examines how greater efficiency, investment in cleaner power, advanced cooling, circularity and stronger resource management could ease the pressure on power and water systems while building more efficient and resilient infrastructure.

Cover of Standard Chartered’s report showing a brightly lit aisle of data centre servers, illustrating the infrastructure behind sustainable AI growth.

The bottom line

AI-driven data centre growth is neither environmentally benign nor inherently unsustainable. Its outcome will depend on the choices made as the sector expands.

If the right conditions become standard practice, data centres could expand while reducing power and water intensity and potentially supporting the wider energy transition. If they do not, infrastructure, environmental and social constraints could intensify pressure on our energy systems and natural resources, ultimately limiting growth.

Green trees lined alongside a water body
Technology and operating practices are advancing quickly; many of the solutions needed to reduce power and water intensity already exist. The challenge is to make 'what good looks like' the standard across the sector.
Profile
Marisa Drew
Chief Sustainability Officer

Key findings

01

How big is the AI infrastructure opportunity?​

Around 60 per cent of today’s live data centre capacity was added in the past five years. Industry forecasts suggest the world may add roughly the same amount again by 2030, with Asia and other emerging markets becoming increasingly important growth hubs.

The scale of required investment is significant. Some estimates suggest that enabling the AI-driven build-out may require up to USD9 trillion across IT hardware, physical infrastructure, power generation, grid capacity, cooling systems and enabling supply chains. Enabling data centre growth during the next three years may require external, debt and equity funding of more than USD1 trillion.

02

Could AI accelerate energy transition investment?

The scale of AI infrastructure investment could create a powerful new source of demand for clean power, grids and energy infrastructure. Amazon, Google, Meta and Microsoft have already contracted more than 140GW of renewable power, including almost 35GW in 2025.

Where operators make credible, long-term commitments to efficient infrastructure, additional low-carbon generation and system flexibility, that demand can improve investment visibility and help support the development of new energy capacity.

If AI is used to optimise energy consumption in buildings, industry, transport and power systems, the resulting efficiency gains in those sectors may also perhaps offset a significant part of the additional electricity demand from data centres.

Data centre-related power consumption is low relative to other sectors on a global level, however, near-term local challenges can be significant where rapid growth is already testing power, grid and water systems.

03

Can data centre growth limit added power demand?

Forecasts suggest global data centre electricity demand could reach around 1,100TWh by 2030, roughly twice 2025 levels, with AI potentially accounting for almost half of that demand. 

The challenge is not only how to meet this rising demand, but how to support digital growth without placing unnecessary pressure on global and local electricity systems, energy costs or decarbonisation efforts. 

The report identifies several levers that could help leading data centres reposition themselves from large, largely passive electricity users into more efficient and flexible participants in the energy system. 

These solutions include more efficient hardware and software, higher utilisation, heat reuse, renewable power, 800V DC architecture, battery storage and microgrids. Next-generation AI infrastructure could also dramatically reduce cooling requirements.

For example, new liquid-cooled architectures can operate efficiently at temperatures of around 45°C, substantially reducing the need for separate mechanical cooling and the associated power and water use. 

04

Will low-water data centres become the norm?

Water use remains an important local consideration, particularly in water-stressed regions, but there is substantial variation according to cooling technology, location and power source.

Several levers could help moderate water intensity, including more efficient hardware and software, higher utilisation, heat reuse, renewable power, 800VDC architecture, battery storage and microgrids.

Some leading operators are already improving water efficiency substantially: reported Water Use Effectiveness (WUE) at Amazon, Meta and Microsoft has fallen by 43–52 per cent since 2020. Liquid and dry cooling, higher operating temperatures, recycled water, renewable power and replenishment programmes could reduce future water intensity and may make low to near-zero water intensity a feature of future data centres.

Machine at a factory
Ultimately, the environmental footprint of AI infrastructure is not fixed. It is shaped by the choices made around technology, infrastructure, resource use, community engagement and reporting requirements.
Profile
Eugene Klerk
Head of Sustainability Insights

05

What does good look like for data centres?

Data centre sustainability cannot be judged through a single metric or portfolio-wide average. Power and water impacts vary according to location, grid mix, climate, technology and utilisation, making facility-level assessment important.

Leading facilities optimise energy, carbon and water together, taking account of local grid conditions, climate and water availability, while reporting both absolute impacts and intensity metrics.

Yet the report’s assessment finds that while more than 60 per cent of the operators reviewed disclose overall energy or water use, fewer than 10 per cent provide facility-level data. More consistent, facility-level disclosure could help make data centres comparable, strengthen planning and investment decisions, and direct capital towards better environmental performance.

Priority actions

Delivering more sustainable and resilient data centre growth requires action from stakeholders across the ecosystem.

For data centre operators 

Use less before procuring more: improve model and software efficiency, deploy more efficient hardware, raise server utilisation and optimise workload scheduling where possible so that each unit of electricity and water produces more useful compute.

  • Design for low-resource operation: use liquid, dry or closed-loop cooling where technically and climatically appropriate; allow facilities to operate at higher temperatures if possible; reduce dependency on potable water; and embed heat reuse and circular design from the outset.
  • Secure credible clean power: prioritise additional, physically deliverable low-carbon electricity, improve geographic and hourly matching, and combine procurement with energy storage, microgrids and flexible demand to reduce pressure on constrained grids.
  • Make location a sustainability decision: screen sites for grid readiness, carbon intensity, water stress, heat-reuse and water replenishment potential, water and power infrastructure resilience and community impact before committing capital.
  • Build local legitimacy: engage regulators, utilities and communities early, set site-specific resource commitments and demonstrate how projects contribute to local infrastructure, water resilience and economic value.
For policymakers

Link permitting and grid connections to credible power, water and community-impact plans; establish common facility-level measurement standards; and reward projects that add clean generation, flexibility, heat reuse and local water resilience projects.

For financiers

Move beyond data centre operators’ portfolio averages and test each project against location-specific resource constraints, technology choices and transition plans, using performance-linked capital and covenants to accelerate measurable improvements.